Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board: https://up-community.org/wiki/Hardware_Specification but I am hitting problems which I will detail below. When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit: * seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h + #define UPBOARD_RSDP 0x5B161000 * seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c - acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP; * seL4test/kernel/src/plat/pc99/machine/acpi.c - for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) { It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post: https://sel4.systems/pipermail/devel/2017-February/001328.html and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously. At this point I noticed that before any tests started to run several ACPI tables are not recognized: Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables. Any suggestions about porting this type of hardware? -- Edward Sandberg Adventium Labs 111 3rd Avenue S. Suite #100 Minneapolis, MN 55401 ed.sandberg@adventiumlabs.com
Hi Edward, In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally. A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime. It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done. As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from. The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing. Adrian On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote: Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board: https://up-community.org/wiki/Hardware_Specification but I am hitting problems which I will detail below. When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit: * seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h + #define UPBOARD_RSDP 0x5B161000 * seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c - acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP; * seL4test/kernel/src/plat/pc99/machine/acpi.c - for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) { It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post: https://sel4.systems/pipermail/devel/2017-February/001328.html and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously. At this point I noticed that before any tests started to run several ACPI tables are not recognized: Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables. Any suggestions about porting this type of hardware?
Hello, since last week we successful added UEFI support to Genode/seL4 for x86. In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu. Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information. The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually. Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc. I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted. Cheers, Alex. [0] https://github.com/genodelabs/genode/commit/b9aa16eb3e671a7e3c1474b076a244c7... "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/c09783eed9a52ad72e8a1a986b832303... "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/multiboot.texi?h=multiboo... On 10.08.2017 16:50, Adrian.Danis@data61.csiro.au wrote:
Hi Edward,
In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally.
A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime.
It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done.
As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from.
The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing.
Adrian
On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote:
Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board:
https://up-community.org/wiki/Hardware_Specification
but I am hitting problems which I will detail below.
When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit:
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h
+ #define UPBOARD_RSDP 0x5B161000
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c
- acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP;
* seL4test/kernel/src/plat/pc99/machine/acpi.c
- for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) {
It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post:
https://sel4.systems/pipermail/devel/2017-February/001328.html
and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously.
At this point I noticed that before any tests started to run several ACPI tables are not recognized:
Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT
Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables.
Any suggestions about porting this type of hardware?
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
-- Alexander Boettcher Genode Labs http://www.genode-labs.com - http://www.genode.org Genode Labs GmbH - Amtsgericht Dresden - HRB 28424 - Sitz Dresden Geschäftsführer: Dr.-Ing. Norman Feske, Christian Helmuth
Hi Alex, I think this is a good direction to move in, and supporting MBI2 definitely makes sense. In an ideal world, yes we would try and cut out grub2 and be pure UEFI booted, but given current resources I cannot see that happening any time soon, and so I see no reason not to welcome MBI2 support. As you point out some of the code itself is not perfect, but what it's actually doing seems fairly simple and non-controversial to me. Quite possibly you did this just to get it working as a proof of concept, but I would discourage adding more architecture information to the raw seL4_Bootinfo (the archInfo word is an old hack), and instead use the additional headers (https://github.com/seL4/seL4/blob/master/libsel4/include/sel4/bootinfo_types...). Aside from that, as you say the code needs some deduplication etc, but I'm happy to continue on github and get this in. Adrian On Fri 25-Aug-2017 11:31 PM, Alexander Boettcher wrote: Hello, since last week we successful added UEFI support to Genode/seL4 for x86. In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu. Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information. The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually. Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc. I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted. Cheers, Alex. [0] https://github.com/genodelabs/genode/commit/b9aa16eb3e671a7e3c1474b076a244c7... "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/c09783eed9a52ad72e8a1a986b832303... "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/multiboot.texi?h=multiboo... On 10.08.2017 16:50, Adrian.Danis@data61.csiro.aumailto:Adrian.Danis@data61.csiro.au wrote: Hi Edward, In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally. A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime. It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done. As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from. The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing. Adrian On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote: Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board: https://up-community.org/wiki/Hardware_Specification but I am hitting problems which I will detail below. When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit: * seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h + #define UPBOARD_RSDP 0x5B161000 * seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c - acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP; * seL4test/kernel/src/plat/pc99/machine/acpi.c - for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) { It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post: https://sel4.systems/pipermail/devel/2017-February/001328.html and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously. At this point I noticed that before any tests started to run several ACPI tables are not recognized: Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables. Any suggestions about porting this type of hardware? _______________________________________________ Devel mailing list Devel@sel4.systemsmailto:Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
Hi Adrian, On 28.08.2017 02:53, Adrian.Danis@data61.csiro.au wrote:
Hi Alex,
I think this is a good direction to move in, and supporting MBI2 definitely makes sense. In an ideal world, yes we would try and cut out grub2 and be pure UEFI booted, but given current resources I cannot see that happening any time soon, and so I see no reason not to welcome MBI2 support.
As you point out some of the code itself is not perfect, but what it's actually doing seems fairly simple and non-controversial to me. Quite possibly you did this just to get it working as a proof of concept, but I would discourage adding more architecture information to the raw seL4_Bootinfo (the archInfo word is an old hack), and instead use the additional headers (https://github.com/seL4/seL4/blob/master/libsel4/include/sel4/bootinfo_types...). Aside from that, as you say the code needs some deduplication etc, but I'm happy to continue on github and get this in.
ok, created a github issue at https://github.com/seL4/seL4/issues/67 -- Alexander Boettcher Genode Labs http://www.genode-labs.com - http://www.genode.org Genode Labs GmbH - Amtsgericht Dresden - HRB 28424 - Sitz Dresden Geschäftsführer: Dr.-Ing. Norman Feske, Christian Helmuth
Hello, I built Genode 17.08 with run option "image/uefi" and platform option "sel4_x86_32". I have tried booting the resulting image on a variety of machines but am not getting the behavior I expect. The machines I have tried are: * Up board (a Windows compatible Atom-based system) * Dell M3800 laptop * Dell Latitude 7280 laptop * HP ProLiant DL380 Gen9 Server * Dell Optoplex 990 * Asus P9X79 WS Motherboard with Intel Core i7-3930K The furthest I have gotten was on the UP board, which only supports UEFI boot: https://www.intel.com/content/www/us/en/support/emerging-technologies/intel-... I saw serial output but no graphical output (see below). The other machines I tried to boot on didn't even give me serial output. The serial output seems to indicate that an attempt to create a framebuffer failed. Is this the correct build procedure? What hardware have you used to test UEFI boot? Does the trace below suggest any experiments to try? ***************************************************************** WARNING: no console will be available to OS Bender: Hello World. Boot config: parsing cmdline '' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = false Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xeaba000 end=0xf0ff968 size=0x645968 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 2000 type 2 Physical Memory Region from 100000 size 1ef00000 type 1 Adding physical memory region 0x100000-0x1f000000 Physical Memory Region from 1f000000 size 1200000 type 2 Physical Memory Region from 20200000 size 3af29000 type 1 Physical Memory Region from 5b129000 size 30000 type 2 Physical Memory Region from 5b159000 size 25000 type 3 Physical Memory Region from 5b17e000 size 5d2000 type 4 Physical Memory Region from 5b750000 size 2b9000 type 2 Physical Memory Region from 5ba09000 size 79000 type 20 Physical Memory Region from 5ba82000 size 57e000 type 1 Physical Memory Region from e0000000 size 4000000 type 2 Physical Memory Region from fea00000 size 100000 type 2 Physical Memory Region from fec00000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Physical Memory Region from fed03000 size 1000 type 2 Physical Memory Region from fed06000 size 1000 type 2 Physical Memory Region from fed08000 size 2000 type 2 Physical Memory Region from fed1c000 size 1000 type 2 Physical Memory Region from fed80000 size 40000 type 2 Physical Memory Region from fee00000 size 1000 type 2 Physical Memory Region from ffc00000 size 400000 type 2 Kernel loaded to: start=0x200000 end=0x281000 size=0x81000 entry=0x20007e ACPI: RSDP paddr=0x3c490 ACPI: RSDP vaddr=0xdfc3c490 ACPI: RSDT paddr=0x5b161028 ACPI: RSDT vaddr=0xdfd61028 ACPI: FADT paddr=0x5b1611a8 ACPI: FADT vaddr=0xdfd611a8 ACPI: FADT flags=0x421 ACPI: MADT paddr=0x5b177380 ACPI: MADT vaddr=0xdfd77380 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x2 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_APIC apic_id=0x6 ACPI: MADT_IOAPIC ioapic_id=1 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 4 CPU(s) detected Detected 1 boot module(s): ELF-loading userland images from boot modules: size=0xd87000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d87000 p_start=0xf100000 p_end=0xfe87000 Moving loaded userland images to final location: from=0xf100000 to=0x281000 size=0xd87000 Starting node #0 with APIC ID 0 Starting node #1 with APIC ID 2 Starting node #2 with APIC ID 4 Starting node #3 with APIC ID 6 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d87000) ipc buffer [02d87000,02d88000) boot_info [02d88000,02d8a000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2800df8 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=0 Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=0 Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=400M Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=0 Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=0 Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=400M Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=0 Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=0 Block: [0104e000,0104f000) size=4K avail=0 max_avail=0 Block: [0104f000,01050000) size=4K avail=0 max_avail=0 Block: [01050000,01051000) size=4K avail=0 max_avail=400M Block: [01051000,01052000) size=4K avail=0 max_avail=0 Block: [01052000,01053000) size=4K avail=0 max_avail=3756K Block: [01053000,01054000) size=4K avail=0 max_avail=0 Block: [01054000,01055000) size=4K avail=0 max_avail=3756K Block: [01055000,01400000) size=3756K avail=3756K max_avail=3756K Block: [01800000,01801000) size=4K avail=0 max_avail=400M Block: [01801000,02000000) size=8188K avail=8188K max_avail=8188K Block: [03000000,1c000000) size=400M avail=400M max_avail=400M Block: [1e000000,1ebe0000) size=12160K avail=12160K max_avail=12160K => mem_size=444485632 (423 MB) / mem_avail=444112896 (423 MB) :unused_phys_alloc:Allocator 0x28063b8 dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01008000) size=14316K avail=14316K max_avail=14316K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [02000000,03000000) size=16M avail=16M max_avail=32M Block: [1c000000,1e000000) size=32M avail=32M max_avail=32M Block: [1ebe0000,1f000000) size=4224K avail=4224K max_avail=32M Block: [fec00000,fec01000) size=4K avail=4K max_avail=4K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74633216 (71 MB) / mem_avail=74633216 (71 MB) :unused_virt_alloc:Allocator 0x2807424 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8a000,04d8a000) size=32M avail=0 max_avail=0 Block: [04d8a000,40000000) size=969176K avail=969176K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938585088 (2802 MB) / mem_avail=2905030656 (2770 MB) :virt_alloc: Allocator 0x2801e64 dump: Block: [0283e000,0283f000) size=4K avail=0 max_avail=0 Block: [0283f000,02840000) size=4K avail=0 max_avail=0 Block: [02840000,02841000) size=4K avail=0 max_avail=32M Block: [02841000,02842000) size=4K avail=0 max_avail=0 Block: [02842000,02d87000) size=5396K avail=5396K max_avail=32M Block: [02d8a000,04d8a000) size=32M avail=32M max_avail=32M => mem_size=39096320 (37 MB) / mem_avail=39079936 (37 MB) :io_mem_alloc: Allocator 0x2802edc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f000000,fec00000) size=3580M avail=3580M max_avail=3580M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3775848448 (3600 MB) / mem_avail=3775848448 (3600 MB) boot module 'acpi_drv' (96740 bytes) boot module 'fb_drv' (305596 bytes) boot module 'status_bar' (114120 bytes) boot module 'init' (254488 bytes) boot module 'platform_drv' (289772 bytes) boot module 'ps2_drv' (110324 bytes) boot module 'testnit' (84060 bytes) boot module 'config' (6549 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702684 bytes) boot module 'rom_filter' (86348 bytes) boot module 'timer' (89704 bytes) boot module 'xray_trigger' (112640 bytes) boot module 'pointer' (71144 bytes) boot module 'report_rom' (101328 bytes) boot module 'nitpicker' (265900 bytes) boot module 'scout' (1703896 bytes) boot module 'liquid_fb' (248988 bytes) boot module 'launchpad' (740624 bytes) boot module 'nitlog' (124736 bytes) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Genode 17.08 423 MiB RAM and 261142 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "nitpicker_config" announces service "ROM" [init] child "acpi_report_rom" announces service "Report" [init] child "report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init] child "report_rom" announces service "ROM" [init] child "timer" announces service "Timer" Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled [init -> acpi_drv] Found MADT [init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0xff Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 Warning: unmapping of managed dataspaces not yet supported Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x80 [init] child "platform_drv" announces service "Platform" [init -> fb_drv] Found PCI VGA at 00:02.0 [init -> fb_drv] fb mapped to 0x2000 [init] child "fb_drv" announces service "Framebuffer" [init -> fb_drv] Warning: VBE Bios not present [init -> fb_drv] Warning: Could not set vesa mode 0x0@16 [init -> ps2_drv] Error: no data available [init -> nitpicker] Error: Framebuffer-session creation failed (ram_quota=8192, cap_quota=3) [init -> nitpicker] Error: __cxa_guard_abort called Kernel: Thread 'ep' died because of an uncaught exception [init -> nitpicker] Error: Uncaught exception of type 'Genode::Service_denied' [init -> nitpicker] Warning: abort called - thread: ep [init] child "nitpicker" exited with exit value 1 [init -> ps2_drv] Error: no data available [init -> ps2_drv] i8042: self test failed (0x23) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: scan code setting not supported [init -> ps2_drv] Using keyboard with scan code set 1 [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (missing ack) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (unexpected response) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not enable stream [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> platform_drv] PS2 uses IRQ, vector 0x1 [init -> platform_drv] PS2 uses IRQ, vector 0xc [init] child "ps2_drv" announces service "Input" On 08/25/2017 08:31 AM, Alexander Boettcher wrote:
Hello,
since last week we successful added UEFI support to Genode/seL4 for x86.
