License cleanup: add SPDX GPL-2.0 license identifier to files with no license
Many source files in the tree are missing licensing information, which
makes it harder for compliance tools to determine the correct license.
By default all files without license information are under the default
license of the kernel, which is GPL version 2.
Update the files which contain no license information with the 'GPL-2.0'
SPDX license identifier. The SPDX identifier is a legally binding
shorthand, which can be used instead of the full boiler plate text.
This patch is based on work done by Thomas Gleixner and Kate Stewart and
Philippe Ombredanne.
How this work was done:
Patches were generated and checked against linux-4.14-rc6 for a subset of
the use cases:
- file had no licensing information it it.
- file was a */uapi/* one with no licensing information in it,
- file was a */uapi/* one with existing licensing information,
Further patches will be generated in subsequent months to fix up cases
where non-standard license headers were used, and references to license
had to be inferred by heuristics based on keywords.
The analysis to determine which SPDX License Identifier to be applied to
a file was done in a spreadsheet of side by side results from of the
output of two independent scanners (ScanCode & Windriver) producing SPDX
tag:value files created by Philippe Ombredanne. Philippe prepared the
base worksheet, and did an initial spot review of a few 1000 files.
The 4.13 kernel was the starting point of the analysis with 60,537 files
assessed. Kate Stewart did a file by file comparison of the scanner
results in the spreadsheet to determine which SPDX license identifier(s)
to be applied to the file. She confirmed any determination that was not
immediately clear with lawyers working with the Linux Foundation.
Criteria used to select files for SPDX license identifier tagging was:
- Files considered eligible had to be source code files.
- Make and config files were included as candidates if they contained >5
lines of source
- File already had some variant of a license header in it (even if <5
lines).
All documentation files were explicitly excluded.
The following heuristics were used to determine which SPDX license
identifiers to apply.
- when both scanners couldn't find any license traces, file was
considered to have no license information in it, and the top level
COPYING file license applied.
For non */uapi/* files that summary was:
SPDX license identifier # files
---------------------------------------------------|-------
GPL-2.0 11139
and resulted in the first patch in this series.
If that file was a */uapi/* path one, it was "GPL-2.0 WITH
Linux-syscall-note" otherwise it was "GPL-2.0". Results of that was:
SPDX license identifier # files
---------------------------------------------------|-------
GPL-2.0 WITH Linux-syscall-note 930
and resulted in the second patch in this series.
- if a file had some form of licensing information in it, and was one
of the */uapi/* ones, it was denoted with the Linux-syscall-note if
any GPL family license was found in the file or had no licensing in
it (per prior point). Results summary:
SPDX license identifier # files
---------------------------------------------------|------
GPL-2.0 WITH Linux-syscall-note 270
GPL-2.0+ WITH Linux-syscall-note 169
((GPL-2.0 WITH Linux-syscall-note) OR BSD-2-Clause) 21
((GPL-2.0 WITH Linux-syscall-note) OR BSD-3-Clause) 17
LGPL-2.1+ WITH Linux-syscall-note 15
GPL-1.0+ WITH Linux-syscall-note 14
((GPL-2.0+ WITH Linux-syscall-note) OR BSD-3-Clause) 5
LGPL-2.0+ WITH Linux-syscall-note 4
LGPL-2.1 WITH Linux-syscall-note 3
((GPL-2.0 WITH Linux-syscall-note) OR MIT) 3
((GPL-2.0 WITH Linux-syscall-note) AND MIT) 1
and that resulted in the third patch in this series.
- when the two scanners agreed on the detected license(s), that became
the concluded license(s).
- when there was disagreement between the two scanners (one detected a
license but the other didn't, or they both detected different
licenses) a manual inspection of the file occurred.
- In most cases a manual inspection of the information in the file
resulted in a clear resolution of the license that should apply (and
which scanner probably needed to revisit its heuristics).
- When it was not immediately clear, the license identifier was
confirmed with lawyers working with the Linux Foundation.
