void resetFlags()
{
if (m_set_id) {
resetCommonFlags();
m_lhs->resetFlags();
m_rhs->resetFlags();
}
}
void resetFlags()
{
m_set_id = false;
m_gen_func = false;
m_gen_param = false;
m_gen_offset = false;
m_lhs->resetFlags();
m_rhs->resetFlags();
}
void resetFlags()
{
m_set_id = false;
m_gen_func = false;
m_gen_param = false;
m_gen_offset = false;
m_child->resetFlags();
}
void Array<T>::eval()
{
if (isReady()) return;
this->setId(getActiveDeviceId());
data = Buffer_ptr(bufferAlloc(elements() * sizeof(T)), bufferFree);
// Do not replace this with cast operator
KParam info = {{dims()[0], dims()[1], dims()[2], dims()[3]},
{strides()[0], strides()[1], strides()[2], strides()[3]},
0};
Param res = {data.get(), info};
evalNodes(res, this->getNode().get());
ready = true;
Node_ptr prev = node;
prev->resetFlags();
// FIXME: Replace the current node in any JIT possible trees with the new BufferNode
node.reset();
}
void Array<T>::eval()
{
if (isReady()) return;
this->setId(getActiveDeviceId());
data = shared_ptr<T>(memAlloc<T>(elements()),
memFree<T>);
Param<T> res;
res.ptr = data.get();
for (int i = 0; i < 4; i++) {
res.dims[i] = dims()[i];
res.strides[i] = strides()[i];
}
evalNodes(res, this->getNode().get());
ready = true;
Node_ptr prev = node;
prev->resetFlags();
// FIXME: Replace the current node in any JIT possible trees with the new BufferNode
node.reset();
}
void resetFlags()
{
resetCommonFlags();
m_lhs->resetFlags();
m_rhs->resetFlags();
}
void resetFlags()
{
resetCommonFlags();
m_child->resetFlags();
}
