use of org.apache.sysml.runtime.controlprogram.caching.FrameObject in project incubator-systemml by apache.
the class MultiReturnParameterizedBuiltinSPInstruction method processInstruction.
@Override
@SuppressWarnings("unchecked")
public void processInstruction(ExecutionContext ec) throws DMLRuntimeException {
SparkExecutionContext sec = (SparkExecutionContext) ec;
try {
//get input RDD and meta data
FrameObject fo = sec.getFrameObject(input1.getName());
FrameObject fometa = sec.getFrameObject(_outputs.get(1).getName());
JavaPairRDD<Long, FrameBlock> in = (JavaPairRDD<Long, FrameBlock>) sec.getRDDHandleForFrameObject(fo, InputInfo.BinaryBlockInputInfo);
String spec = ec.getScalarInput(input2.getName(), input2.getValueType(), input2.isLiteral()).getStringValue();
MatrixCharacteristics mcIn = sec.getMatrixCharacteristics(input1.getName());
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
String[] colnames = !TfMetaUtils.isIDSpecification(spec) ? in.lookup(1L).get(0).getColumnNames() : null;
//step 1: build transform meta data
Encoder encoderBuild = EncoderFactory.createEncoder(spec, colnames, fo.getSchema(), (int) fo.getNumColumns(), null);
MaxLongAccumulator accMax = registerMaxLongAccumulator(sec.getSparkContext());
JavaRDD<String> rcMaps = in.mapPartitionsToPair(new TransformEncodeBuildFunction(encoderBuild)).distinct().groupByKey().flatMap(new TransformEncodeGroupFunction(accMax));
if (containsMVImputeEncoder(encoderBuild)) {
MVImputeAgent mva = getMVImputeEncoder(encoderBuild);
rcMaps = rcMaps.union(in.mapPartitionsToPair(new TransformEncodeBuild2Function(mva)).groupByKey().flatMap(new TransformEncodeGroup2Function(mva)));
}
//trigger eval
rcMaps.saveAsTextFile(fometa.getFileName());
//consolidate meta data frame (reuse multi-threaded reader, special handling missing values)
FrameReader reader = FrameReaderFactory.createFrameReader(InputInfo.TextCellInputInfo);
FrameBlock meta = reader.readFrameFromHDFS(fometa.getFileName(), accMax.value(), fo.getNumColumns());
//recompute num distinct items per column
meta.recomputeColumnCardinality();
meta.setColumnNames((colnames != null) ? colnames : meta.getColumnNames());
//step 2: transform apply (similar to spark transformapply)
//compute omit offset map for block shifts
TfOffsetMap omap = null;
if (TfMetaUtils.containsOmitSpec(spec, colnames)) {
omap = new TfOffsetMap(SparkUtils.toIndexedLong(in.mapToPair(new RDDTransformApplyOffsetFunction(spec, colnames)).collect()));
}
//create encoder broadcast (avoiding replication per task)
Encoder encoder = EncoderFactory.createEncoder(spec, colnames, fo.getSchema(), (int) fo.getNumColumns(), meta);
mcOut.setDimension(mcIn.getRows() - ((omap != null) ? omap.getNumRmRows() : 0), encoder.getNumCols());
Broadcast<Encoder> bmeta = sec.getSparkContext().broadcast(encoder);
Broadcast<TfOffsetMap> bomap = (omap != null) ? sec.getSparkContext().broadcast(omap) : null;
//execute transform apply
JavaPairRDD<Long, FrameBlock> tmp = in.mapToPair(new RDDTransformApplyFunction(bmeta, bomap));
JavaPairRDD<MatrixIndexes, MatrixBlock> out = FrameRDDConverterUtils.binaryBlockToMatrixBlock(tmp, mcOut, mcOut);
//set output and maintain lineage/output characteristics
sec.setRDDHandleForVariable(_outputs.get(0).getName(), out);
sec.addLineageRDD(_outputs.get(0).getName(), input1.getName());
sec.setFrameOutput(_outputs.get(1).getName(), meta);
} catch (IOException ex) {
throw new RuntimeException(ex);
}
}
use of org.apache.sysml.runtime.controlprogram.caching.FrameObject in project incubator-systemml by apache.
the class ParameterizedBuiltinSPInstruction method processInstruction.