- If there was any question as to the appropriate license identifier,
the file was flagged for further research and to be revisited later
in time.
In total, over 70 hours of logged manual review was done on the
spreadsheet to determine the SPDX license identifiers to apply to the
source files by Kate, Philippe, Thomas and, in some cases, confirmation
by lawyers working with the Linux Foundation.
Kate also obtained a third independent scan of the 4.13 code base from
FOSSology, and compared selected files where the other two scanners
disagreed against that SPDX file, to see if there was new insights. The
Windriver scanner is based on an older version of FOSSology in part, so
they are related.
Thomas did random spot checks in about 500 files from the spreadsheets
for the uapi headers and agreed with SPDX license identifier in the
files he inspected. For the non-uapi files Thomas did random spot checks
in about 15000 files.
In initial set of patches against 4.14-rc6, 3 files were found to have
copy/paste license identifier errors, and have been fixed to reflect the
correct identifier.
Additionally Philippe spent 10 hours this week doing a detailed manual
inspection and review of the 12,461 patched files from the initial patch
version early this week with:
- a full scancode scan run, collecting the matched texts, detected
license ids and scores
- reviewing anything where there was a license detected (about 500+
files) to ensure that the applied SPDX license was correct
- reviewing anything where there was no detection but the patch license
was not GPL-2.0 WITH Linux-syscall-note to ensure that the applied
SPDX license was correct
This produced a worksheet with 20 files needing minor correction. This
worksheet was then exported into 3 different .csv files for the
different types of files to be modified.
These .csv files were then reviewed by Greg. Thomas wrote a script to
parse the csv files and add the proper SPDX tag to the file, in the
format that the file expected. This script was further refined by Greg
based on the output to detect more types of files automatically and to
distinguish between header and source .c files (which need different
comment types.) Finally Greg ran the script using the .csv files to
generate the patches.
Reviewed-by: Kate Stewart <kstewart@linuxfoundation.org>
Reviewed-by: Philippe Ombredanne <pombredanne@nexb.com>
Reviewed-by: Thomas Gleixner <tglx@linutronix.de>
Signed-off-by: Greg Kroah-Hartman <gregkh@linuxfoundation.org>
2017-11-01 22:07:57 +08:00
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/* SPDX-License-Identifier: GPL-2.0 */
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2008-10-23 13:26:29 +08:00
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#ifndef _ASM_X86_EFI_H
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#define _ASM_X86_EFI_H
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2008-01-30 20:31:19 +08:00
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2015-04-24 08:46:00 +08:00
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#include <asm/fpu/api.h>
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2015-03-03 14:48:50 +08:00
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#include <asm/pgtable.h>
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2016-04-26 04:07:11 +08:00
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#include <asm/processor-flags.h>
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2015-11-28 05:09:33 +08:00
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#include <asm/tlb.h>
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2015-03-03 14:48:50 +08:00
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2013-11-01 00:25:08 +08:00
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/*
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* We map the EFI regions needed for runtime services non-contiguously,
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* with preserved alignment on virtual addresses starting from -4G down
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* for a total max space of 64G. This way, we provide for stable runtime
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* services addresses across kernels so that a kexec'd kernel can still
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* use them.
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*
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* This is the main reason why we're doing stable VA mappings for RT
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* services.
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*
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* This flag is used in conjuction with a chicken bit called
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* "efi=old_map" which can be used as a fallback to the old runtime
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* services mapping method in case there's some b0rkage with a
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* particular EFI implementation (haha, it is hard to hold up the
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* sarcasm here...).
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*/
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#define EFI_OLD_MEMMAP EFI_ARCH_1
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x86/efi: Firmware agnostic handover entry points
The EFI handover code only works if the "bitness" of the firmware and
the kernel match, i.e. 64-bit firmware and 64-bit kernel - it is not
possible to mix the two. This goes against the tradition that a 32-bit
kernel can be loaded on a 64-bit BIOS platform without having to do
anything special in the boot loader. Linux distributions, for one thing,
regularly run only 32-bit kernels on their live media.
