#include nn::hac::InteruptEntry::InteruptEntry() : mCap(kCapId), mInterupt{0,0} { } nn::hac::InteruptEntry::InteruptEntry(const KernelCapabilityEntry & kernel_cap) : mCap(kCapId), mInterupt{ 0,0 } { setKernelCapability(kernel_cap); } nn::hac::InteruptEntry::InteruptEntry(uint32_t interupt0, uint32_t interupt1) : mCap(kCapId), mInterupt{ 0,0 } { setInterupt(0, interupt0); setInterupt(1, interupt1); } void nn::hac::InteruptEntry::operator=(const InteruptEntry& other) { mInterupt[0] = other.mInterupt[0]; mInterupt[1] = other.mInterupt[1]; updateCapField(); } bool nn::hac::InteruptEntry::operator==(const InteruptEntry& other) const { return (mInterupt[0] == other.mInterupt[0]) \ && (mInterupt[1] == other.mInterupt[1]); } bool nn::hac::InteruptEntry::operator!=(const InteruptEntry& other) const { return !(*this == other); } const nn::hac::KernelCapabilityEntry & nn::hac::InteruptEntry::getKernelCapability() const { return mCap; } void nn::hac::InteruptEntry::setKernelCapability(const KernelCapabilityEntry & kernel_cap) { if (kernel_cap.getType() != kCapId) { throw fnd::Exception(kModuleName, "KernelCapabilityEntry is not type 'EnableInterupts'"); } mCap = kernel_cap; processCapField(); } uint32_t nn::hac::InteruptEntry::operator[](size_t index) const { return getInterupt(index); } uint32_t nn::hac::InteruptEntry::getInterupt(size_t index) const { return mInterupt[index % kInteruptNum]; } void nn::hac::InteruptEntry::setInterupt(size_t index, uint32_t interupt) { if (interupt > kInteruptMax) { throw fnd::Exception(kModuleName, "Illegal interupt value."); } mInterupt[index % kInteruptNum] = interupt; updateCapField(); }