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Commit f719ea52 authored by Mccaskey, Alex's avatar Mccaskey, Alex
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Updating with improved Info reporting through Utils.hpp and spdlog. fixed bug... 

Updating with improved Info reporting through Utils.hpp and spdlog. fixed bug in ScaffoldASTConsumer
parent 5fa65496
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quantum/gate/accelerators/SimulatedQubits.hpp
View file @ f719ea52
......@@ -35,7 +35,6 @@
#include <complex>
#include "Tensor.hpp"
#include <bitset>
#include "spdlog/spdlog.h"
namespace xacc {
......@@ -169,20 +168,22 @@ public:
}
virtual void print() {
auto console = spdlog::get("console");
if (size() < TotalNumberOfQubits) {
for (int i = 0; i < bufferState.dimension(0); i++) {
console->info(std::bitset<TotalNumberOfQubits>(i).to_string().substr(
TotalNumberOfQubits - size(), TotalNumberOfQubits) + " -> "
for (int i = 0; i < bufferState.dimension(0); i++) {
XACCInfo(
std::bitset<TotalNumberOfQubits>(i).to_string().substr(
TotalNumberOfQubits - size(),
TotalNumberOfQubits) + " -> "
+ std::to_string(std::real(bufferState(i))));
}
} else {
for (int i = 0; i < bufferState.dimension(0); i++) {
XACCInfo(
std::bitset<TotalNumberOfQubits>(i).to_string() + " -> "
+ std::to_string(std::real(bufferState(i))));
}
} else {
for (int i = 0; i < bufferState.dimension(0); i++) {
console->info(std::bitset<TotalNumberOfQubits>(i).to_string()
+ " -> " + std::to_string(std::real(bufferState(i))));
}
}
}
}
}
virtual ~SimulatedQubits() {}
......
quantum/gate/accelerators/firetensoraccelerator/FireTensorAccelerator.cpp
View file @ f719ea52
......@@ -55,39 +55,22 @@ bool FireTensorAccelerator::isValidBufferSize(const int NBits) {
return NBits <= 10;
}
/**
* The constructor, create tensor gates
*/
FireTensorAccelerator::FireTensorAccelerator() {
fire::Tensor<2, fire::EigenProvider, std::complex<double>> h(2, 2), cnot(4,
4), I(2, 2), x(2, 2), p0(2, 2), p1(2, 2), z(2, 2);
h.setValues(
{ { 1.0 / sqrt2, 1.0 / sqrt2 }, { 1.0 / sqrt2, -1.0 / sqrt2 } });
cnot.setValues( { { 1, 0, 0, 0 }, { 0, 0, 1, 0 }, { 0, 0, 0, 1 }, { 0, 0, 1,
0 } });
x.setValues( { { 0, 1 }, { 1, 0 } });
I.setValues( { { 1, 0 }, { 0, 1 } });
p0.setValues( { { 1, 0 }, { 0, 0 } });
p1.setValues( { { 0, 0 }, { 0, 1 } });
z.setValues( { { 1, 0 }, { 0, -1 } });
gates.insert(std::make_pair("h", h));
gates.insert(std::make_pair("cnot", cnot));
gates.insert(std::make_pair("x", x));
gates.insert(std::make_pair("I", I));
gates.insert(std::make_pair("p0", p0));
gates.insert(std::make_pair("p1", p1));
gates.insert(std::make_pair("z", z));
}
void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
const std::shared_ptr<xacc::Function> kernel) {
using ProductList = std::vector<fire::Tensor<2, fire::EigenProvider, std::complex<double>>>;
using ComplexTensor = fire::Tensor<2, fire::EigenProvider, std::complex<double>>;
// Cast to what we know should be SimulatedQubits
auto qubits = std::static_pointer_cast<SimulatedQubits<10>>(buffer);
if (!qubits) {
XACCError("Invalid derived AcceleratorBuffer passed to "
"FireTensorAccelerator. Must be of type SimulatedQubits<10>.");
}
// Create a lambda for each type of gate we may encounter,
// each lambda must perform a gate-specific unitary
// on the qubits accelerator buffer.