@Override
@SuppressWarnings("unchecked")
public void processInstruction(ExecutionContext ec) throws DMLRuntimeException {
SparkExecutionContext sec = (SparkExecutionContext) ec;
String opcode = getOpcode();
//opcode guaranteed to be a valid opcode (see parsing)
if (opcode.equalsIgnoreCase("mapgroupedagg")) {
//get input rdd handle
String targetVar = params.get(Statement.GAGG_TARGET);
String groupsVar = params.get(Statement.GAGG_GROUPS);
JavaPairRDD<MatrixIndexes, MatrixBlock> target = sec.getBinaryBlockRDDHandleForVariable(targetVar);
PartitionedBroadcast<MatrixBlock> groups = sec.getBroadcastForVariable(groupsVar);
MatrixCharacteristics mc1 = sec.getMatrixCharacteristics(targetVar);
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
CPOperand ngrpOp = new CPOperand(params.get(Statement.GAGG_NUM_GROUPS));
int ngroups = (int) sec.getScalarInput(ngrpOp.getName(), ngrpOp.getValueType(), ngrpOp.isLiteral()).getLongValue();
//single-block aggregation
if (ngroups <= mc1.getRowsPerBlock() && mc1.getCols() <= mc1.getColsPerBlock()) {
//execute map grouped aggregate
JavaRDD<MatrixBlock> out = target.map(new RDDMapGroupedAggFunction2(groups, _optr, ngroups));
MatrixBlock out2 = RDDAggregateUtils.sumStable(out);
//put output block into symbol table (no lineage because single block)
//this also includes implicit maintenance of matrix characteristics
sec.setMatrixOutput(output.getName(), out2);
} else //multi-block aggregation
{
//execute map grouped aggregate
JavaPairRDD<MatrixIndexes, MatrixBlock> out = target.flatMapToPair(new RDDMapGroupedAggFunction(groups, _optr, ngroups, mc1.getRowsPerBlock(), mc1.getColsPerBlock()));
out = RDDAggregateUtils.sumByKeyStable(out, false);
//updated characteristics and handle outputs
mcOut.set(ngroups, mc1.getCols(), mc1.getRowsPerBlock(), mc1.getColsPerBlock(), -1);
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), targetVar);
sec.addLineageBroadcast(output.getName(), groupsVar);
}
} else if (opcode.equalsIgnoreCase("groupedagg")) {
boolean broadcastGroups = Boolean.parseBoolean(params.get("broadcast"));
//get input rdd handle
String groupsVar = params.get(Statement.GAGG_GROUPS);
JavaPairRDD<MatrixIndexes, MatrixBlock> target = sec.getBinaryBlockRDDHandleForVariable(params.get(Statement.GAGG_TARGET));
JavaPairRDD<MatrixIndexes, MatrixBlock> groups = broadcastGroups ? null : sec.getBinaryBlockRDDHandleForVariable(groupsVar);
JavaPairRDD<MatrixIndexes, MatrixBlock> weights = null;
MatrixCharacteristics mc1 = sec.getMatrixCharacteristics(params.get(Statement.GAGG_TARGET));
MatrixCharacteristics mc2 = sec.getMatrixCharacteristics(groupsVar);
if (mc1.dimsKnown() && mc2.dimsKnown() && (mc1.getRows() != mc2.getRows() || mc2.getCols() != 1)) {
throw new DMLRuntimeException("Grouped Aggregate dimension mismatch between target and groups.");
}
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
JavaPairRDD<MatrixIndexes, WeightedCell> groupWeightedCells = null;
// Step 1: First extract groupWeightedCells from group, target and weights
if (params.get(Statement.GAGG_WEIGHTS) != null) {
weights = sec.getBinaryBlockRDDHandleForVariable(params.get(Statement.GAGG_WEIGHTS));
MatrixCharacteristics mc3 = sec.getMatrixCharacteristics(params.get(Statement.GAGG_WEIGHTS));
if (mc1.dimsKnown() && mc3.dimsKnown() && (mc1.getRows() != mc3.getRows() || mc1.getCols() != mc3.getCols())) {
throw new DMLRuntimeException("Grouped Aggregate dimension mismatch between target, groups, and weights.");
}