Despite having only one 'handover_offset' field in the kernel header,
EFI boot loaders use two separate entry points to enter the kernel based
on the architecture the boot loader was compiled for,
(1) 32-bit loader: handover_offset
(2) 64-bit loader: handover_offset + 512
Since we already have two entry points, we can leverage them to infer
the bitness of the firmware we're running on, without requiring any boot
loader modifications, by making (1) and (2) valid entry points for both
CONFIG_X86_32 and CONFIG_X86_64 kernels.
To be clear, a 32-bit boot loader will always use (1) and a 64-bit boot
loader will always use (2). It's just that, if a single kernel image
supports (1) and (2) that image can be used with both 32-bit and 64-bit
boot loaders, and hence both 32-bit and 64-bit EFI.
(1) and (2) must be 512 bytes apart at all times, but that is already
part of the boot ABI and we could never change that delta without
breaking existing boot loaders anyhow.
Signed-off-by: Matt Fleming <matt.fleming@intel.com>
2014-01-10 23:54:31 +08:00
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#define EFI32_LOADER_SIGNATURE "EL32"
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#define EFI64_LOADER_SIGNATURE "EL64"
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2016-01-11 18:47:49 +08:00
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#define MAX_CMDLINE_ADDRESS UINT_MAX
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2016-04-26 04:07:11 +08:00
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#define ARCH_EFI_IRQ_FLAGS_MASK X86_EFLAGS_IF
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2008-01-30 20:31:19 +08:00
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2016-04-26 04:07:11 +08:00
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#ifdef CONFIG_X86_32
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2011-11-15 20:56:14 +08:00
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2017-07-13 05:37:31 +08:00
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extern asmlinkage unsigned long efi_call_phys(void *, ...);
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2008-01-30 20:31:19 +08:00
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2016-04-26 04:07:06 +08:00
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#define arch_efi_call_virt_setup() kernel_fpu_begin()
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#define arch_efi_call_virt_teardown() kernel_fpu_end()
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2008-01-30 20:31:19 +08:00
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/*
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* Wrap all the virtual calls in a way that forces the parameters on the stack.
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*/
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2016-06-25 15:20:27 +08:00
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#define arch_efi_call_virt(p, f, args...) \
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2014-03-28 06:10:43 +08:00
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({ \
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2016-06-25 15:20:27 +08:00
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((efi_##f##_t __attribute__((regparm(0)))*) p->f)(args); \
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2014-03-28 06:10:43 +08:00
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})
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2014-03-28 06:10:41 +08:00
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2012-10-19 20:25:46 +08:00
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#define efi_ioremap(addr, size, type, attr) ioremap_cache(addr, size)
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2011-12-12 08:12:42 +08:00
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2008-01-30 20:31:19 +08:00
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#else /* !CONFIG_X86_32 */
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2014-03-28 06:10:39 +08:00
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#define EFI_LOADER_SIGNATURE "EL64"
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2017-07-13 05:37:31 +08:00
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extern asmlinkage u64 efi_call(void *fp, ...);
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2014-03-28 06:10:39 +08:00
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#define efi_call_phys(f, args...) efi_call((f), args)
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2015-11-28 05:09:33 +08:00
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/*
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* Scratch space used for switching the pagetable in the EFI stub
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*/
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struct efi_scratch {
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u64 r15;
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u64 prev_cr3;
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pgd_t *efi_pgt;
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bool use_pgd;
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u64 phys_stack;
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} __packed;
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2016-04-26 04:07:06 +08:00
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#define arch_efi_call_virt_setup() \
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2013-11-01 00:25:08 +08:00
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({ \
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efi_sync_low_kernel_mappings(); \
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preempt_disable(); \
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2014-03-28 06:10:42 +08:00
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__kernel_fpu_begin(); \
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2015-11-28 05:09:33 +08:00
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\
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if (efi_scratch.use_pgd) { \
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2017-06-13 01:26:14 +08:00
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efi_scratch.prev_cr3 = __read_cr3(); \
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2015-11-28 05:09:33 +08:00
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write_cr3((unsigned long)efi_scratch.efi_pgt); \
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__flush_tlb_all(); \