auto hadamard =
[&] (Hadamard& hGate) mutable {
[&] (Hadamard& hGate) {
ComplexTensor h(2,2), I(2,2);
I.setValues( { {1, 0}, {0, 1}});
h.setValues(
......@@ -136,7 +119,7 @@ void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
qubits->applyUnitary(localU);
};
auto x = [&] (X& xGate) mutable {
auto x = [&] (X& xGate) {
ComplexTensor x(2,2), I(2,2);
I.setValues( { { 1, 0 }, { 0, 1 } });
x.setValues( { { 0, 1 }, { 1, 0 } });
......@@ -156,7 +139,7 @@ void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
qubits->applyUnitary(localU);
};
auto z = [&] (Z& zGate) mutable {
auto z = [&] (Z& zGate) {
ComplexTensor z(2,2), I(2,2);
I.setValues( { { 1, 0 }, { 0, 1 } });
z.setValues( { { 1, 0 }, { 0, -1 } });
......@@ -178,8 +161,10 @@ void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
};
auto measure = [&](Measure& mGate) {
ComplexTensor I(2,2);
ComplexTensor I(2,2), p0(2,2), p1(2,2);
I.setValues( { {1, 0}, {0, 1}});
p0.setValues( { { 1, 0 }, { 0, 0 } });
p1.setValues( { { 0, 0 }, { 0, 1 } });
auto actingQubits = mGate.bits();
ProductList productList;
for (int j = 0; j < qubits->size(); j++) {
......@@ -188,7 +173,7 @@ void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
auto rho = qubits->getState() * qubits->getState();
productList.at(actingQubits[0]) = gates.at("p0");
productList.at(actingQubits[0]) = p0;
auto Pi0 = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
Pi0 = Pi0.kronProd(productList.at(i));
......@@ -212,7 +197,7 @@ void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
qubits->normalize();
} else {
result = 1;
productList.at(actingQubits[0]) = gates.at("p1");
productList.at(actingQubits[0]) = p1;
auto Pi1 = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
Pi1 = Pi1.kronProd(productList.at(i));
......@@ -221,222 +206,39 @@ void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
qubits->normalize();
}
std::cout << "Qubit " << actingQubits[0] << " measured to be a " << result << "\n";
qubits->updateBit(actingQubits[0], result);
};
auto cond = [&](ConditionalFunction& c) {
auto qubit = c.getConditionalQubit();
auto bufResult = qubits->getAcceleratorBitState(qubit);
c.evaluate(bufResult == AcceleratorBitState::ONE ? 1 : 0);
std::cout << "Measurement on " << qubit << " was a " <<
(bufResult == AcceleratorBitState::ONE ? 1 : 0) << "\n";
if (bufResult == AcceleratorBitState::UNKNOWN) {
XACCError("Conditional Node is conditional on unmeasured qubit.");
}
auto bufResultAsInt = bufResult == AcceleratorBitState::ONE ? 1 : 0;
c.evaluate(bufResultAsInt);
XACCInfo("Measurement on " + std::to_string(qubit) + " was a " +
std::to_string(bufResultAsInt));
};
// Create a Visitor that will execute our lambdas when
// we encounter one
auto visitor = std::make_shared<GateInstructionVisitor>(hadamard, cnot, x,
measure, z, cond);
// Our QIR is really a tree structure
// so create a pre-order tree traversal
// InstructionIterator to walk it
InstructionIterator it(kernel);
while (it.hasNext()) {
// Get the next node in the tree
auto nextInst = it.next();
// If enabled, invoke the accept
// method which kicks off the visitor
// to execute the appropriate lambda.
if (nextInst->isEnabled()) {
std::cout << "NEXTINST: " << nextInst->getName() << "\n";
nextInst->accept(visitor);
qubits->print(std::cout);
}
}
// Appy the unitary and update th state
std::cout << "\n\n";
qubits->print(std::cout);
}
/**
* Execute the simulation. Requires both a valid SimulatedQubits buffer and
* Graph IR instance modeling the quantum circuit.
*
* @param ir
*/
void FireTensorAccelerator::execute(std::shared_ptr<AcceleratorBuffer> buffer,
const std::shared_ptr<xacc::IR> ir) {
auto qubits = std::static_pointer_cast<SimulatedQubits<10>>(buffer);
// Set the size
int nQubits = qubits->size();
// Cast to a GraphIR, if we can...
auto graphir = std::dynamic_pointer_cast<QuantumGraphIR>(ir);
if (!graphir) {
XACCError(
"Invalid IR - this Accelerator only accepts GraphIR<Graph<CircuitNode>>.");
}
// Get the Graph and related info
std::vector<CircuitNode> gateOperations;
std::map<int, int> qubitIdToMeasuredResult;
auto graph = graphir->getGraph();
int nNodes = graph.order(), layer = 1;
int finalLayer = graph.getVertexProperty<1>(nNodes - 1);
// Get a vector of all gates
for (int i = 0; i < nNodes; i++) {
CircuitNode n;
n.properties = graph.getVertexProperties(i);
gateOperations.emplace_back(n);
}
// Loop over all gates in the circuit
for (auto gate : gateOperations) {
// Skip disabled gates...