groupWeightedCells = groups.join(target).join(weights).flatMapToPair(new ExtractGroupNWeights());
} else //input vector or matrix
{
String ngroupsStr = params.get(Statement.GAGG_NUM_GROUPS);
long ngroups = (ngroupsStr != null) ? (long) Double.parseDouble(ngroupsStr) : -1;
//execute basic grouped aggregate (extract and preagg)
if (broadcastGroups) {
PartitionedBroadcast<MatrixBlock> pbm = sec.getBroadcastForVariable(groupsVar);
groupWeightedCells = target.flatMapToPair(new ExtractGroupBroadcast(pbm, mc1.getColsPerBlock(), ngroups, _optr));
} else {
//replicate groups if necessary
if (mc1.getNumColBlocks() > 1) {
groups = groups.flatMapToPair(new ReplicateVectorFunction(false, mc1.getNumColBlocks()));
}
groupWeightedCells = groups.join(target).flatMapToPair(new ExtractGroupJoin(mc1.getColsPerBlock(), ngroups, _optr));
}
}
// Step 2: Make sure we have brlen required while creating <MatrixIndexes, MatrixCell>
if (mc1.getRowsPerBlock() == -1) {
throw new DMLRuntimeException("The block sizes are not specified for grouped aggregate");
}
int brlen = mc1.getRowsPerBlock();
// Step 3: Now perform grouped aggregate operation (either on combiner side or reducer side)
JavaPairRDD<MatrixIndexes, MatrixCell> out = null;
if (_optr instanceof CMOperator && ((CMOperator) _optr).isPartialAggregateOperator() || _optr instanceof AggregateOperator) {
out = groupWeightedCells.reduceByKey(new PerformGroupByAggInCombiner(_optr)).mapValues(new CreateMatrixCell(brlen, _optr));
} else {
// Use groupby key because partial aggregation is not supported
out = groupWeightedCells.groupByKey().mapValues(new PerformGroupByAggInReducer(_optr)).mapValues(new CreateMatrixCell(brlen, _optr));
}
// Step 4: Set output characteristics and rdd handle
setOutputCharacteristicsForGroupedAgg(mc1, mcOut, out);
//store output rdd handle
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), params.get(Statement.GAGG_TARGET));
sec.addLineage(output.getName(), groupsVar, broadcastGroups);
if (params.get(Statement.GAGG_WEIGHTS) != null) {
sec.addLineageRDD(output.getName(), params.get(Statement.GAGG_WEIGHTS));
}
} else if (opcode.equalsIgnoreCase("rmempty")) {
String rddInVar = params.get("target");
String rddOffVar = params.get("offset");
boolean rows = sec.getScalarInput(params.get("margin"), ValueType.STRING, true).getStringValue().equals("rows");
long maxDim = sec.getScalarInput(params.get("maxdim"), ValueType.DOUBLE, false).getLongValue();
MatrixCharacteristics mcIn = sec.getMatrixCharacteristics(rddInVar);
if (//default case
maxDim > 0) {
//get input rdd handle
JavaPairRDD<MatrixIndexes, MatrixBlock> in = sec.getBinaryBlockRDDHandleForVariable(rddInVar);
JavaPairRDD<MatrixIndexes, MatrixBlock> off;
PartitionedBroadcast<MatrixBlock> broadcastOff;
long brlen = mcIn.getRowsPerBlock();
long bclen = mcIn.getColsPerBlock();
long numRep = (long) Math.ceil(rows ? (double) mcIn.getCols() / bclen : (double) mcIn.getRows() / brlen);
//execute remove empty rows/cols operation
JavaPairRDD<MatrixIndexes, MatrixBlock> out;
if (_bRmEmptyBC) {
broadcastOff = sec.getBroadcastForVariable(rddOffVar);
// Broadcast offset vector
out = in.flatMapToPair(new RDDRemoveEmptyFunctionInMem(rows, maxDim, brlen, bclen, broadcastOff));
} else {
off = sec.getBinaryBlockRDDHandleForVariable(rddOffVar);
out = in.join(off.flatMapToPair(new ReplicateVectorFunction(!rows, numRep))).flatMapToPair(new RDDRemoveEmptyFunction(rows, maxDim, brlen, bclen));
}
out = RDDAggregateUtils.mergeByKey(out, false);