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} \
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2016-04-26 04:07:06 +08:00
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})
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2016-06-25 15:20:27 +08:00
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#define arch_efi_call_virt(p, f, args...) \
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efi_call((void *)p->f, args) \
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2016-04-26 04:07:06 +08:00
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#define arch_efi_call_virt_teardown() \
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({ \
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2015-11-28 05:09:33 +08:00
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if (efi_scratch.use_pgd) { \
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write_cr3(efi_scratch.prev_cr3); \
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__flush_tlb_all(); \
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} \
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\
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2014-03-28 06:10:42 +08:00
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__kernel_fpu_end(); \
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2013-11-01 00:25:08 +08:00
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preempt_enable(); \
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})
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2014-09-08 01:42:17 +08:00
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extern void __iomem *__init efi_ioremap(unsigned long addr, unsigned long size,
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u32 type, u64 attribute);
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2011-12-12 08:12:42 +08:00
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2015-10-02 06:36:48 +08:00
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#ifdef CONFIG_KASAN
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2015-09-23 05:59:17 +08:00
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/*
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* CONFIG_KASAN may redefine memset to __memset. __memset function is present
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* only in kernel binary. Since the EFI stub linked into a separate binary it
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* doesn't have __memset(). So we should use standard memset from
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* arch/x86/boot/compressed/string.c. The same applies to memcpy and memmove.
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*/
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#undef memcpy
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#undef memset
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#undef memmove
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2015-10-02 06:36:48 +08:00
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#endif
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2015-09-23 05:59:17 +08:00
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2008-01-30 20:31:19 +08:00
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#endif /* CONFIG_X86_32 */
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2013-11-01 00:25:08 +08:00
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extern struct efi_scratch efi_scratch;
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2014-09-08 01:42:17 +08:00
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extern void __init efi_set_executable(efi_memory_desc_t *md, bool executable);
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extern int __init efi_memblock_x86_reserve_range(void);
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2015-03-03 14:48:50 +08:00
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extern pgd_t * __init efi_call_phys_prolog(void);
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extern void __init efi_call_phys_epilog(pgd_t *save_pgd);
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2015-09-30 18:20:00 +08:00
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extern void __init efi_print_memmap(void);
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2014-09-08 01:42:17 +08:00
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extern void __init efi_memory_uc(u64 addr, unsigned long size);
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2013-11-01 00:25:08 +08:00
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extern void __init efi_map_region(efi_memory_desc_t *md);
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2013-12-20 18:02:14 +08:00
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extern void __init efi_map_region_fixed(efi_memory_desc_t *md);
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2013-11-01 00:25:08 +08:00
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extern void efi_sync_low_kernel_mappings(void);
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2015-11-28 05:09:34 +08:00
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extern int __init efi_alloc_page_tables(void);
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2014-09-08 01:42:17 +08:00
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extern int __init efi_setup_page_tables(unsigned long pa_memmap, unsigned num_pages);
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2013-11-01 00:25:08 +08:00
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extern void __init old_map_region(efi_memory_desc_t *md);
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2014-02-14 15:24:24 +08:00
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extern void __init runtime_code_page_mkexec(void);
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2016-02-17 20:36:05 +08:00
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extern void __init efi_runtime_update_mappings(void);
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2014-01-18 19:48:15 +08:00
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extern void __init efi_dump_pagetable(void);
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2014-03-05 00:02:17 +08:00
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extern void __init efi_apply_memmap_quirks(void);
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2014-06-02 20:18:35 +08:00
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extern int __init efi_reuse_config(u64 tables, int nr_tables);