if (!std::get<4>(gate.properties)) {
continue;
}
// Create a list of nQubits Identity gates
std::vector<fire::Tensor<2, fire::EigenProvider, std::complex<double>>>productList;
for (int i = 0; i < nQubits; i++) {
productList.push_back(gates.at("I"));
}
// Create a local U gate, initialized to identity
fire::Tensor<2, fire::EigenProvider, std::complex<double>> localU =
gates.at("I");
// Get the current gate anme
auto gateName = std::get<0>(gate.properties);
// Get the qubits we're acting on...
auto actingQubits = std::get<3>(gate.properties);
if (gateName == "conditional") {
// If we hit a measured result then we
// need to figure out the measured qubit it
// depends on, then if its a 1, enable the disabled
// gates from this node to the next FinalState node
auto qubitWeNeed = std::get<3>(gate.properties)[0];
auto qubitFound = qubitIdToMeasuredResult.find(qubitWeNeed);
if (qubitFound == qubitIdToMeasuredResult.end()) {
XACCError(
"Invalid conditional node - this qubit has not been measured.");
}
auto result = qubitIdToMeasuredResult[qubitWeNeed];
auto currentNodeId = std::get<2>(gate.properties);
if (result == 1) {
// Walk over the next nodes until we hit a FinalState node
// set their enabled state to true
for (int i = currentNodeId + 1; i < nNodes; i++) {
// Once we hit the next final state node, then break out
if (std::get<0>(gateOperations[i].properties)
== "FinalState") {
break;
}
std::get<4>(gateOperations[i].properties) = true;
}
}
} else if (gateName == "measure") {
// get rho - outer product of state with itself
auto rho = qubits->getState() * qubits->getState();
// Create a total unitary for this layer of the circuit
productList.at(actingQubits[0]) = gates.at("p0");
auto Pi0 = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
Pi0 = Pi0.kronProd(productList.at(i));
}
// Get probability qubit is a 0
double probZero = 0.0;
std::array<IndexPair, 1> contractionIndices;
contractionIndices[0] = std::make_pair(1, 0);
auto Prob0 = Pi0.contract(rho, contractionIndices);
for (int i = 0; i < Prob0.dimension(0); i++)
probZero += std::real(Prob0(i, i));
// Make the measurement random...
std::random_device rd;
std::mt19937 mt(rd());
std::uniform_real_distribution<double> dist(0, 1.0);
int result;
auto val = dist(mt);
if (val < std::real(probZero)) {
result = 0;
qubits->applyUnitary(Pi0);
qubits->normalize();
} else {
result = 1;
productList.at(actingQubits[0]) = gates.at("p1");
// Create a total unitary for this layer of the circuit
auto Pi1 = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
Pi1 = Pi1.kronProd(productList.at(i));
}
qubits->applyUnitary(Pi1);
qubits->normalize();
}
// Record the measurement result
qubitIdToMeasuredResult.insert(
std::make_pair(actingQubits[0], result));
} else {
if (gateName != "FinalState" && gateName != "InitialState") {
// Regular Gate operations...
if (actingQubits.size() == 1) {
// If this is a one qubit gate, just replace
// the currect I in the list with the gate
productList.at(actingQubits[0]) = gates.at(gateName);
// Create a total unitary for this layer of the circuit
localU = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
localU = localU.kronProd(productList.at(i));
}
} else if (actingQubits.size() == 2) {
// If this is a 2 qubit gate, then we need t
// to construct Kron(P0, I, ..., I) + Kron(P1, I, ..., Gate, ..., I)
productList.at(actingQubits[0]) = gates.at("p0");
localU = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
localU = localU.kronProd(productList.at(i));
}
// Now create the second term in the sum
productList.at(actingQubits[0]) = gates.at("p1");
productList.at(actingQubits[1]) = gates.at(
gateName == "cnot" ? "x" : "I");
auto temp = productList.at(0);
for (int i = 1; i < productList.size(); i++) {
temp = temp.kronProd(productList.at(i));
}
// Sum them up
localU = localU + temp;
} else {
XACCError("Can only simulate one and two qubit gates.");
}
// Make sure that localU is the correct size
assert(
localU.dimension(0) == std::pow(2, nQubits)
&& localU.dimension(1) == std::pow(2, nQubits));
// Appy the unitary and update th state
qubits->applyUnitary(localU);
}
}
}
}
......