In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu.
Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information.
The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually.
Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc.
I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted.
Cheers,
Alex.
[0] https://github.com/genodelabs/genode/commit/b9aa16eb3e671a7e3c1474b076a244c7... "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/c09783eed9a52ad72e8a1a986b832303... "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/multiboot.texi?h=multiboo...
On 10.08.2017 16:50, Adrian.Danis@data61.csiro.au wrote:
Hi Edward,
In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally.
A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime.
It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done.
As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from.
The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing.
Adrian
On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote:
Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board:
https://up-community.org/wiki/Hardware_Specification
but I am hitting problems which I will detail below.
When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit:
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h
+ #define UPBOARD_RSDP 0x5B161000
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c
- acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP;
* seL4test/kernel/src/plat/pc99/machine/acpi.c
- for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) {
It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post:
https://sel4.systems/pipermail/devel/2017-February/001328.html
and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously.
At this point I noticed that before any tests started to run several ACPI tables are not recognized:
Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT
Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables.
Any suggestions about porting this type of hardware?
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
I think that UEFI would involve the bootloader that the BIOS starts. I don't know if the bootstrap part of UEFI would be handled by seL4 itself or by something like grub/grub2. My wild-ass guess is that anything after seL4 takes over would be handled by a driver process that has the required capabilities to interface with the corresponding hardware. On Fri, Sep 29, 2017 at 9:07 AM, Edward Sandberg < ed.sandberg@adventiumlabs.com> wrote:
Hello,
I built Genode 17.08 with run option "image/uefi" and platform option "sel4_x86_32". I have tried booting the resulting image on a variety of machines but am not getting the behavior I expect. The machines I have tried are:
* Up board (a Windows compatible Atom-based system) * Dell M3800 laptop * Dell Latitude 7280 laptop * HP ProLiant DL380 Gen9 Server * Dell Optoplex 990 * Asus P9X79 WS Motherboard with Intel Core i7-3930K
The furthest I have gotten was on the UP board, which only supports UEFI boot:
https://www.intel.com/content/www/us/en/support/emerging- technologies/intel-realsense-technology/000022699.html
I saw serial output but no graphical output (see below). The other machines I tried to boot on didn't even give me serial output. The serial output seems to indicate that an attempt to create a framebuffer failed.
Is this the correct build procedure? What hardware have you used to test UEFI boot? Does the trace below suggest any experiments to try?
*****************************************************************
WARNING: no console will be available to OS Bender: Hello World.
Boot config: parsing cmdline '' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = false
Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xeaba000 end=0xf0ff968 size=0x645968 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 2000 type 2 Physical Memory Region from 100000 size 1ef00000 type 1 Adding physical memory region 0x100000-0x1f000000 Physical Memory Region from 1f000000 size 1200000 type 2 Physical Memory Region from 20200000 size 3af29000 type 1 Physical Memory Region from 5b129000 size 30000 type 2 Physical Memory Region from 5b159000 size 25000 type 3 Physical Memory Region from 5b17e000 size 5d2000 type 4 Physical Memory Region from 5b750000 size 2b9000 type 2 Physical Memory Region from 5ba09000 size 79000 type 20 Physical Memory Region from 5ba82000 size 57e000 type 1 Physical Memory Region from e0000000 size 4000000 type 2 Physical Memory Region from fea00000 size 100000 type 2 Physical Memory Region from fec00000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Physical Memory Region from fed03000 size 1000 type 2 Physical Memory Region from fed06000 size 1000 type 2 Physical Memory Region from fed08000 size 2000 type 2 Physical Memory Region from fed1c000 size 1000 type 2 Physical Memory Region from fed80000 size 40000 type 2 Physical Memory Region from fee00000 size 1000 type 2 Physical Memory Region from ffc00000 size 400000 type 2 Kernel loaded to: start=0x200000 end=0x281000 size=0x81000 entry=0x20007e ACPI: RSDP paddr=0x3c490 ACPI: RSDP vaddr=0xdfc3c490 ACPI: RSDT paddr=0x5b161028 ACPI: RSDT vaddr=0xdfd61028 ACPI: FADT paddr=0x5b1611a8 ACPI: FADT vaddr=0xdfd611a8 ACPI: FADT flags=0x421 ACPI: MADT paddr=0x5b177380 ACPI: MADT vaddr=0xdfd77380 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x2 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_APIC apic_id=0x6 ACPI: MADT_IOAPIC ioapic_id=1 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 4 CPU(s) detected Detected 1 boot module(s): ELF-loading userland images from boot modules: size=0xd87000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d87000 p_start=0xf100000 p_end=0xfe87000 Moving loaded userland images to final location: from=0xf100000 to=0x281000 size=0xd87000 Starting node #0 with APIC ID 0
Starting node #1 with APIC ID 2 Starting node #2 with APIC ID 4 Starting node #3 with APIC ID 6 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d87000) ipc buffer [02d87000,02d88000) boot_info [02d88000,02d8a000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2800df8 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=0 Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=0 Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=400M Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=0 Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=0 Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=400M Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=0 Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=0 Block: [0104e000,0104f000) size=4K avail=0 max_avail=0 Block: [0104f000,01050000) size=4K avail=0 max_avail=0 Block: [01050000,01051000) size=4K avail=0 max_avail=400M Block: [01051000,01052000) size=4K avail=0 max_avail=0 Block: [01052000,01053000) size=4K avail=0 max_avail=3756K Block: [01053000,01054000) size=4K avail=0 max_avail=0 Block: [01054000,01055000) size=4K avail=0 max_avail=3756K Block: [01055000,01400000) size=3756K avail=3756K max_avail=3756K Block: [01800000,01801000) size=4K avail=0 max_avail=400M Block: [01801000,02000000) size=8188K avail=8188K max_avail=8188K Block: [03000000,1c000000) size=400M avail=400M max_avail=400M Block: [1e000000,1ebe0000) size=12160K avail=12160K max_avail=12160K => mem_size=444485632 (423 MB) / mem_avail=444112896 (423 MB)
:unused_phys_alloc:Allocator 0x28063b8 dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01008000) size=14316K avail=14316K max_avail=14316K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [02000000,03000000) size=16M avail=16M max_avail=32M Block: [1c000000,1e000000) size=32M avail=32M max_avail=32M Block: [1ebe0000,1f000000) size=4224K avail=4224K max_avail=32M Block: [fec00000,fec01000) size=4K avail=4K max_avail=4K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74633216 (71 MB) / mem_avail=74633216 (71 MB)
:unused_virt_alloc:Allocator 0x2807424 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8a000,04d8a000) size=32M avail=0 max_avail=0 Block: [04d8a000,40000000) size=969176K avail=969176K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938585088 (2802 MB) / mem_avail=2905030656 (2770 MB)
:virt_alloc: Allocator 0x2801e64 dump: Block: [0283e000,0283f000) size=4K avail=0 max_avail=0 Block: [0283f000,02840000) size=4K avail=0 max_avail=0 Block: [02840000,02841000) size=4K avail=0 max_avail=32M Block: [02841000,02842000) size=4K avail=0 max_avail=0 Block: [02842000,02d87000) size=5396K avail=5396K max_avail=32M Block: [02d8a000,04d8a000) size=32M avail=32M max_avail=32M => mem_size=39096320 (37 MB) / mem_avail=39079936 (37 MB)
:io_mem_alloc: Allocator 0x2802edc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f000000,fec00000) size=3580M avail=3580M max_avail=3580M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3775848448 (3600 MB) / mem_avail=3775848448 (3600 MB)
boot module 'acpi_drv' (96740 bytes) boot module 'fb_drv' (305596 bytes) boot module 'status_bar' (114120 bytes) boot module 'init' (254488 bytes) boot module 'platform_drv' (289772 bytes) boot module 'ps2_drv' (110324 bytes) boot module 'testnit' (84060 bytes) boot module 'config' (6549 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702684 bytes) boot module 'rom_filter' (86348 bytes) boot module 'timer' (89704 bytes) boot module 'xray_trigger' (112640 bytes) boot module 'pointer' (71144 bytes) boot module 'report_rom' (101328 bytes) boot module 'nitpicker' (265900 bytes) boot module 'scout' (1703896 bytes) boot module 'liquid_fb' (248988 bytes) boot module 'launchpad' (740624 bytes) boot module 'nitlog' (124736 bytes) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Genode 17.08 423 MiB RAM and 261142 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "nitpicker_config" announces service "ROM"
[init] child "acpi_report_rom" announces service "Report" [init] child "report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init] child "report_rom" announces service "ROM" [init] child "timer" announces service "Timer" Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled [init -> acpi_drv] Found MADT
[init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0xff Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 Warning: unmapping of managed dataspaces not yet supported
Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x80 [init] child "platform_drv" announces service "Platform"
[init -> fb_drv] Found PCI VGA at 00:02.0 [init -> fb_drv] fb mapped to 0x2000 [init] child "fb_drv" announces service "Framebuffer" [init -> fb_drv] Warning: VBE Bios not present [init -> fb_drv] Warning: Could not set vesa mode 0x0@16 [init -> ps2_drv] Error: no data available [init -> nitpicker] Error: Framebuffer-session creation failed (ram_quota=8192, cap_quota=3) [init -> nitpicker] Error: __cxa_guard_abort called
Kernel: Thread 'ep' died because of an uncaught exception [init -> nitpicker] Error: Uncaught exception of type 'Genode::Service_denied' [init -> nitpicker] Warning: abort called - thread: ep
[init] child "nitpicker" exited with exit value 1 [init -> ps2_drv] Error: no data available [init -> ps2_drv] i8042: self test failed (0x23) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: scan code setting not supported [init -> ps2_drv] Using keyboard with scan code set 1 [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (missing ack) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (unexpected response) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not enable stream [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> platform_drv] PS2 uses IRQ, vector 0x1 [init -> platform_drv] PS2 uses IRQ, vector 0xc [init] child "ps2_drv" announces service "Input"
Hello,
since last week we successful added UEFI support to Genode/seL4 for x86.
