c0f4af1719
At the moment we try to handle c15_cpar with the strategy of: * emit generated code which makes assumptions about its value * when the register value changes call tb_flush() to throw away the now-invalid generated code This works because XScale CPUs are always uniprocessor, but it's confusing because it suggests that the same approach can be taken for other registers. It also means we do a tb_flush() on CPU reset, which makes multithreaded linux-user binaries even more likely to fail than would otherwise be the case. Replace it with a combination of TB flags for the access checks done on cp0/cp1 for the XScale and iwMMXt instructions, plus a runtime check for cp2..cp13 coprocessor accesses. Signed-off-by: Peter Maydell <peter.maydell@linaro.org> Message-id: 1411056959-23070-1-git-send-email-peter.maydell@linaro.org |
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arm_ldst.h | ||
arm-semi.c | ||
cpu64.c | ||
cpu-qom.h | ||
cpu.c | ||
cpu.h | ||
crypto_helper.c | ||
gdbstub64.c | ||
gdbstub.c | ||
helper-a64.c | ||
helper-a64.h | ||
helper.c | ||
helper.h | ||
internals.h | ||
iwmmxt_helper.c | ||
kvm32.c | ||
kvm64.c | ||
kvm_arm.h | ||
kvm-consts.h | ||
kvm-stub.c | ||
kvm.c | ||
machine.c | ||
Makefile.objs | ||
neon_helper.c | ||
op_addsub.h | ||
op_helper.c | ||
translate-a64.c | ||
translate.c | ||
translate.h |