quantum/gate/accelerators/firetensoraccelerator/FireTensorAccelerator.hpp
View file @ f719ea52
......@@ -43,8 +43,9 @@ namespace xacc {
namespace quantum {
double sqrt2 = std::sqrt(2.0);
using QuantumGraphIR = xacc::GraphIR<QuantumCircuit>;
using TensorMap = std::map<std::string, fire::Tensor<2, fire::EigenProvider, std::complex<double>>>;
using ProductList = std::vector<fire::Tensor<2, fire::EigenProvider, std::complex<double>>>;
using ComplexTensor = fire::Tensor<2, fire::EigenProvider, std::complex<double>>;
/**
* The FireTensorAccelerator is an XACC Accelerator that simulates
* gate based quantum computing circuits. It models the QPUGate Accelerator
......@@ -55,17 +56,36 @@ using TensorMap = std::map<std::string, fire::Tensor<2, fire::EigenProvider, st
class FireTensorAccelerator : virtual public QPUGate {
public:
/**
* Create, store, and return an AcceleratorBuffer with the given
* variable id string. This string serves as a unique identifier
* for future lookups and reuse of the AcceleratorBuffer.
*
* @param varId
* @return
*/
std::shared_ptr<AcceleratorBuffer> createBuffer(const std::string& varId);
/**
* Create, store, and return an AcceleratorBuffer with the given
* variable id string and of the given number of bits.
* The string id serves as a unique identifier
* for future lookups and reuse of the AcceleratorBuffer.
*
* @param varId
* @param size
* @return
*/
std::shared_ptr<AcceleratorBuffer> createBuffer(const std::string& varId,
const int size);
virtual bool isValidBufferSize(const int NBits);
/**
* The constructor, create tensor gates
* Return true if this Accelerator can allocated
* NBits number of bits.
* @param NBits
* @return
*/
FireTensorAccelerator();
virtual bool isValidBufferSize(const int NBits);
/**
* Execute the simulation. Requires both a valid SimulatedQubits buffer and
......@@ -74,19 +94,12 @@ public:
* @param ir
*/
virtual void execute(std::shared_ptr<AcceleratorBuffer> buffer, const std::shared_ptr<xacc::Function> kernel);
virtual void execute(std::shared_ptr<AcceleratorBuffer> buffer, const std::shared_ptr<xacc::IR> kernel);
/**
* The destructor
*/
virtual ~FireTensorAccelerator() {}
protected:
/**
* Mapping of gate names to actual gate matrices.
*/
TensorMap gates;
};
......
quantum/gate/accelerators/tests/FireTensorAcceleratorTester.cpp
View file @ f719ea52
......@@ -34,7 +34,6 @@
#include <memory>
#include <boost/test/included/unit_test.hpp>
#include "FireTensorAccelerator.hpp"
#include "GraphIR.hpp"
using namespace xacc::quantum;
......
quantum/gate/compilers/scaffold/Scaffold.hpp
View file @ f719ea52
......@@ -32,7 +32,7 @@
#define QUANTUM_IMPROVEDSCAFFOLDCOMPILER_HPP_
#include "Compiler.hpp"
#include "XACCError.hpp"
#include "Utils.hpp"
#include <boost/algorithm/string.hpp>
#include "../scaffold/ScaffoldASTConsumer.hpp"
......