In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu.
Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information.
The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually.
Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc.
I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted.
Cheers,
Alex.
[0] https://github.com/genodelabs/genode/commit/ b9aa16eb3e671a7e3c1474b076a244c7c97e5dea "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/ c09783eed9a52ad72e8a1a986b832303574612ba "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/ multiboot.texi?h=multiboot2
On 10.08.2017 16:50, Adrian.Danis@data61.csiro.au wrote:
Hi Edward,
In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally.
A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime.
It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently
As for the IRQ numbers in seL4 you are seeing the local CPU vector
delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from.
The user code though is first trying to use the HPET and then if it
cannot find that (i.e. it's not in the ACPI tables) then it falls back to
Adrian
On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote:
Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board:
https://up-community.org/wiki/Hardware_Specification
but I am hitting problems which I will detail below.
When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit:
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h
+ #define UPBOARD_RSDP 0x5B161000
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c
- acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP;
* seL4test/kernel/src/plat/pc99/machine/acpi.c
- for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) {
It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post:
https://sel4.systems/pipermail/devel/2017-February/001328.html
and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously.
At this point I noticed that before any tests started to run several ACPI tables are not recognized:
Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT
Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other
On 08/25/2017 08:31 AM, Alexander Boettcher wrote: the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done. the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c5 7b62ac3621/libplatsupport/src/plat/pc99/ltimer.c#L225 and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c5 7b62ac3621/libplatsupport/src/plat/pc99/ltimer.c#L306 to see what exactly it is doing. tables.
Any suggestions about porting this type of hardware?
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
I think that UEFI would involve the bootloader that the BIOS starts. I don't know if the bootstrap part of UEFI would be handled by seL4 itself or by something like grub/grub2. My wild-ass guess is that anything after seL4 takes over would be handled by a driver process that has the required capabilities to interface with the corresponding hardware.
Hello, I answered the question on the Genode mailing list. (https://sourceforge.net/p/genode/mailman/message/36060224) Just in short: On Genode we have 3 framebuffer options: fb_drv - using VESA BIOS to initialize the graphic device fb_boot_drv - reusing a already initialized graphic card (e.g. by UEFI and Grub2) intel_fb_drv - native graphic driver for Intel embedded graphic devices With UEFI boot, only the Intel driver will work for Genode/seL4, if you have the right hardware. The fb_drv is not known to work in UEFI mode (but does in BIOS/legacy mode). The fb_boot_drv component could work with seL4 in UEFI mode (it does with Genode/NOVA), but unfortunately the information about the framebuffer location, size, color depth etc. are not propagated through the seL4 kernel to the roottask (and from there to the fb_boot_drv component). Alex. On 29.09.2017 18:07, Edward Sandberg wrote:
Hello,
I built Genode 17.08 with run option "image/uefi" and platform option "sel4_x86_32". I have tried booting the resulting image on a variety of machines but am not getting the behavior I expect. The machines I have tried are:
* Up board (a Windows compatible Atom-based system) * Dell M3800 laptop * Dell Latitude 7280 laptop * HP ProLiant DL380 Gen9 Server * Dell Optoplex 990 * Asus P9X79 WS Motherboard with Intel Core i7-3930K
The furthest I have gotten was on the UP board, which only supports UEFI boot:
https://www.intel.com/content/www/us/en/support/emerging-technologies/intel-...
I saw serial output but no graphical output (see below). The other machines I tried to boot on didn't even give me serial output. The serial output seems to indicate that an attempt to create a framebuffer failed.
Is this the correct build procedure? What hardware have you used to test UEFI boot? Does the trace below suggest any experiments to try?
*****************************************************************
WARNING: no console will be available to OS Bender: Hello World.
Boot config: parsing cmdline '' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = false
Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xeaba000 end=0xf0ff968 size=0x645968 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 2000 type 2 Physical Memory Region from 100000 size 1ef00000 type 1 Adding physical memory region 0x100000-0x1f000000 Physical Memory Region from 1f000000 size 1200000 type 2 Physical Memory Region from 20200000 size 3af29000 type 1 Physical Memory Region from 5b129000 size 30000 type 2 Physical Memory Region from 5b159000 size 25000 type 3 Physical Memory Region from 5b17e000 size 5d2000 type 4 Physical Memory Region from 5b750000 size 2b9000 type 2 Physical Memory Region from 5ba09000 size 79000 type 20 Physical Memory Region from 5ba82000 size 57e000 type 1 Physical Memory Region from e0000000 size 4000000 type 2 Physical Memory Region from fea00000 size 100000 type 2 Physical Memory Region from fec00000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Physical Memory Region from fed03000 size 1000 type 2 Physical Memory Region from fed06000 size 1000 type 2 Physical Memory Region from fed08000 size 2000 type 2 Physical Memory Region from fed1c000 size 1000 type 2 Physical Memory Region from fed80000 size 40000 type 2 Physical Memory Region from fee00000 size 1000 type 2 Physical Memory Region from ffc00000 size 400000 type 2 Kernel loaded to: start=0x200000 end=0x281000 size=0x81000 entry=0x20007e ACPI: RSDP paddr=0x3c490 ACPI: RSDP vaddr=0xdfc3c490 ACPI: RSDT paddr=0x5b161028 ACPI: RSDT vaddr=0xdfd61028 ACPI: FADT paddr=0x5b1611a8 ACPI: FADT vaddr=0xdfd611a8 ACPI: FADT flags=0x421 ACPI: MADT paddr=0x5b177380 ACPI: MADT vaddr=0xdfd77380 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x2 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_APIC apic_id=0x6 ACPI: MADT_IOAPIC ioapic_id=1 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 4 CPU(s) detected Detected 1 boot module(s): ELF-loading userland images from boot modules: size=0xd87000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d87000 p_start=0xf100000 p_end=0xfe87000 Moving loaded userland images to final location: from=0xf100000 to=0x281000 size=0xd87000 Starting node #0 with APIC ID 0
Starting node #1 with APIC ID 2 Starting node #2 with APIC ID 4 Starting node #3 with APIC ID 6 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d87000) ipc buffer [02d87000,02d88000) boot_info [02d88000,02d8a000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2800df8 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=0 Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=0 Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=400M Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=0 Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=0 Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=400M Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=0 Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=0 Block: [0104e000,0104f000) size=4K avail=0 max_avail=0 Block: [0104f000,01050000) size=4K avail=0 max_avail=0 Block: [01050000,01051000) size=4K avail=0 max_avail=400M Block: [01051000,01052000) size=4K avail=0 max_avail=0 Block: [01052000,01053000) size=4K avail=0 max_avail=3756K Block: [01053000,01054000) size=4K avail=0 max_avail=0 Block: [01054000,01055000) size=4K avail=0 max_avail=3756K Block: [01055000,01400000) size=3756K avail=3756K max_avail=3756K Block: [01800000,01801000) size=4K avail=0 max_avail=400M Block: [01801000,02000000) size=8188K avail=8188K max_avail=8188K Block: [03000000,1c000000) size=400M avail=400M max_avail=400M Block: [1e000000,1ebe0000) size=12160K avail=12160K max_avail=12160K => mem_size=444485632 (423 MB) / mem_avail=444112896 (423 MB)
:unused_phys_alloc:Allocator 0x28063b8 dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01008000) size=14316K avail=14316K max_avail=14316K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [02000000,03000000) size=16M avail=16M max_avail=32M Block: [1c000000,1e000000) size=32M avail=32M max_avail=32M Block: [1ebe0000,1f000000) size=4224K avail=4224K max_avail=32M Block: [fec00000,fec01000) size=4K avail=4K max_avail=4K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74633216 (71 MB) / mem_avail=74633216 (71 MB)
:unused_virt_alloc:Allocator 0x2807424 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8a000,04d8a000) size=32M avail=0 max_avail=0 Block: [04d8a000,40000000) size=969176K avail=969176K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938585088 (2802 MB) / mem_avail=2905030656 (2770 MB)
:virt_alloc: Allocator 0x2801e64 dump: Block: [0283e000,0283f000) size=4K avail=0 max_avail=0 Block: [0283f000,02840000) size=4K avail=0 max_avail=0 Block: [02840000,02841000) size=4K avail=0 max_avail=32M Block: [02841000,02842000) size=4K avail=0 max_avail=0 Block: [02842000,02d87000) size=5396K avail=5396K max_avail=32M Block: [02d8a000,04d8a000) size=32M avail=32M max_avail=32M => mem_size=39096320 (37 MB) / mem_avail=39079936 (37 MB)
:io_mem_alloc: Allocator 0x2802edc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f000000,fec00000) size=3580M avail=3580M max_avail=3580M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3775848448 (3600 MB) / mem_avail=3775848448 (3600 MB)
boot module 'acpi_drv' (96740 bytes) boot module 'fb_drv' (305596 bytes) boot module 'status_bar' (114120 bytes) boot module 'init' (254488 bytes) boot module 'platform_drv' (289772 bytes) boot module 'ps2_drv' (110324 bytes) boot module 'testnit' (84060 bytes) boot module 'config' (6549 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702684 bytes) boot module 'rom_filter' (86348 bytes) boot module 'timer' (89704 bytes) boot module 'xray_trigger' (112640 bytes) boot module 'pointer' (71144 bytes) boot module 'report_rom' (101328 bytes) boot module 'nitpicker' (265900 bytes) boot module 'scout' (1703896 bytes) boot module 'liquid_fb' (248988 bytes) boot module 'launchpad' (740624 bytes) boot module 'nitlog' (124736 bytes) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Genode 17.08 423 MiB RAM and 261142 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "nitpicker_config" announces service "ROM"
[init] child "acpi_report_rom" announces service "Report" [init] child "report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init] child "report_rom" announces service "ROM" [init] child "timer" announces service "Timer" Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled [init -> acpi_drv] Found MADT
[init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0xff Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 Warning: unmapping of managed dataspaces not yet supported
Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x80 [init] child "platform_drv" announces service "Platform"
[init -> fb_drv] Found PCI VGA at 00:02.0 [init -> fb_drv] fb mapped to 0x2000 [init] child "fb_drv" announces service "Framebuffer" [init -> fb_drv] Warning: VBE Bios not present [init -> fb_drv] Warning: Could not set vesa mode 0x0@16 [init -> ps2_drv] Error: no data available [init -> nitpicker] Error: Framebuffer-session creation failed (ram_quota=8192, cap_quota=3) [init -> nitpicker] Error: __cxa_guard_abort called
Kernel: Thread 'ep' died because of an uncaught exception [init -> nitpicker] Error: Uncaught exception of type 'Genode::Service_denied' [init -> nitpicker] Warning: abort called - thread: ep
[init] child "nitpicker" exited with exit value 1 [init -> ps2_drv] Error: no data available [init -> ps2_drv] i8042: self test failed (0x23) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: scan code setting not supported [init -> ps2_drv] Using keyboard with scan code set 1 [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (missing ack) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (unexpected response) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not enable stream [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> platform_drv] PS2 uses IRQ, vector 0x1 [init -> platform_drv] PS2 uses IRQ, vector 0xc [init] child "ps2_drv" announces service "Input"
On 08/25/2017 08:31 AM, Alexander Boettcher wrote:
Hello,
since last week we successful added UEFI support to Genode/seL4 for x86.