//store output rdd handle
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), rddInVar);
if (!_bRmEmptyBC)
sec.addLineageRDD(output.getName(), rddOffVar);
else
sec.addLineageBroadcast(output.getName(), rddOffVar);
//update output statistics (required for correctness)
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
mcOut.set(rows ? maxDim : mcIn.getRows(), rows ? mcIn.getCols() : maxDim, (int) brlen, (int) bclen, mcIn.getNonZeros());
} else //special case: empty output (ensure valid dims)
{
MatrixBlock out = new MatrixBlock(rows ? 1 : (int) mcIn.getRows(), rows ? (int) mcIn.getCols() : 1, true);
sec.setMatrixOutput(output.getName(), out);
}
} else if (opcode.equalsIgnoreCase("replace")) {
//get input rdd handle
String rddVar = params.get("target");
JavaPairRDD<MatrixIndexes, MatrixBlock> in1 = sec.getBinaryBlockRDDHandleForVariable(rddVar);
MatrixCharacteristics mcIn = sec.getMatrixCharacteristics(rddVar);
//execute replace operation
double pattern = Double.parseDouble(params.get("pattern"));
double replacement = Double.parseDouble(params.get("replacement"));
JavaPairRDD<MatrixIndexes, MatrixBlock> out = in1.mapValues(new RDDReplaceFunction(pattern, replacement));
//store output rdd handle
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), rddVar);
//update output statistics (required for correctness)
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
mcOut.set(mcIn.getRows(), mcIn.getCols(), mcIn.getRowsPerBlock(), mcIn.getColsPerBlock(), (pattern != 0 && replacement != 0) ? mcIn.getNonZeros() : -1);
} else if (opcode.equalsIgnoreCase("rexpand")) {
String rddInVar = params.get("target");
//get input rdd handle
JavaPairRDD<MatrixIndexes, MatrixBlock> in = sec.getBinaryBlockRDDHandleForVariable(rddInVar);
MatrixCharacteristics mcIn = sec.getMatrixCharacteristics(rddInVar);
double maxVal = Double.parseDouble(params.get("max"));
long lmaxVal = UtilFunctions.toLong(maxVal);
boolean dirRows = params.get("dir").equals("rows");
boolean cast = Boolean.parseBoolean(params.get("cast"));
boolean ignore = Boolean.parseBoolean(params.get("ignore"));
long brlen = mcIn.getRowsPerBlock();
long bclen = mcIn.getColsPerBlock();
//repartition input vector for higher degree of parallelism
//(avoid scenarios where few input partitions create huge outputs)
MatrixCharacteristics mcTmp = new MatrixCharacteristics(dirRows ? lmaxVal : mcIn.getRows(), dirRows ? mcIn.getRows() : lmaxVal, (int) brlen, (int) bclen, mcIn.getRows());
int numParts = (int) Math.min(SparkUtils.getNumPreferredPartitions(mcTmp, in), mcIn.getNumBlocks());
if (numParts > in.getNumPartitions() * 2)
in = in.repartition(numParts);
//execute rexpand rows/cols operation (no shuffle required because outputs are
//block-aligned with the input, i.e., one input block generates n output blocks)
JavaPairRDD<MatrixIndexes, MatrixBlock> out = in.flatMapToPair(new RDDRExpandFunction(maxVal, dirRows, cast, ignore, brlen, bclen));
//store output rdd handle
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), rddInVar);
//update output statistics (required for correctness)
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
mcOut.set(dirRows ? lmaxVal : mcIn.getRows(), dirRows ? mcIn.getRows() : lmaxVal, (int) brlen, (int) bclen, -1);
} else if (opcode.equalsIgnoreCase("transform")) {
// perform data transform on Spark
try {
DataTransform.spDataTransform(this, new FrameObject[] { sec.getFrameObject(params.get("target")) }, new MatrixObject[] { sec.getMatrixObject(output.getName()) }, ec);
