ExternalVendorCode/genode
1
0
Fork 0
mirror of https://github.com/genodelabs/genode.git synced 2024-12-19 21:57:55 +00:00
Code Issues Actions Packages Projects Releases Wiki Activity
7df58930e2
genode/repos/base-nova/lib/mk/core-nova.inc

77 lines
3.0 KiB
PHP
Raw Normal View History

Generalize ABI mechanism to shared objects This patch make the ABI mechanism available to shared libraries other than Genode's dynamic linker. It thereby allows us to introduce intermediate ABIs at the granularity of shared libraries. This is useful for slow-moving ABIs such as the libc's interface but it will also become handy for the package management. To implement the feature, the build system had to be streamlined a bit. In particular, archive dependencies and shared-lib dependencies are now handled separately, and the global list of 'SHARED_LIBS' is no more. Now, the variable with the same name holds the per-target list of shared libraries used by the target.
2016-12-29 17:27:45 +00:00
LIBS = base-nova-common cxx
Unification of native_capability.h This patch establishes the sole use of generic headers across all kernels. The common 'native_capability.h' is based on the version of base-sel4. All traditional L4 kernels and Linux use the same implementation of the capability-lifetime management. On base-hw, NOVA, Fiasco.OC, and seL4, custom implementations (based on their original mechanisms) are used, with the potential to unify them further in the future. This change achieves binary compatibility of dynamically linked programs across all kernels. Furthermore, the patch introduces a Native_capability::print method, which allows the easy output of the kernel-specific capability representation using the base/log.h API. Issue #1993
2016-06-15 13:04:54 +00:00
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
GEN_CORE_DIR = $(BASE_DIR)/src/core
SRC_CC += stack_area.cc \
core_mem_alloc.cc \
core_log.cc \
core_region_map.cc \
core_rpc_cap_alloc.cc \
cpu_session_component.cc \
cpu_session_support.cc \
cpu_thread_component.cc \
dataspace_component.cc \
default_log.cc \
dump_alloc.cc \
echo.cc \
io_mem_session_component.cc \
io_mem_session_support.cc \
io_port_session_component.cc \
io_port_session_support.cc \
ipc_pager.cc \
irq_session_component.cc \
main.cc \
pager.cc \
nova: use 'Native_cpu' component for thread initialization Pass the thread type and exception base to core with a 'Native_cpu' component instead of enhancing the 'Thread_state' class. Fixes #2298
2017-02-27 18:54:03 +00:00
native_cpu_component.cc \
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
native_pd_component.cc \
pd_upgrade_ram_quota.cc \
pd_assign_pci.cc \
rpc_cap_factory.cc \
core: split RAM dataspace factory from RAM service By separating the session-interface concerns from the mechanics of the dataspace creation, the code becomes simpler to follow, and the RAM session can be more easily merged with the PD session in a subsequent step. Issue #2407
2017-05-11 13:03:03 +00:00
ram_dataspace_factory.cc \
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
platform.cc \
platform_pd.cc \
platform_services.cc \
platform_thread.cc \
Integrate core's RAM service into the PD service Fixes #2407
2017-05-11 18:03:28 +00:00
pd_session_component.cc \
core: split RAM dataspace factory from RAM service By separating the session-interface concerns from the mechanics of the dataspace creation, the code becomes simpler to follow, and the RAM session can be more easily merged with the PD session in a subsequent step. Issue #2407
2017-05-11 13:03:03 +00:00
ram_dataspace_support.cc \
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
region_map_component.cc \
region_map_support.cc \
rom_session_component.cc \
thread_start.cc \
bios_data_area.cc \
base: restructure signal-submit initialization This patch allows core's 'Signal_transmitter' implementation to sidestep the 'Env::Pd' interface and thereby adhere to a stricter layering within core. The 'Signal_transmitter' now uses - on kernels that depend on it - a dedicated (and fairly freestanding) RPC proxy mechanism for signal deliver, instead of channeling signals through the 'Pd_session::submit' RPC function.
2017-05-10 18:11:38 +00:00
trace_session_component.cc \
signal_transmitter_noinit.cc \
signal_receiver.cc
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
INC_DIR = $(REP_DIR)/src/core/include \
$(REP_DIR)/src/include \
$(BASE_DIR)/src/include \
$(GEN_CORE_DIR)/include
include $(GEN_CORE_DIR)/version.inc
vpath main.cc $(GEN_CORE_DIR)
Integrate core's RAM service into the PD service Fixes #2407
2017-05-11 18:03:28 +00:00
vpath pd_session_component.cc $(GEN_CORE_DIR)
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
vpath rom_session_component.cc $(GEN_CORE_DIR)
vpath cpu_session_component.cc $(GEN_CORE_DIR)
vpath cpu_session_support.cc $(GEN_CORE_DIR)
vpath cpu_thread_component.cc $(GEN_CORE_DIR)
vpath pd_upgrade_ram_quota.cc $(GEN_CORE_DIR)
vpath region_map_component.cc $(GEN_CORE_DIR)
vpath trace_session_component.cc $(GEN_CORE_DIR)
base: restructure signal-submit initialization This patch allows core's 'Signal_transmitter' implementation to sidestep the 'Env::Pd' interface and thereby adhere to a stricter layering within core. The 'Signal_transmitter' now uses - on kernels that depend on it - a dedicated (and fairly freestanding) RPC proxy mechanism for signal deliver, instead of channeling signals through the 'Pd_session::submit' RPC function.
2017-05-10 18:11:38 +00:00
vpath signal_transmitter_noinit.cc $(GEN_CORE_DIR)
vpath signal_receiver.cc $(GEN_CORE_DIR)
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
vpath io_port_session_component.cc $(GEN_CORE_DIR)/spec/x86
vpath io_port_session_support.cc $(GEN_CORE_DIR)/spec/x86
vpath io_mem_session_component.cc $(GEN_CORE_DIR)
vpath io_mem_session_support.cc $(GEN_CORE_DIR)
core: split RAM dataspace factory from RAM service By separating the session-interface concerns from the mechanics of the dataspace creation, the code becomes simpler to follow, and the RAM session can be more easily merged with the PD session in a subsequent step. Issue #2407
2017-05-11 13:03:03 +00:00
vpath ram_dataspace_factory.cc $(GEN_CORE_DIR)
core: unify handling of boot modules Instead of solving the problem to deliver ROM modules to core while booting differently for the several kernels (multi-boot, elfweaver, core re-linking), this commit unifies the approaches. It always builds core as a library, and after all binaries are built from a run-script, the run-tool will link an ELF image out of the core-library and all boot modules. Thereby, core can access its ROM modules directly. This approach now works for all kernels except Linux. With this solution, there is no [build_dir]/bin/core binary available anymore. For debugging purposes you will find a core binary without boot modules, but with debug symbols under [run_dir].core. Fix #2095
2016-09-15 14:08:33 +00:00
vpath dataspace_component.cc $(GEN_CORE_DIR)
vpath core_mem_alloc.cc $(GEN_CORE_DIR)
vpath default_log.cc $(GEN_CORE_DIR)
vpath dump_alloc.cc $(GEN_CORE_DIR)
vpath platform_services.cc $(GEN_CORE_DIR)/spec/x86
vpath stack_area.cc $(GEN_CORE_DIR)
vpath core_printf.cc $(BASE_DIR)/src/lib/base
vpath %.cc $(REP_DIR)/src/core
Reference in New Issue Copy Permalink