In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu.
Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information.
The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually.
Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc.
I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted.
Cheers,
Alex.
[0] https://github.com/genodelabs/genode/commit/b9aa16eb3e671a7e3c1474b076a244c7... "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/c09783eed9a52ad72e8a1a986b832303... "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/multiboot.texi?h=multiboo...
On 10.08.2017 16:50, Adrian.Danis@data61.csiro.au wrote:
Hi Edward,
In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally.
A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime.
It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done.
As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from.
The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing.
Adrian
On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote:
Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board:
https://up-community.org/wiki/Hardware_Specification
but I am hitting problems which I will detail below.
When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit:
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h
+ #define UPBOARD_RSDP 0x5B161000
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c
- acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP;
* seL4test/kernel/src/plat/pc99/machine/acpi.c
- for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) {
It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post:
https://sel4.systems/pipermail/devel/2017-February/001328.html
and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously.
At this point I noticed that before any tests started to run several ACPI tables are not recognized:
Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT
Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables.
Any suggestions about porting this type of hardware?
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
-- Alexander Boettcher Genode Labs http://www.genode-labs.com - http://www.genode.org Genode Labs GmbH - Amtsgericht Dresden - HRB 28424 - Sitz Dresden Geschäftsführer: Dr.-Ing. Norman Feske, Christian Helmuth
Hello, On 02.10.2017 11:05, Alexander Boettcher wrote:
The fb_boot_drv component could work with seL4 in UEFI mode (it does with Genode/NOVA), but unfortunately the information about the framebuffer location, size, color depth etc. are not propagated through the seL4 kernel to the roottask (and from there to the fb_boot_drv component).
we changed the 'could work' to 'supposed to work' (for me personally 'does work') with today's Genode 17.11 release [0]. We extended the seL4 kernel to propagate the framebuffer information provided by GRUB2@UEFI via Multiboot2 to user-land. On Genode now our simple fb_boot_drv framebuffer driver can make use it. The seL4 kernel patch got already pushed for review and inclusion if appropriate [2]. Edward, maybe you can give the new Genode release a spin regarding seL4 & UEFI and graphical output on your available machines using the fb_boot_drv driver. Thanks, Alex. [0] https://genode.org/documentation/release-notes/17.11 [1] https://github.com/seL4/seL4/pull/77
Alex.
On 29.09.2017 18:07, Edward Sandberg wrote:
Hello,
I built Genode 17.08 with run option "image/uefi" and platform option "sel4_x86_32". I have tried booting the resulting image on a variety of machines but am not getting the behavior I expect. The machines I have tried are:
* Up board (a Windows compatible Atom-based system) * Dell M3800 laptop * Dell Latitude 7280 laptop * HP ProLiant DL380 Gen9 Server * Dell Optoplex 990 * Asus P9X79 WS Motherboard with Intel Core i7-3930K
The furthest I have gotten was on the UP board, which only supports UEFI boot:
https://www.intel.com/content/www/us/en/support/emerging-technologies/intel-...
I saw serial output but no graphical output (see below). The other machines I tried to boot on didn't even give me serial output. The serial output seems to indicate that an attempt to create a framebuffer failed.
Is this the correct build procedure? What hardware have you used to test UEFI boot? Does the trace below suggest any experiments to try?
*****************************************************************
WARNING: no console will be available to OS Bender: Hello World.
Boot config: parsing cmdline '' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = false
Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xeaba000 end=0xf0ff968 size=0x645968 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 2000 type 2 Physical Memory Region from 100000 size 1ef00000 type 1 Adding physical memory region 0x100000-0x1f000000 Physical Memory Region from 1f000000 size 1200000 type 2 Physical Memory Region from 20200000 size 3af29000 type 1 Physical Memory Region from 5b129000 size 30000 type 2 Physical Memory Region from 5b159000 size 25000 type 3 Physical Memory Region from 5b17e000 size 5d2000 type 4 Physical Memory Region from 5b750000 size 2b9000 type 2 Physical Memory Region from 5ba09000 size 79000 type 20 Physical Memory Region from 5ba82000 size 57e000 type 1 Physical Memory Region from e0000000 size 4000000 type 2 Physical Memory Region from fea00000 size 100000 type 2 Physical Memory Region from fec00000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Physical Memory Region from fed03000 size 1000 type 2 Physical Memory Region from fed06000 size 1000 type 2 Physical Memory Region from fed08000 size 2000 type 2 Physical Memory Region from fed1c000 size 1000 type 2 Physical Memory Region from fed80000 size 40000 type 2 Physical Memory Region from fee00000 size 1000 type 2 Physical Memory Region from ffc00000 size 400000 type 2 Kernel loaded to: start=0x200000 end=0x281000 size=0x81000 entry=0x20007e ACPI: RSDP paddr=0x3c490 ACPI: RSDP vaddr=0xdfc3c490 ACPI: RSDT paddr=0x5b161028 ACPI: RSDT vaddr=0xdfd61028 ACPI: FADT paddr=0x5b1611a8 ACPI: FADT vaddr=0xdfd611a8 ACPI: FADT flags=0x421 ACPI: MADT paddr=0x5b177380 ACPI: MADT vaddr=0xdfd77380 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x2 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_APIC apic_id=0x6 ACPI: MADT_IOAPIC ioapic_id=1 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 4 CPU(s) detected Detected 1 boot module(s): ELF-loading userland images from boot modules: size=0xd87000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d87000 p_start=0xf100000 p_end=0xfe87000 Moving loaded userland images to final location: from=0xf100000 to=0x281000 size=0xd87000 Starting node #0 with APIC ID 0
Starting node #1 with APIC ID 2 Starting node #2 with APIC ID 4 Starting node #3 with APIC ID 6 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d87000) ipc buffer [02d87000,02d88000) boot_info [02d88000,02d8a000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2800df8 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=0 Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=0 Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=400M Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=0 Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=0 Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=400M Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=0 Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=0 Block: [0104e000,0104f000) size=4K avail=0 max_avail=0 Block: [0104f000,01050000) size=4K avail=0 max_avail=0 Block: [01050000,01051000) size=4K avail=0 max_avail=400M Block: [01051000,01052000) size=4K avail=0 max_avail=0 Block: [01052000,01053000) size=4K avail=0 max_avail=3756K Block: [01053000,01054000) size=4K avail=0 max_avail=0 Block: [01054000,01055000) size=4K avail=0 max_avail=3756K Block: [01055000,01400000) size=3756K avail=3756K max_avail=3756K Block: [01800000,01801000) size=4K avail=0 max_avail=400M Block: [01801000,02000000) size=8188K avail=8188K max_avail=8188K Block: [03000000,1c000000) size=400M avail=400M max_avail=400M Block: [1e000000,1ebe0000) size=12160K avail=12160K max_avail=12160K => mem_size=444485632 (423 MB) / mem_avail=444112896 (423 MB)
:unused_phys_alloc:Allocator 0x28063b8 dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01008000) size=14316K avail=14316K max_avail=14316K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [02000000,03000000) size=16M avail=16M max_avail=32M Block: [1c000000,1e000000) size=32M avail=32M max_avail=32M Block: [1ebe0000,1f000000) size=4224K avail=4224K max_avail=32M Block: [fec00000,fec01000) size=4K avail=4K max_avail=4K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74633216 (71 MB) / mem_avail=74633216 (71 MB)
:unused_virt_alloc:Allocator 0x2807424 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8a000,04d8a000) size=32M avail=0 max_avail=0 Block: [04d8a000,40000000) size=969176K avail=969176K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938585088 (2802 MB) / mem_avail=2905030656 (2770 MB)
:virt_alloc: Allocator 0x2801e64 dump: Block: [0283e000,0283f000) size=4K avail=0 max_avail=0 Block: [0283f000,02840000) size=4K avail=0 max_avail=0 Block: [02840000,02841000) size=4K avail=0 max_avail=32M Block: [02841000,02842000) size=4K avail=0 max_avail=0 Block: [02842000,02d87000) size=5396K avail=5396K max_avail=32M Block: [02d8a000,04d8a000) size=32M avail=32M max_avail=32M => mem_size=39096320 (37 MB) / mem_avail=39079936 (37 MB)
:io_mem_alloc: Allocator 0x2802edc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f000000,fec00000) size=3580M avail=3580M max_avail=3580M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3775848448 (3600 MB) / mem_avail=3775848448 (3600 MB)
boot module 'acpi_drv' (96740 bytes) boot module 'fb_drv' (305596 bytes) boot module 'status_bar' (114120 bytes) boot module 'init' (254488 bytes) boot module 'platform_drv' (289772 bytes) boot module 'ps2_drv' (110324 bytes) boot module 'testnit' (84060 bytes) boot module 'config' (6549 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702684 bytes) boot module 'rom_filter' (86348 bytes) boot module 'timer' (89704 bytes) boot module 'xray_trigger' (112640 bytes) boot module 'pointer' (71144 bytes) boot module 'report_rom' (101328 bytes) boot module 'nitpicker' (265900 bytes) boot module 'scout' (1703896 bytes) boot module 'liquid_fb' (248988 bytes) boot module 'launchpad' (740624 bytes) boot module 'nitlog' (124736 bytes) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Genode 17.08 423 MiB RAM and 261142 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "nitpicker_config" announces service "ROM"
[init] child "acpi_report_rom" announces service "Report" [init] child "report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init] child "report_rom" announces service "ROM" [init] child "timer" announces service "Timer" Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled [init -> acpi_drv] Found MADT
[init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0xff Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 Warning: unmapping of managed dataspaces not yet supported
Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x80 [init] child "platform_drv" announces service "Platform"
[init -> fb_drv] Found PCI VGA at 00:02.0 [init -> fb_drv] fb mapped to 0x2000 [init] child "fb_drv" announces service "Framebuffer" [init -> fb_drv] Warning: VBE Bios not present [init -> fb_drv] Warning: Could not set vesa mode 0x0@16 [init -> ps2_drv] Error: no data available [init -> nitpicker] Error: Framebuffer-session creation failed (ram_quota=8192, cap_quota=3) [init -> nitpicker] Error: __cxa_guard_abort called
Kernel: Thread 'ep' died because of an uncaught exception [init -> nitpicker] Error: Uncaught exception of type 'Genode::Service_denied' [init -> nitpicker] Warning: abort called - thread: ep
[init] child "nitpicker" exited with exit value 1 [init -> ps2_drv] Error: no data available [init -> ps2_drv] i8042: self test failed (0x23) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: scan code setting not supported [init -> ps2_drv] Using keyboard with scan code set 1 [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (missing ack) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (unexpected response) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not enable stream [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> platform_drv] PS2 uses IRQ, vector 0x1 [init -> platform_drv] PS2 uses IRQ, vector 0xc [init] child "ps2_drv" announces service "Input"
On 08/25/2017 08:31 AM, Alexander Boettcher wrote:
Hello,
since last week we successful added UEFI support to Genode/seL4 for x86.