quantum/gate/compilers/scaffold/ScaffoldASTConsumer.cpp
View file @ f719ea52
......@@ -3,6 +3,9 @@
#include <iostream>
#include <boost/algorithm/string.hpp>
#include "ParameterizedGateInstruction.hpp"
#include "Utils.hpp"
using namespace xacc;
namespace scaffold {
......@@ -20,10 +23,10 @@ bool ScaffoldASTConsumer::VisitDecl(Decl *d) {
auto varType = varDecl->getType().getAsString();
if (boost::contains(varType, "cbit")) {
cbitVarName = varDecl->getDeclName().getAsString();
std::cout << "Found " << cbitVarName << "\n";
// std::cout << "Found " << cbitVarName << "\n";
} else if (boost::contains(varType, "qbit")) {
qbitVarName = varDecl->getDeclName().getAsString();
std::cout << "Found " << qbitVarName << "\n";
// std::cout << "Found " << qbitVarName << "\n";
}
} else if (isa<FunctionDecl>(d)) {
auto c = cast<FunctionDecl>(d);
......@@ -42,7 +45,7 @@ bool ScaffoldASTConsumer::VisitStmt(Stmt *s) {
std::string ifStr;
llvm::raw_string_ostream ifS(ifStr);
ifStmt->printPretty(ifS, nullptr, policy);
std::cout << "HELLO IF:\n" << ifS.str() << "\n";
// std::cout << "HELLO IF:\n" << ifS.str() << "\n";
if (const auto binOp = llvm::dyn_cast<BinaryOperator>(
ifStmt->getCond())) {
......@@ -52,21 +55,21 @@ bool ScaffoldASTConsumer::VisitStmt(Stmt *s) {
std::string str;
llvm::raw_string_ostream s(str);
LHS->printPretty(s, nullptr, policy);
std::cout << "LHS IF: " << s.str() << "\n";
// std::cout << "LHS IF: " << s.str() << "\n";
if (boost::contains(s.str(), cbitVarName)) {
auto RHS = binOp->getRHS();
std::string rhsstr;
llvm::raw_string_ostream rhss(rhsstr);
RHS->printPretty(rhss, nullptr, policy);
std::cout << "RHS IF: " << rhss.str() << "\n";
// std::cout << "RHS IF: " << rhss.str() << "\n";
auto thenCode = ifStmt->getThen();
std::string thenStr;
llvm::raw_string_ostream thenS(thenStr);
thenCode->printPretty(thenS, nullptr, policy);
auto then = thenS.str();
std::cout << "ThenStmt:\n" << then << "\n";
// std::cout << "ThenStmt:\n" << then << "\n";
then.erase(std::remove(then.begin(), then.end(), '\t'),
then.end());
boost::replace_all(then, "{\n", "");
......@@ -75,12 +78,14 @@ bool ScaffoldASTConsumer::VisitStmt(Stmt *s) {
boost::trim(then);
int conditionalQubit = cbitRegToMeasuredQubit[s.str()];
currentConditional = std::make_shared<xacc::quantum::ConditionalFunction>(conditionalQubit);
currentConditional = std::make_shared<
xacc::quantum::ConditionalFunction>(
conditionalQubit);
std::vector<std::string> vec;
boost::split(vec, then, boost::is_any_of("\n"));
nCallExprToSkip = vec.size();
std::cout << "NCALLEXPRTOSKIP = " << nCallExprToSkip << "\n";
// std::cout << "NCALLEXPRTOSKIP = " << nCallExprToSkip << "\n";
}
}
}
......@@ -97,7 +102,6 @@ bool ScaffoldASTConsumer::VisitCallExpr(CallExpr* c) {
if (t != NULL) {
bool isParameterizedInst = false;
auto fd = c->getDirectCallee();
std::cout << "HOWDY: " << fd->getNameInfo().getAsString() << "\n";
auto gateName = fd->getNameInfo().getAsString();
std::vector<int> qubits;
std::vector<double> params;
......@@ -106,7 +110,7 @@ bool ScaffoldASTConsumer::VisitCallExpr(CallExpr* c) {
llvm::raw_string_ostream argstream(arg);
i->printPretty(argstream, nullptr, policy);
auto argStr = argstream.str();
std::cout << "Arg: " << argstream.str() << "\n";
// std::cout << "Arg: " << argstream.str() << "\n";
if (boost::contains(argStr, qbitVarName)) {
boost::replace_all(argStr, qbitVarName, "");
......@@ -134,13 +138,12 @@ bool ScaffoldASTConsumer::VisitCallExpr(CallExpr* c) {
XACCError(
"Can only handle 1 and 2 parameter gates... and only doubles... for now.");
}
std::cout << "CREATED A " << gateName << " parameterized gate\n";
// std::cout << "CREATED A " << gateName << " parameterized gate\n";
} else if (gateName != "MeasZ") {
inst = xacc::quantum::GateInstructionRegistry::instance()->create(
gateName, qubits);
std::cout << "CREATED A " << gateName << " gate\n";
}
if (gateName != "MeasZ") {
......@@ -148,7 +151,7 @@ bool ScaffoldASTConsumer::VisitCallExpr(CallExpr* c) {
if (nCallExprToSkip == 0) {
function->addInstruction(inst);