} catch (Exception e) {
throw new DMLRuntimeException(e);
}
} else if (opcode.equalsIgnoreCase("transformapply")) {
//get input RDD and meta data
FrameObject fo = sec.getFrameObject(params.get("target"));
JavaPairRDD<Long, FrameBlock> in = (JavaPairRDD<Long, FrameBlock>) sec.getRDDHandleForFrameObject(fo, InputInfo.BinaryBlockInputInfo);
FrameBlock meta = sec.getFrameInput(params.get("meta"));
MatrixCharacteristics mcIn = sec.getMatrixCharacteristics(params.get("target"));
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
String[] colnames = !TfMetaUtils.isIDSpecification(params.get("spec")) ? in.lookup(1L).get(0).getColumnNames() : null;
//compute omit offset map for block shifts
TfOffsetMap omap = null;
if (TfMetaUtils.containsOmitSpec(params.get("spec"), colnames)) {
omap = new TfOffsetMap(SparkUtils.toIndexedLong(in.mapToPair(new RDDTransformApplyOffsetFunction(params.get("spec"), colnames)).collect()));
}
//create encoder broadcast (avoiding replication per task)
Encoder encoder = EncoderFactory.createEncoder(params.get("spec"), colnames, fo.getSchema(), (int) fo.getNumColumns(), meta);
mcOut.setDimension(mcIn.getRows() - ((omap != null) ? omap.getNumRmRows() : 0), encoder.getNumCols());
Broadcast<Encoder> bmeta = sec.getSparkContext().broadcast(encoder);
Broadcast<TfOffsetMap> bomap = (omap != null) ? sec.getSparkContext().broadcast(omap) : null;
//execute transform apply
JavaPairRDD<Long, FrameBlock> tmp = in.mapToPair(new RDDTransformApplyFunction(bmeta, bomap));
JavaPairRDD<MatrixIndexes, MatrixBlock> out = FrameRDDConverterUtils.binaryBlockToMatrixBlock(tmp, mcOut, mcOut);
//set output and maintain lineage/output characteristics
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), params.get("target"));
ec.releaseFrameInput(params.get("meta"));
} else if (opcode.equalsIgnoreCase("transformdecode")) {
//get input RDD and meta data
JavaPairRDD<MatrixIndexes, MatrixBlock> in = sec.getBinaryBlockRDDHandleForVariable(params.get("target"));
MatrixCharacteristics mc = sec.getMatrixCharacteristics(params.get("target"));
FrameBlock meta = sec.getFrameInput(params.get("meta"));
String[] colnames = meta.getColumnNames();
//reblock if necessary (clen > bclen)
if (mc.getCols() > mc.getNumColBlocks()) {
in = in.mapToPair(new RDDTransformDecodeExpandFunction((int) mc.getCols(), mc.getColsPerBlock()));
in = RDDAggregateUtils.mergeByKey(in, false);
}
//construct decoder and decode individual matrix blocks
Decoder decoder = DecoderFactory.createDecoder(params.get("spec"), colnames, null, meta);
JavaPairRDD<Long, FrameBlock> out = in.mapToPair(new RDDTransformDecodeFunction(decoder, mc.getRowsPerBlock()));
//set output and maintain lineage/output characteristics
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), params.get("target"));
ec.releaseFrameInput(params.get("meta"));
sec.getMatrixCharacteristics(output.getName()).set(mc.getRows(), meta.getNumColumns(), mc.getRowsPerBlock(), mc.getColsPerBlock(), -1);
sec.getFrameObject(output.getName()).setSchema(decoder.getSchema());
} else {
throw new DMLRuntimeException("Unknown parameterized builtin opcode: " + opcode);
}
}
use of org.apache.sysml.runtime.controlprogram.caching.FrameObject in project incubator-systemml by apache.
the class PreparedScript method setFrame.
/**
* Binds a frame object to a registered input variable.
* If reuse requested, then the input is guaranteed to be
* preserved over multiple <code>executeScript</code> calls.