In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu.
Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information.
The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually.
Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc.
I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted.
Cheers,
Alex.
[0] https://github.com/genodelabs/genode/commit/b9aa16eb3e671a7e3c1474b076a244c7... "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/c09783eed9a52ad72e8a1a986b832303... "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/multiboot.texi?h=multiboo...
On 10.08.2017 16:50, Adrian.Danis@data61.csiro.au wrote:
Hi Edward,
In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally.
A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime.
It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done.
As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from.
The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing.
Adrian
On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote:
Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board:
https://up-community.org/wiki/Hardware_Specification
but I am hitting problems which I will detail below.
When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit:
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h
+ #define UPBOARD_RSDP 0x5B161000
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c
- acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP;
* seL4test/kernel/src/plat/pc99/machine/acpi.c
- for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) {
It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post:
https://sel4.systems/pipermail/devel/2017-February/001328.html
and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously.
At this point I noticed that before any tests started to run several ACPI tables are not recognized:
Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT
Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables.
Any suggestions about porting this type of hardware?
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
-- Alexander Boettcher Genode Labs http://www.genode-labs.com - http://www.genode.org Genode Labs GmbH - Amtsgericht Dresden - HRB 28424 - Sitz Dresden Geschäftsführer: Dr.-Ing. Norman Feske, Christian Helmuth
I modified the demo.run file to use fb_boot_drv and built the uefi image. I tested it on an UP board, a Minnowboard Turbot, a Dell M3800 laptop, and a Dell Precision 5810 desktop. I was unable to get graphical output on any of them. I have pasted the logs for all (except the laptop which has no serial port) below. Perhaps I need to make more modifications to the run file than I did. Here is the diff of demo.run: 69c69 < <start name="fb_drv"> ---
<start name="fb_boot_drv"> 286c286 < lappend_if [have_spec framebuffer] boot_modules fb_drv
lappend_if [have_spec framebuffer] boot_modules fb_boot_drv
Do you have recommendations for building that might yield better results? What systems have you tested the new changes on? Thanks! Edward * UP BOARD ******************************** WARNING: no console will be available to OS Bender: Hello World. framebuffer at [80000000+808ca000) 1920x1200@32 framebuffer at [80000000+808ca000) 1920x1200@32 Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xf9b8000 end=0xffff228 size=0x647228 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 2000 type 2 Physical Memory Region from 100000 size 1ef00000 type 1 Adding physical memory region 0x100000-0x1f000000 Physical Memory Region from 1f000000 size 1200000 type 2 Physical Memory Region from 20200000 size 3af29000 type 1 Physical Memory Region from 5b129000 size 30000 type 2 Physical Memory Region from 5b159000 size 25000 type 3 Physical Memory Region from 5b17e000 size 5d2000 type 4 Physical Memory Region from 5b750000 size 2b9000 type 2 Physical Memory Region from 5ba09000 size 79000 type 20 Physical Memory Region from 5ba82000 size 57e000 type 1 Physical Memory Region from e0000000 size 4000000 type 2 Physical Memory Region from fea00000 size 100000 type 2 Physical Memory Region from fec00000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Physical Memory Region from fed03000 size 1000 type 2 Physical Memory Region from fed06000 size 1000 type 2 Physical Memory Region from fed08000 size 2000 type 2 Physical Memory Region from fed1c000 size 1000 type 2 Physical Memory Region from fed80000 size 40000 type 2 Physical Memory Region from fee00000 size 1000 type 2 Physical Memory Region from ffc00000 size 400000 type 2 Got framebuffer info in multiboot2. Current video mode is at physical address=80000000 pitch=7680 resolution=1920x1200@32 type=1 Detected 1 boot module(s): Kernel loaded to: start=0x200000 end=0x27e000 size=0x7e000 entry=0x20007e ACPI: RSDT paddr=0x5b161028 ACPI: RSDT vaddr=0xdfd61028 ACPI: FADT paddr=0x5b1611a8 ACPI: FADT vaddr=0xdfd611a8 ACPI: FADT flags=0x421 ACPI: MADT paddr=0x5b177380 ACPI: MADT vaddr=0xdfd77380 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x2 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_APIC apic_id=0x6 ACPI: MADT_IOAPIC ioapic_id=1 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 4 CPU(s) detected ELF-loading userland images from boot modules: size=0xd88000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d88000 p_start=0x10000000 p_end=0x10d88000 Moving loaded userland images to final location: from=0x10000000 to=0x27e000 size=0xd88000 Starting node #0 with APIC ID 0 Starting node #1 with APIC ID 2 Starting node #2 with APIC ID 4 Starting node #3 with APIC ID 6 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d88000) ipc buffer [02d88000,02d89000) boot_info [02d89000,02d8b000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2804018 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01006000,01007000) size=4K avail=0 max_avail=0 Block: [01007000,01008000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=0 Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=400M Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=0 Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=0 Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=400M Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=0 Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=0 Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=0 Block: [0104e000,0104f000) size=4K avail=0 max_avail=400M Block: [0104f000,01050000) size=4K avail=0 max_avail=0 Block: [01050000,01051000) size=4K avail=0 max_avail=3764K Block: [01051000,01052000) size=4K avail=0 max_avail=0 Block: [01052000,01053000) size=4K avail=0 max_avail=3764K Block: [01053000,01400000) size=3764K avail=3764K max_avail=3764K Block: [01800000,01801000) size=4K avail=0 max_avail=400M Block: [01801000,02000000) size=8188K avail=8188K max_avail=8188K Block: [03000000,1c000000) size=400M avail=400M max_avail=400M Block: [1e000000,1ebe0000) size=12160K avail=12160K max_avail=12160K => mem_size=444493824 (423 MB) / mem_avail=444121088 (423 MB) :unused_phys_alloc:Allocator 0x28094dc dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01006000) size=14308K avail=14308K max_avail=14308K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [02000000,03000000) size=16M avail=16M max_avail=32M Block: [1c000000,1e000000) size=32M avail=32M max_avail=32M Block: [1ebe0000,1f000000) size=4224K avail=4224K max_avail=32M Block: [fec00000,fec01000) size=4K avail=4K max_avail=4K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74625024 (71 MB) / mem_avail=74625024 (71 MB) :unused_virt_alloc:Allocator 0x280a548 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8b000,04d8b000) size=32M avail=0 max_avail=0 Block: [04d8b000,40000000) size=969172K avail=969172K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938580992 (2802 MB) / mem_avail=2905026560 (2770 MB) :virt_alloc: Allocator 0x2805084 dump: Block: [02842000,02843000) size=4K avail=0 max_avail=0 Block: [02843000,02844000) size=4K avail=0 max_avail=0 Block: [02844000,02845000) size=4K avail=0 max_avail=32M Block: [02845000,02846000) size=4K avail=0 max_avail=0 Block: [02846000,02d88000) size=5384K avail=5384K max_avail=32M Block: [02d8b000,04d8b000) size=32M avail=32M max_avail=32M => mem_size=39084032 (37 MB) / mem_avail=39067648 (37 MB) :io_mem_alloc: Allocator 0x28060fc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f000000,fec00000) size=3580M avail=3580M max_avail=3580M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3775848448 (3600 MB) / mem_avail=3775848448 (3600 MB) boot module 'acpi_drv' (96740 bytes) boot module 'nit_focus' (73404 bytes) boot module 'status_bar' (114128 bytes) boot module 'init' (254840 bytes) boot module 'platform_drv' (285668 bytes) boot module 'ps2_drv' (119592 bytes) boot module 'testnit' (84060 bytes) boot module 'global_keys_handler' (127104 bytes) boot module 'config' (7526 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702836 bytes) boot module 'rom_filter' (91040 bytes) boot module 'timer' (89820 bytes) boot module 'pointer' (129336 bytes) boot module 'report_rom' (101204 bytes) boot module 'nitpicker' (296548 bytes) boot module 'scout' (1703900 bytes) boot module 'fb_boot_drv' (100756 bytes) boot module 'liquid_fb' (249004 bytes) boot module 'launchpad' (740628 bytes) boot module 'nitlog' (124752 bytes) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Genode 17.11 423 MiB RAM and 261141 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "timer" announces service "Timer" Warning: mapping failed 0x21aa000 -> 0xb8000 Warning: mapping failed 0x21b7000 -> 0xc5000 Warning: mapping failed 0x2154000 -> 0x62000 [init] child "nitpicker_config" announces service "ROM" [init] child "acpi_report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init -> fb_boot_drv] Framebuffer with 1920x1200x32 @ 0x80000000 type=1 pitch=7680 [init] child "report_rom" announces service "Report" [init -> fb_boot_drv] resource_request: ram_quota=4612096 [init] child "report_rom" announces service "ROM" [init] child "fb_boot_drv" requests resources: ram_quota=4612096 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 [init -> acpi_drv] Found MADT [init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0xff Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x80 [init] child "platform_drv" announces service "Platform" [init -> ps2_drv] Error: no data available [init -> ps2_drv] Error: no data available [init -> ps2_drv] i8042: self test failed (0x23) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: scan code setting not supported [init -> ps2_drv] Using keyboard with scan code set 1 [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (missing ack) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (unexpected response) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not