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extern void efi_delete_dummy_variable(void);
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2008-01-30 20:31:19 +08:00
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2013-12-20 18:02:19 +08:00
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struct efi_setup_data {
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u64 fw_vendor;
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u64 runtime;
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u64 tables;
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u64 smbios;
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u64 reserved[8];
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};
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extern u64 efi_setup;
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2013-02-14 08:07:35 +08:00
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#ifdef CONFIG_EFI
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static inline bool efi_is_native(void)
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{
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return IS_ENABLED(CONFIG_X86_64) == efi_enabled(EFI_64BIT);
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}
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2014-01-11 02:52:06 +08:00
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static inline bool efi_runtime_supported(void)
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{
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if (efi_is_native())
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return true;
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if (IS_ENABLED(CONFIG_EFI_MIXED) && !efi_enabled(EFI_OLD_MEMMAP))
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return true;
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return false;
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}
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2013-10-04 16:36:56 +08:00
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extern struct console early_efi_console;
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2014-01-03 11:56:49 +08:00
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extern void parse_efi_setup(u64 phys_addr, u32 data_len);
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2014-01-11 02:48:30 +08:00
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2016-04-26 04:06:50 +08:00
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extern void efifb_setup_from_dmi(struct screen_info *si, const char *opt);
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2014-01-11 02:48:30 +08:00
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#ifdef CONFIG_EFI_MIXED
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extern void efi_thunk_runtime_setup(void);
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extern efi_status_t efi_thunk_set_virtual_address_map(
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void *phys_set_virtual_address_map,
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unsigned long memory_map_size,
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unsigned long descriptor_size,
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u32 descriptor_version,
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efi_memory_desc_t *virtual_map);
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#else
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static inline void efi_thunk_runtime_setup(void) {}
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static inline efi_status_t efi_thunk_set_virtual_address_map(
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void *phys_set_virtual_address_map,
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unsigned long memory_map_size,
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unsigned long descriptor_size,
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u32 descriptor_version,
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efi_memory_desc_t *virtual_map)
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{
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return EFI_SUCCESS;
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}
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#endif /* CONFIG_EFI_MIXED */
|
2014-07-02 20:54:40 +08:00
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2014-11-06 00:00:56 +08:00
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/* arch specific definitions used by the stub code */
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struct efi_config {
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u64 image_handle;
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u64 table;
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2017-02-06 19:22:40 +08:00
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u64 runtime_services;
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x86/efi: Allow invocation of arbitrary boot services
We currently allow invocation of 8 boot services with efi_call_early().
Not included are LocateHandleBuffer and LocateProtocol in particular.
For graphics output or to retrieve PCI ROMs and Apple device properties,
we're thus forced to use the LocateHandle + AllocatePool + LocateHandle
combo, which is cumbersome and needs more code.
The ARM folks allow invocation of the full set of boot services but are
restricted to our 8 boot services in functions shared across arches.
Thus, rather than adding just LocateHandleBuffer and LocateProtocol to
struct efi_config, let's rework efi_call_early() to allow invocation of
arbitrary boot services by selecting the 64 bit vs 32 bit code path in
the macro itself.
When compiling for 32 bit or for 64 bit without mixed mode, the unused
code path is optimized away and the binary code is the same as before.
But on 64 bit with mixed mode enabled, this commit adds one compare
instruction to each invocation of a boot service and, depending on the
code path selected, two jump instructions. (Most of the time gcc
arranges the jumps in the 32 bit code path.) The result is a minuscule
performance penalty and the binary code becomes slightly larger and more
difficult to read when disassembled. This isn't a hot path, so these
drawbacks are arguably outweighed by the attainable simplification of
the C code. We have some overhead anyway for thunking or conversion
between calling conventions.
The 8 boot services can consequently be removed from struct efi_config.
No functional change intended (for now).