*
* @param varname input variable name
* @param frame frame represented as a FrameBlock
* @param reuse if {@code true}, preserve value over multiple {@code executeScript} calls
* @throws DMLException if DMLException occurs
*/
public void setFrame(String varname, FrameBlock frame, boolean reuse) throws DMLException {
if (!_inVarnames.contains(varname))
throw new DMLException("Unspecified input variable: " + varname);
//create new frame object
MatrixCharacteristics mc = new MatrixCharacteristics(frame.getNumRows(), frame.getNumColumns(), -1, -1);
MatrixFormatMetaData meta = new MatrixFormatMetaData(mc, OutputInfo.BinaryCellOutputInfo, InputInfo.BinaryCellInputInfo);
FrameObject fo = new FrameObject(OptimizerUtils.getUniqueTempFileName(), meta);
fo.acquireModify(frame);
fo.release();
//put create matrix wrapper into symbol table
_vars.put(varname, fo);
if (reuse) {
//prevent cleanup
fo.enableCleanup(false);
_inVarReuse.put(varname, fo);
}
}
use of org.apache.sysml.runtime.controlprogram.caching.FrameObject in project incubator-systemml by apache.
the class CSVReblockSPInstruction method processInstruction.
@Override
public void processInstruction(ExecutionContext ec) throws DMLRuntimeException {
SparkExecutionContext sec = (SparkExecutionContext) ec;
//sanity check input info
CacheableData<?> obj = sec.getCacheableData(input1.getName());
MatrixFormatMetaData iimd = (MatrixFormatMetaData) obj.getMetaData();
if (iimd.getInputInfo() != InputInfo.CSVInputInfo) {
throw new DMLRuntimeException("The given InputInfo is not implemented for " + "CSVReblockSPInstruction:" + iimd.getInputInfo());
}
//set output characteristics
MatrixCharacteristics mcIn = sec.getMatrixCharacteristics(input1.getName());
MatrixCharacteristics mcOut = sec.getMatrixCharacteristics(output.getName());
mcOut.set(mcIn.getRows(), mcIn.getCols(), _brlen, _bclen);
//check for in-memory reblock (w/ lazy spark context, potential for latency reduction)
if (Recompiler.checkCPReblock(sec, input1.getName())) {
if (input1.getDataType() == DataType.MATRIX)
Recompiler.executeInMemoryMatrixReblock(sec, input1.getName(), output.getName());
else if (input1.getDataType() == DataType.FRAME)
Recompiler.executeInMemoryFrameReblock(sec, input1.getName(), output.getName());
return;
}
//check jdk version (prevent double.parseDouble contention on <jdk8)
sec.checkAndRaiseValidationWarningJDKVersion();
//execute matrix/frame csvreblock
JavaPairRDD<?, ?> out = null;
if (input1.getDataType() == DataType.MATRIX)
out = processMatrixCSVReblockInstruction(sec, mcOut);
else if (input1.getDataType() == DataType.FRAME)
out = processFrameCSVReblockInstruction(sec, mcOut, ((FrameObject) obj).getSchema());
// put output RDD handle into symbol table
sec.setRDDHandleForVariable(output.getName(), out);
sec.addLineageRDD(output.getName(), input1.getName());
}
use of org.apache.sysml.runtime.controlprogram.caching.FrameObject in project incubator-systemml by apache.
the class MLContextConversionUtil method binaryBlocksToFrameObject.
/**
* Convert a {@code JavaPairRDD<Long, FrameBlock>} to a {@code FrameObject}.
*
* @param variableName
* name of the variable associated with the frame
* @param binaryBlocks
* {@code JavaPairRDD<Long, FrameBlock>} representation of a
* binary-block frame
* @param frameMetadata
* the frame metadata
* @return the {@code JavaPairRDD<Long, FrameBlock>} frame converted to a
* {@code FrameObject}
*/
public static FrameObject binaryBlocksToFrameObject(String variableName, JavaPairRDD<Long, FrameBlock> binaryBlocks, FrameMetadata frameMetadata) {
MatrixCharacteristics mc = (frameMetadata != null) ? frameMetadata.asMatrixCharacteristics() : new MatrixCharacteristics();
FrameObject frameObject = new FrameObject(OptimizerUtils.getUniqueTempFileName(), new MatrixFormatMetaData(mc, OutputInfo.BinaryBlockOutputInfo, InputInfo.BinaryBlockInputInfo), frameMetadata.getFrameSchema().getSchema().toArray(new ValueType[0]));
frameObject.setRDDHandle(new RDDObject(binaryBlocks, variableName));
return frameObject;
}
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