enable stream [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> platform_drv] PS2 uses IRQ, vector 0x1 [init -> platform_drv] PS2 uses IRQ, vector 0xc [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: setting of mode indicators failed (0xed) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: setting of mode indicators failed (0xed) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: setting of mode indicators failed (0xed) [init] child "ps2_drv" announces service "Input" * MinnowBoard *********************************** WARNING: no console will be available to OS Bender: Hello World. Boot config: parsing cmdline '' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = false Boot config: parsing cmdline 'sel4 disable_iommu' Booting `Genode on seL4' WARNING: no console will be available to OS Bender: Hello World. framebuffer at [80000000+808ca000) 1920x1200@32 framebuffer at [80000000+808ca000) 1920x1200@32 Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xf9b8000 end=0xffff228 size=0x647228 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 62000 type 2 Physical Memory Region from 100000 size 1ff00000 type 1 Adding physical memory region 0x100000-0x1f800000 Physical Memory Region from 20000000 size 100000 type 2 Physical Memory Region from 20100000 size 587d1000 type 1 Physical Memory Region from 788d1000 size 100000 type 2 Physical Memory Region from 789d1000 size 200000 type 20 Physical Memory Region from 78bd1000 size 600000 type 2 Physical Memory Region from 791d1000 size 100000 type 4 Physical Memory Region from 792d1000 size 40000 type 3 Physical Memory Region from 79311000 size cef000 type 1 Physical Memory Region from 7a000000 size 800000 type 2 Physical Memory Region from 7ae00000 size 5200000 type 2 Physical Memory Region from e00f8000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Got framebuffer info in multiboot2. Current video mode is at physical address=80000000 pitch=7680 resolution=1920x1200@32 type=1 Detected 1 boot module(s): Kernel loaded to: start=0x200000 end=0x27e000 size=0x7e000 entry=0x20007e ACPI: RSDT paddr=0x7930f074 ACPI: RSDT vaddr=0xdff0f074 ACPI: FADT paddr=0x7930e000 ACPI: FADT vaddr=0xdff0e000 ACPI: FADT flags=0x4a1 ACPI: MADT paddr=0x7930b000 ACPI: MADT vaddr=0xdff0b000 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_IOAPIC ioapic_id=2 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 2 CPU(s) detected ELF-loading userland images from boot modules: size=0xd88000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d88000 p_start=0x10000000 p_end=0x10d88000 Moving loaded userland images to final location: from=0x10000000 to=0x27e000 size=0xd88000 Starting node #0 with APIC ID 0 Starting node #1 with APIC ID 4 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d88000) ipc buffer [02d88000,02d89000) boot_info [02d89000,02d8b000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2804018 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01006000,01007000) size=4K avail=0 max_avail=0 Block: [01007000,01008000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=434172K Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=0 Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=0 Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=434172K Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=0 Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=0 Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=434172K Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=3780K Block: [0104e000,0104f000) size=4K avail=0 max_avail=0 Block: [0104f000,01400000) size=3780K avail=3780K max_avail=3780K Block: [01800000,01801000) size=4K avail=0 max_avail=434172K Block: [01801000,1c000000) size=434172K avail=434172K max_avail=434172K Block: [1f000000,1f3e0000) size=3968K avail=3968K max_avail=3968K => mem_size=452882432 (431 MB) / mem_avail=452526080 (431 MB) :unused_phys_alloc:Allocator 0x28094dc dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01006000) size=14308K avail=14308K max_avail=14308K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [1c000000,1f000000) size=48M avail=48M max_avail=48M Block: [1f3e0000,1f800000) size=4224K avail=4224K max_avail=4224K Block: [fec00000,fec01000) size=4K avail=4K max_avail=4224K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74625024 (71 MB) / mem_avail=74625024 (71 MB) :unused_virt_alloc:Allocator 0x280a548 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8b000,04d8b000) size=32M avail=0 max_avail=0 Block: [04d8b000,40000000) size=969172K avail=969172K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938580992 (2802 MB) / mem_avail=2905026560 (2770 MB) :virt_alloc: Allocator 0x2805084 dump: Block: [02842000,02843000) size=4K avail=0 max_avail=0 Block: [02843000,02844000) size=4K avail=0 max_avail=0 Block: [02844000,02d88000) size=5392K avail=5392K max_avail=32M Block: [02d8b000,04d8b000) size=32M avail=32M max_avail=32M => mem_size=39084032 (37 MB) / mem_avail=39075840 (37 MB) :io_mem_alloc: Allocator 0x28060fc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f800000,fec00000) size=3572M avail=3572M max_avail=3572M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3767459840 (3592 MB) / mem_avail=3767459840 (3592 MB) boot module 'acpi_drv' (96740 bytes) boot module 'nit_focus' (73404 bytes) boot module 'status_bar' (114128 bytes) boot module 'init' (254840 bytes) boot module 'platform_drv' (285668 bytes) boot module 'ps2_drv' (119592 bytes) boot module 'testnit' (84060 bytes) boot module 'global_keys_handler' (127104 bytes) boot module 'config' (7526 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702836 bytes) boot module 'rom_filter' (91040 bytes) boot module 'timer' (89820 bytes) boot module 'pointer' (129336 bytes) boot module 'report_rom' (101204 bytes) boot module 'nitpicker' (296548 bytes) boot module 'scout' (1703900 bytes) boot module 'fb_boot_drv' (100756 bytes) boot module 'liquid_fb' (249004 bytes) boot module 'launchpad' (740628 bytes) boot module 'nitlog' (124752 bytes) Warning: need physical memory, but Platform object not constructed yet Genode 17.11 431 MiB RAM and 261141 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "acpi_report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init] child "timer" announces service "Timer" Warning: mapping failed 0x1c1aa000 -> 0xb8000 Warning: mapping failed 0x1c1b7000 -> 0xc5000 [init] child "report_rom" announces service "Report" Warning: mapping failed 0x1c154000 -> 0x62000 [init] child "nitpicker_config" announces service "ROM" Warning: mapping failed 0x1c172000 -> 0x80000 [init] child "report_rom" announces service "ROM" [init -> fb_boot_drv] Framebuffer with 1920x1200x32 @ 0x80000000 type=1 pitch=7680 [init -> fb_boot_drv] resource_request: ram_quota=4612096 [init] child "fb_boot_drv" requests resources: ram_quota=4612096 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled [init -> acpi_drv] Found MADT [init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0x3f Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 [init] child "platform_drv" announces service "Platform" * Dell Precision 5810 ************************************** Bender: Hello World. framebuffer at [f1000000+f1300000) 1024x768@32 framebuffer at [f1000000+f1300000) 1024x768@32 Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xf9b8000 end=0xffff228 size=0x647228 name='image.elf' Physical Memory Region from 0 size a0000 type 1 Physical Memory Region from 100000 size 997ae000 type 1 Adding physical memory region 0x100000-0x1f800000 Physical Memory Region from 998ae000 size 9ac000 type 2 Physical Memory Region from 9a25a000 size 49000 type 3 Physical Memory Region from 9a2a3000 size c71000 type 4 Physical Memory Region from 9af14000 size 492000 type 2 Physical Memory Region from 9b3a6000 size 65000 type 20 Physical Memory Region from 9b40b000 size 1000 type 1 Physical Memory Region from 9b40c000 size e000 type 2 Physical Memory Region from 9b41a000 size 1be6000 type 1 Physical Memory Region from a0000000 size 10000000 type 2 Physical Memory Region from fed1c000 size 4000 type 2 Physical Memory Region from ff000000 size 1000000 type 2 Physical Memory Region from 1000000000 size 1760000000 type 1 Physical memory region not addressable Adding physical memory region 0x0-0x1f800000 seL4 failed assertion '!p_region_overlaps(reg)' at /home/esandberg/projects/embedded/genode-17.11/genode-17.11/contrib/sel4-097171f475bff21223783e130445b9be6b3d1bb4/src/kernel/sel4/src/arn halting... Kernel entry via Interrupt, irq 0 -- On Thu, Nov 30, 2017 at 10:40:21PM +0100, Alexander Boettcher wrote:
Hello,
On 02.10.2017 11:05, Alexander Boettcher wrote:
The fb_boot_drv component could work with seL4 in UEFI mode (it does with Genode/NOVA), but unfortunately the information about the framebuffer location, size, color depth etc. are not propagated through the seL4 kernel to the roottask (and from there to the fb_boot_drv component).
we changed the 'could work' to 'supposed to work' (for me personally 'does work') with today's Genode 17.11 release [0]. We extended the seL4 kernel to propagate the framebuffer information provided by GRUB2@UEFI via Multiboot2 to user-land. On Genode now our simple fb_boot_drv framebuffer driver can make use it. The seL4 kernel patch got already pushed for review and inclusion if appropriate [2].
Edward, maybe you can give the new Genode release a spin regarding seL4 & UEFI and graphical output on your available machines using the fb_boot_drv driver.
Thanks,
Alex.
[0] https://genode.org/documentation/release-notes/17.11 [1] https://github.com/seL4/seL4/pull/77
Alex.
On 29.09.2017 18:07, Edward Sandberg wrote:
Hello,
I built Genode 17.08 with run option "image/uefi" and platform option "sel4_x86_32". I have tried booting the resulting image on a variety of machines but am not getting the behavior I expect. The machines I have tried are:
* Up board (a Windows compatible Atom-based system) * Dell M3800 laptop * Dell Latitude 7280 laptop * HP ProLiant DL380 Gen9 Server * Dell Optoplex 990 * Asus P9X79 WS Motherboard with Intel Core i7-3930K
The furthest I have gotten was on the UP board, which only supports UEFI boot:
https://www.intel.com/content/www/us/en/support/emerging-technologies/intel-...
I saw serial output but no graphical output (see below). The other machines I tried to boot on didn't even give me serial output. The serial output seems to indicate that an attempt to create a framebuffer failed.
Is this the correct build procedure? What hardware have you used to test UEFI boot? Does the trace below suggest any experiments to try?
*****************************************************************
WARNING: no console will be available to OS Bender: Hello World.