Example -- invocation of free_pool before (64 bit code path):
0x2d4 movq %ds:efi_early, %rdx ; efi_early
0x2db movq %ss:arg_0-0x20(%rsp), %rsi
0x2e0 xorl %eax, %eax
0x2e2 movq %ds:0x28(%rdx), %rdi ; efi_early->free_pool
0x2e6 callq *%ds:0x58(%rdx) ; efi_early->call()
Example -- invocation of free_pool after (64 / 32 bit mixed code path):
0x0dc movq %ds:efi_early, %rax ; efi_early
0x0e3 cmpb $0, %ds:0x28(%rax) ; !efi_early->is64 ?
0x0e7 movq %ds:0x20(%rax), %rdx ; efi_early->call()
0x0eb movq %ds:0x10(%rax), %rax ; efi_early->boot_services
0x0ef je $0x150
0x0f1 movq %ds:0x48(%rax), %rdi ; free_pool (64 bit)
0x0f5 xorl %eax, %eax
0x0f7 callq *%rdx
...
0x150 movl %ds:0x30(%rax), %edi ; free_pool (32 bit)
0x153 jmp $0x0f5
Size of eboot.o text section:
CONFIG_X86_32: 6464 before, 6318 after
CONFIG_X86_64 && !CONFIG_EFI_MIXED: 7670 before, 7573 after
CONFIG_X86_64 && CONFIG_EFI_MIXED: 7670 before, 8319 after
Signed-off-by: Lukas Wunner <lukas@wunner.de>
Signed-off-by: Matt Fleming <matt@codeblueprint.co.uk>
2016-08-22 18:01:21 +08:00
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u64 boot_services;
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2014-11-06 00:00:56 +08:00
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u64 text_output;
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efi_status_t (*call)(unsigned long, ...);
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bool is64;
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} __packed;
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__pure const struct efi_config *__efi_early(void);
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2016-09-06 14:05:32 +08:00
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static inline bool efi_is_64bit(void)
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{
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if (!IS_ENABLED(CONFIG_X86_64))
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return false;
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if (!IS_ENABLED(CONFIG_EFI_MIXED))
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return true;
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return __efi_early()->is64;
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}
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2016-11-13 05:32:35 +08:00
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#define efi_table_attr(table, attr, instance) \
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(efi_is_64bit() ? \
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((table##_64_t *)(unsigned long)instance)->attr : \
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((table##_32_t *)(unsigned long)instance)->attr)
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#define efi_call_proto(protocol, f, instance, ...) \
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__efi_early()->call(efi_table_attr(protocol, f, instance), \
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instance, ##__VA_ARGS__)
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2014-11-06 00:00:56 +08:00
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#define efi_call_early(f, ...) \
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2016-11-13 05:32:35 +08:00
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__efi_early()->call(efi_table_attr(efi_boot_services, f, \
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__efi_early()->boot_services), __VA_ARGS__)
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2014-11-06 00:00:56 +08:00
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2016-04-26 04:06:48 +08:00
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#define __efi_call_early(f, ...) \
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__efi_early()->call((unsigned long)f, __VA_ARGS__);
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2017-02-06 19:22:40 +08:00
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#define efi_call_runtime(f, ...) \
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__efi_early()->call(efi_table_attr(efi_runtime_services, f, \
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__efi_early()->runtime_services), __VA_ARGS__)
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2014-06-13 19:39:55 +08:00
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extern bool efi_reboot_required(void);
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2013-02-14 08:07:35 +08:00
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#else
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2014-01-03 11:56:49 +08:00
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static inline void parse_efi_setup(u64 phys_addr, u32 data_len) {}
|
2014-06-13 19:39:55 +08:00
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static inline bool efi_reboot_required(void)
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{
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return false;
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}
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2008-10-04 00:59:15 +08:00
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#endif /* CONFIG_EFI */
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2008-10-23 13:26:29 +08:00
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#endif /* _ASM_X86_EFI_H */
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