Boot config: parsing cmdline '' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = false
Boot config: parsing cmdline 'sel4 disable_iommu' Boot config: console_port = 0x3f8 Boot config: debug_port = 0x3f8 Boot config: disable_iommu = true module #0: start=0xeaba000 end=0xf0ff968 size=0x645968 name='image.elf' Physical Memory Region from 0 size 8f000 type 1 Physical Memory Region from 8f000 size 1000 type 4 Physical Memory Region from 90000 size e000 type 1 Physical Memory Region from 9e000 size 2000 type 2 Physical Memory Region from 100000 size 1ef00000 type 1 Adding physical memory region 0x100000-0x1f000000 Physical Memory Region from 1f000000 size 1200000 type 2 Physical Memory Region from 20200000 size 3af29000 type 1 Physical Memory Region from 5b129000 size 30000 type 2 Physical Memory Region from 5b159000 size 25000 type 3 Physical Memory Region from 5b17e000 size 5d2000 type 4 Physical Memory Region from 5b750000 size 2b9000 type 2 Physical Memory Region from 5ba09000 size 79000 type 20 Physical Memory Region from 5ba82000 size 57e000 type 1 Physical Memory Region from e0000000 size 4000000 type 2 Physical Memory Region from fea00000 size 100000 type 2 Physical Memory Region from fec00000 size 1000 type 2 Physical Memory Region from fed01000 size 1000 type 2 Physical Memory Region from fed03000 size 1000 type 2 Physical Memory Region from fed06000 size 1000 type 2 Physical Memory Region from fed08000 size 2000 type 2 Physical Memory Region from fed1c000 size 1000 type 2 Physical Memory Region from fed80000 size 40000 type 2 Physical Memory Region from fee00000 size 1000 type 2 Physical Memory Region from ffc00000 size 400000 type 2 Kernel loaded to: start=0x200000 end=0x281000 size=0x81000 entry=0x20007e ACPI: RSDP paddr=0x3c490 ACPI: RSDP vaddr=0xdfc3c490 ACPI: RSDT paddr=0x5b161028 ACPI: RSDT vaddr=0xdfd61028 ACPI: FADT paddr=0x5b1611a8 ACPI: FADT vaddr=0xdfd611a8 ACPI: FADT flags=0x421 ACPI: MADT paddr=0x5b177380 ACPI: MADT vaddr=0xdfd77380 ACPI: MADT apic_addr=0xfee00000 ACPI: MADT flags=0x1 ACPI: MADT_APIC apic_id=0x0 ACPI: MADT_APIC apic_id=0x2 ACPI: MADT_APIC apic_id=0x4 ACPI: MADT_APIC apic_id=0x6 ACPI: MADT_IOAPIC ioapic_id=1 ioapic_addr=0xfec00000 gsib=0 ACPI: MADT_ISO bus=0 source=0 gsi=2 flags=0x0 ACPI: MADT_ISO bus=0 source=9 gsi=9 flags=0xd ACPI: 4 CPU(s) detected Detected 1 boot module(s): ELF-loading userland images from boot modules: size=0xd87000 v_entry=0x2000000 v_start=0x2000000 v_end=0x2d87000 p_start=0xf100000 p_end=0xfe87000 Moving loaded userland images to final location: from=0xf100000 to=0x281000 size=0xd87000 Starting node #0 with APIC ID 0
Starting node #1 with APIC ID 2 Starting node #2 with APIC ID 4 Starting node #3 with APIC ID 6 Booting all finished, dropped to user space virtual address layout of core: overall [00002000,c0000000) core image [02000000,02d87000) ipc buffer [02d87000,02d88000) boot_info [02d88000,02d8a000) stack area [40000000,50000000) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet :phys_alloc: Allocator 0x2800df8 dump: Block: [00200000,00201000) size=4K avail=0 max_avail=0 Block: [00201000,00202000) size=4K avail=0 max_avail=0 Block: [00202000,00203000) size=4K avail=0 max_avail=0 Block: [00203000,00204000) size=4K avail=0 max_avail=0 Block: [00204000,00205000) size=4K avail=0 max_avail=0 Block: [00205000,00206000) size=4K avail=0 max_avail=0 Block: [00206000,00207000) size=4K avail=0 max_avail=0 Block: [00207000,00208000) size=4K avail=0 max_avail=0 Block: [00208000,00209000) size=4K avail=0 max_avail=0 Block: [00209000,0020a000) size=4K avail=0 max_avail=0 Block: [0020a000,0020b000) size=4K avail=0 max_avail=0 Block: [0020b000,0020c000) size=4K avail=0 max_avail=0 Block: [0020c000,0020d000) size=4K avail=0 max_avail=0 Block: [01008000,01009000) size=4K avail=0 max_avail=0 Block: [01009000,0100a000) size=4K avail=0 max_avail=0 Block: [0100a000,0100b000) size=4K avail=0 max_avail=0 Block: [0100b000,0100c000) size=4K avail=0 max_avail=0 Block: [0100c000,0100d000) size=4K avail=0 max_avail=0 Block: [0100d000,0100e000) size=4K avail=0 max_avail=0 Block: [0100e000,0100f000) size=4K avail=0 max_avail=0 Block: [0100f000,01010000) size=4K avail=0 max_avail=0 Block: [01010000,01011000) size=4K avail=0 max_avail=0 Block: [01011000,01012000) size=4K avail=0 max_avail=0 Block: [01012000,01013000) size=4K avail=0 max_avail=0 Block: [01013000,01014000) size=4K avail=0 max_avail=0 Block: [01014000,01015000) size=4K avail=0 max_avail=0 Block: [01015000,01016000) size=4K avail=0 max_avail=0 Block: [01016000,01017000) size=4K avail=0 max_avail=0 Block: [01017000,01018000) size=4K avail=0 max_avail=0 Block: [01018000,01019000) size=4K avail=0 max_avail=0 Block: [01019000,0101a000) size=4K avail=0 max_avail=0 Block: [0101a000,0101b000) size=4K avail=0 max_avail=0 Block: [0101b000,0101c000) size=4K avail=0 max_avail=0 Block: [0101c000,0101d000) size=4K avail=0 max_avail=0 Block: [0101d000,0101e000) size=4K avail=0 max_avail=0 Block: [0101e000,0101f000) size=4K avail=0 max_avail=0 Block: [0101f000,01020000) size=4K avail=0 max_avail=0 Block: [01020000,01021000) size=4K avail=0 max_avail=0 Block: [01021000,01022000) size=4K avail=0 max_avail=0 Block: [01022000,01023000) size=4K avail=0 max_avail=0 Block: [01023000,01024000) size=4K avail=0 max_avail=0 Block: [01024000,01025000) size=4K avail=0 max_avail=0 Block: [01025000,01026000) size=4K avail=0 max_avail=0 Block: [01026000,01027000) size=4K avail=0 max_avail=0 Block: [01027000,01028000) size=4K avail=0 max_avail=0 Block: [01028000,01029000) size=4K avail=0 max_avail=0 Block: [01029000,0102a000) size=4K avail=0 max_avail=0 Block: [0102a000,0102b000) size=4K avail=0 max_avail=0 Block: [0102b000,0102c000) size=4K avail=0 max_avail=0 Block: [0102c000,0102d000) size=4K avail=0 max_avail=400M Block: [0102d000,0102e000) size=4K avail=0 max_avail=0 Block: [0102e000,0102f000) size=4K avail=0 max_avail=0 Block: [0102f000,01030000) size=4K avail=0 max_avail=0 Block: [01030000,01031000) size=4K avail=0 max_avail=0 Block: [01031000,01032000) size=4K avail=0 max_avail=0 Block: [01032000,01033000) size=4K avail=0 max_avail=0 Block: [01033000,01034000) size=4K avail=0 max_avail=0 Block: [01034000,01035000) size=4K avail=0 max_avail=0 Block: [01035000,01036000) size=4K avail=0 max_avail=0 Block: [01036000,01037000) size=4K avail=0 max_avail=0 Block: [01037000,01038000) size=4K avail=0 max_avail=0 Block: [01038000,01039000) size=4K avail=0 max_avail=0 Block: [01039000,0103a000) size=4K avail=0 max_avail=0 Block: [0103a000,0103b000) size=4K avail=0 max_avail=0 Block: [0103b000,0103c000) size=4K avail=0 max_avail=0 Block: [0103c000,0103d000) size=4K avail=0 max_avail=0 Block: [0103d000,0103e000) size=4K avail=0 max_avail=0 Block: [0103e000,0103f000) size=4K avail=0 max_avail=0 Block: [0103f000,01040000) size=4K avail=0 max_avail=0 Block: [01040000,01041000) size=4K avail=0 max_avail=0 Block: [01041000,01042000) size=4K avail=0 max_avail=0 Block: [01042000,01043000) size=4K avail=0 max_avail=0 Block: [01043000,01044000) size=4K avail=0 max_avail=0 Block: [01044000,01045000) size=4K avail=0 max_avail=400M Block: [01045000,01046000) size=4K avail=0 max_avail=0 Block: [01046000,01047000) size=4K avail=0 max_avail=0 Block: [01047000,01048000) size=4K avail=0 max_avail=0 Block: [01048000,01049000) size=4K avail=0 max_avail=0 Block: [01049000,0104a000) size=4K avail=0 max_avail=0 Block: [0104a000,0104b000) size=4K avail=0 max_avail=0 Block: [0104b000,0104c000) size=4K avail=0 max_avail=0 Block: [0104c000,0104d000) size=4K avail=0 max_avail=0 Block: [0104d000,0104e000) size=4K avail=0 max_avail=0 Block: [0104e000,0104f000) size=4K avail=0 max_avail=0 Block: [0104f000,01050000) size=4K avail=0 max_avail=0 Block: [01050000,01051000) size=4K avail=0 max_avail=400M Block: [01051000,01052000) size=4K avail=0 max_avail=0 Block: [01052000,01053000) size=4K avail=0 max_avail=3756K Block: [01053000,01054000) size=4K avail=0 max_avail=0 Block: [01054000,01055000) size=4K avail=0 max_avail=3756K Block: [01055000,01400000) size=3756K avail=3756K max_avail=3756K Block: [01800000,01801000) size=4K avail=0 max_avail=400M Block: [01801000,02000000) size=8188K avail=8188K max_avail=8188K Block: [03000000,1c000000) size=400M avail=400M max_avail=400M Block: [1e000000,1ebe0000) size=12160K avail=12160K max_avail=12160K => mem_size=444485632 (423 MB) / mem_avail=444112896 (423 MB)
:unused_phys_alloc:Allocator 0x28063b8 dump: Block: [00100000,00200000) size=1M avail=1M max_avail=1M Block: [0020d000,01008000) size=14316K avail=14316K max_avail=14316K Block: [01400000,01800000) size=4M avail=4M max_avail=4M Block: [02000000,03000000) size=16M avail=16M max_avail=32M Block: [1c000000,1e000000) size=32M avail=32M max_avail=32M Block: [1ebe0000,1f000000) size=4224K avail=4224K max_avail=32M Block: [fec00000,fec01000) size=4K avail=4K max_avail=4K Block: [fee00000,fee01000) size=4K avail=4K max_avail=64K Block: [ffff0000,ffffffff] size=64K avail=64K max_avail=64K => mem_size=74633216 (71 MB) / mem_avail=74633216 (71 MB)
:unused_virt_alloc:Allocator 0x2807424 dump: Block: [00002000,02000000) size=32760K avail=32760K max_avail=32760K Block: [02d8a000,04d8a000) size=32M avail=0 max_avail=0 Block: [04d8a000,40000000) size=969176K avail=969176K max_avail=1792M Block: [50000000,c0000000) size=1792M avail=1792M max_avail=1792M => mem_size=2938585088 (2802 MB) / mem_avail=2905030656 (2770 MB)
:virt_alloc: Allocator 0x2801e64 dump: Block: [0283e000,0283f000) size=4K avail=0 max_avail=0 Block: [0283f000,02840000) size=4K avail=0 max_avail=0 Block: [02840000,02841000) size=4K avail=0 max_avail=32M Block: [02841000,02842000) size=4K avail=0 max_avail=0 Block: [02842000,02d87000) size=5396K avail=5396K max_avail=32M Block: [02d8a000,04d8a000) size=32M avail=32M max_avail=32M => mem_size=39096320 (37 MB) / mem_avail=39079936 (37 MB)
:io_mem_alloc: Allocator 0x2802edc dump: Block: [00000000,00100000) size=1M avail=1M max_avail=1M Block: [1f000000,fec00000) size=3580M avail=3580M max_avail=3580M Block: [fec01000,fee00000) size=2044K avail=2044K max_avail=18364K Block: [fee01000,ffff0000) size=18364K avail=18364K max_avail=18364K => mem_size=3775848448 (3600 MB) / mem_avail=3775848448 (3600 MB)
boot module 'acpi_drv' (96740 bytes) boot module 'fb_drv' (305596 bytes) boot module 'status_bar' (114120 bytes) boot module 'init' (254488 bytes) boot module 'platform_drv' (289772 bytes) boot module 'ps2_drv' (110324 bytes) boot module 'testnit' (84060 bytes) boot module 'config' (6549 bytes) boot module 'launchpad.config' (594 bytes) boot module 'ld.lib.so' (702684 bytes) boot module 'rom_filter' (86348 bytes) boot module 'timer' (89704 bytes) boot module 'xray_trigger' (112640 bytes) boot module 'pointer' (71144 bytes) boot module 'report_rom' (101328 bytes) boot module 'nitpicker' (265900 bytes) boot module 'scout' (1703896 bytes) boot module 'liquid_fb' (248988 bytes) boot module 'launchpad' (740624 bytes) boot module 'nitlog' (124736 bytes) Warning: need physical memory, but Platform object not constructed yet Warning: need physical memory, but Platform object not constructed yet Genode 17.08 423 MiB RAM and 261142 caps assigned to init Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x1 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x2 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x4 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x8 Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x10 [init] child "nitpicker_config" announces service "ROM"
[init] child "acpi_report_rom" announces service "Report" [init] child "report_rom" announces service "Report" [init] child "acpi_report_rom" announces service "ROM" [init] child "report_rom" announces service "ROM" [init] child "timer" announces service "Timer" Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x20 [init -> nitpicker_config] Warning: top-level node <xray> missing in input ROM xray [init -> nitpicker_config] Warning: could not obtain input value for input xray_enabled [init -> acpi_drv] Found MADT
[init -> acpi_drv] MADT IRQ 0 -> GSI 2 flags: 0 [init -> acpi_drv] MADT IRQ 9 -> GSI 9 flags: 13 [init -> acpi_drv] Found MCFG [init -> acpi_drv] MCFG BASE 0xe0000000 seg 0x0 bus 0x0-0xff Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x40 Warning: unmapping of managed dataspaces not yet supported
Warning: void Genode::Rpc_cap_factory::free(Genode::Native_capability) not implemented - resources leaked: 0x80 [init] child "platform_drv" announces service "Platform"
[init -> fb_drv] Found PCI VGA at 00:02.0 [init -> fb_drv] fb mapped to 0x2000 [init] child "fb_drv" announces service "Framebuffer" [init -> fb_drv] Warning: VBE Bios not present [init -> fb_drv] Warning: Could not set vesa mode 0x0@16 [init -> ps2_drv] Error: no data available [init -> nitpicker] Error: Framebuffer-session creation failed (ram_quota=8192, cap_quota=3) [init -> nitpicker] Error: __cxa_guard_abort called
Kernel: Thread 'ep' died because of an uncaught exception [init -> nitpicker] Error: Uncaught exception of type 'Genode::Service_denied' [init -> nitpicker] Warning: abort called - thread: ep
[init] child "nitpicker" exited with exit value 1 [init -> ps2_drv] Error: no data available [init -> ps2_drv] i8042: self test failed (0x23) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: scan code setting not supported [init -> ps2_drv] Using keyboard with scan code set 1 [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (missing ack) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not reset mouse (unexpected response) [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Warning: could not enable stream [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> ps2_drv] Error: failed to read from port [init -> platform_drv] PS2 uses IRQ, vector 0x1 [init -> platform_drv] PS2 uses IRQ, vector 0xc [init] child "ps2_drv" announces service "Input"
On 08/25/2017 08:31 AM, Alexander Boettcher wrote:
Hello,
since last week we successful added UEFI support to Genode/seL4 for x86.
In this course we extended the seL4 6.0 kernel (beside the NOVA kernel and our own kernel - Genode/hw) to be also a Multiboot2 (MBI2) kernel. The MBI2 specification [3] provides to the kernel the ACPI RSDP information, which was the main reason to add MBI2 support. Together with GRUB2 (as UEFI capable bootloader) we were able to get our setups running on various native x86 machines and on Qemu.
Additionally we extended the 3 kernels to propagate the ACPI RSDP information further to the user-land, since there the ACPI driver also failed to lookup the ACPI RSDP information.
The patch for the seL4 kernel are currently on our staging branch (our automatically tested branch) and will show up in the upcoming release next week eventually.
Currently, the patches are tight to Genode, but I can open up a feature issue on seL4 github if you are fine with the general direction - so adding MBI2 support in general. Or you would rather go in another direction like writing an own UEFI boot loader, which maybe is more minimal compared to GRUB2 etc etc.
I have to admit, that the code addition to the seL4 kernel is far from being optimal - amount of code because of redundant MBI 1 vs 2 code, correctness of code (I'm not super familiar with the internals of the seL4 kernel), missing framebuffer information etc - but this we may discuss in more detail on github, if wanted.
Cheers,
Alex.
[0] https://github.com/genodelabs/genode/commit/b9aa16eb3e671a7e3c1474b076a244c7... "sel4: kernel patch to get ACPI information" [1] https://github.com/genodelabs/genode/commit/c09783eed9a52ad72e8a1a986b832303... "sel4: add uefi boot support via mbi2" [3] http://git.savannah.gnu.org/cgit/grub.git/tree/doc/multiboot.texi?h=multiboo...
On 10.08.2017 16:50, Adrian.Danis@data61.csiro.au wrote:
Hi Edward,
In the near future? Unfortunately not. UEFI support is definitely something that we talk about every so often, but just never makes it high enough up the priority list for us internally.
A configuration option for overriding the RSDP search doesn't so too unreasonable in cases where there isn't a BIOS region to search. At least until we can retrieve the address from the UEFI runtime.
It is entirely possible that any number of tables and initialization needs to happen before the timer, or other hardware, will work. Currently the ACPI tables here are just being used to find the base address of the HPET, and it is assumed that it is in a working state and no further setup needs to be done.
As for the IRQ numbers in seL4 you are seeing the local CPU vector delivery number, not the source I/O APIC interrupt number or GSI. To determine the IRQ source you could check the x86KSIRQState for the local CPU vector (in this case 125), unpack the x86_irq_state_t type, and see where it came from.
The user code though is first trying to use the HPET and then if it cannot find that (i.e. it's not in the ACPI tables) then it falls back to the PIT. If it finds a HPET then it will try and use FSB (i.e. MSI) delivery, and failing that fall back to I/O APIC delivery. If you want to work out which of these its using you could either infer from the x86KSIRQState as mentioned above or instrument https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... and https://github.com/seL4/util_libs/blob/fff76a36a02b8ccef3aa0b201751c57b62ac3... to see what exactly it is doing.
Adrian
On Thu 10-Aug-2017 4:56 AM, Edward Sandberg wrote:
Is there a plan to add UEFI support in seL4 for x86 hardware in the near future? Newer x86 boards are frequently UEFI only. It is possible to get around the lack of UEFI support, as I have done with the UP board:
https://up-community.org/wiki/Hardware_Specification
but I am hitting problems which I will detail below.
When I compile using ia32_debug_xml_defconfig and boot using the resulting images the board fails to find the RSDP location. To fix this I had to modify the source code a bit:
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.h
+ #define UPBOARD_RSDP 0x5B161000
* seL4test/projects/util_libs/libplatsupport/src/plat/pc99/acpi/acpi.c
- acpi->rsdp = acpi_sig_search(acpi, ACPI_SIG_RSDP, strlen(ACPI_SIG_RSDP), - (void *) BIOS_PADDR_START, (void *) BIOS_PADDR_END); + acpi->rsdp = (void *)UPBOARD_RSDP;
* seL4test/kernel/src/plat/pc99/machine/acpi.c
- for (addr = (char*)BIOS_PADDR_START; addr < (char*)BIOS_PADDR_END; addr += 16) { + for (addr = (char*)0; addr < (char*)PPTR_BASE; addr += 16) {
It would be handy to have this as a kernel parameter to cover cases where it is not successfully discovered automatically. With these changes I can boot the board and several tests pass but then I get stuck on INTERRUPT0001 (Test interrupts with timer). I don't get a test failure or an error the board just sits and makes no more progress. Someone had that test fail in this post:
https://sel4.systems/pipermail/devel/2017-February/001328.html
and the first recommendation was to check if the irq of the timer was correctly found. I booted the board into linux to find the correct irq which was listed as 0 in /proc/interupts. I added a printf to handleInterrupt in the kernel source, recompiled and when I booted seL4 I found that the irq reported to handleInterrupt is 125 (which sel4 reports as the max interrupt value) every time that function is called. Adding this printf also showed me that when the test hangs the board hasn't crashed or locked up as calls to handleInterrupt are made continuously.
At this point I noticed that before any tests started to run several ACPI tables are not recognized:
Parsing ACPI tables Skipping table FPDTD, unknown Skipping table FIDT<9c>, unknown Skipping table UEFIB, unknown Skipping table TPM24, unknown Skipping table LPIT^D^A, unknown Skipping table BCFG9^A, unknown Skipping table PRAM0, unknown Skipping table CSRTL^A, unknown Skipping table BCFG9^A, unknown Skipping table OEM0<84>, unknown Skipping table OEM1@, unknown Skipping table PIDVÜ, unknown Skipping table RSCI,, unknown Skipping table WDAT^D^A, unknown Warning: skipping table ACPI XSDT
Maybe one or more of those tables needs to be loaded to handle interrupts properly. The LPIT table is conspicuous in the case of the timer test but I think other tests are likely to depend on the other tables.
Any suggestions about porting this type of hardware?
_______________________________________________ Devel mailing list Devel@sel4.systems https://sel4.systems/lists/listinfo/devel
-- Alexander Boettcher Genode Labs
http://www.genode-labs.com - http://www.genode.org
Genode Labs GmbH - Amtsgericht Dresden - HRB 28424 - Sitz Dresden Geschäftsführer: Dr.-Ing. Norman Feske, Christian Helmuth
-- Edward Sandberg Adventium Labs 111 3rd Avenue S. Suite #100 Minneapolis, MN 55401 ed.sandberg@adventiumlabs.com
participants (4)
-
Adrian.Danis＠data61.csiro.au -
Alexander Boettcher -
Edward Sandberg -
Raymond Jennings