Mercurial > repos > rliterman > csp2
view CSP2/CSP2_env/env-d9b9114564458d9d-741b3de822f2aaca6c6caa4325c4afce/opt/bbmap-39.01-1/current/bloom/KmerCount4.java @ 68:5028fdace37b
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author | jpayne |
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date | Tue, 18 Mar 2025 16:23:26 -0400 |
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package bloom; import java.util.ArrayList; import java.util.Locale; import dna.AminoAcid; import fileIO.FileFormat; import shared.Timer; import stream.ConcurrentReadInputStream; import stream.FastaReadInputStream; import stream.Read; import structures.ListNum; /** * @author Brian Bushnell * @date Jul 5, 2012 * */ public class KmerCount4 extends KmerCountAbstract { public static void main(String[] args){ Timer t=new Timer(); String fname1=args[0]; String fname2=(args.length>3 || args[1].contains(".") ? args[1] : null); int k=14; int cbits=16; int gap=0; for(int i=(fname2==null ? 1 : 2); i<args.length; i++){ final String arg=args[i]; final String[] split=arg.split("="); String a=split[0].toLowerCase(); String b=split.length>1 ? split[1] : null; if(a.equals("k") || a.equals("kmer")){ k=Integer.parseInt(b); }else if(a.startsWith("cbits") || a.startsWith("cellbits")){ cbits=Integer.parseInt(b); }else if(a.startsWith("gap")){ gap=Integer.parseInt(b); }else{ throw new RuntimeException("Unknown parameter "+args[i]); } } KCountArray2 count=null; if(fileIO.FileFormat.hasFastaExtension(fname1)){ assert(!FastaReadInputStream.SPLIT_READS); FastaReadInputStream.MIN_READ_LEN=k; } if(gap==0){ count=count(fname1, fname2, k, cbits, true); }else{ count=countFastqSplit(fname1, fname2, (k+1)/2, k/2, gap, cbits, true, null); } t.stop(); System.out.println("Finished counting; time = "+t); printStatistics(count); } public static void printStatistics(KCountArray2 count){ long[] freq=count.transformToFrequency(); // System.out.println(count+"\n"); // System.out.println(Arrays.toString(freq)+"\n"); long sum=sum(freq); System.out.println("Kmer fraction:"); int lim1=8, lim2=16; for(int i=0; i<lim1; i++){ String prefix=i+""; while(prefix.length()<8){prefix=prefix+" ";} System.out.println(prefix+"\t"+String.format(Locale.ROOT, "%.3f%% ",(100l*freq[i]/(double)sum))+"\t"+freq[i]); } while(lim1<=freq.length){ int x=0; for(int i=lim1; i<lim2; i++){ x+=freq[i]; } String prefix=lim1+"-"+(lim2-1); if(lim2>=freq.length){prefix=lim1+"+";} while(prefix.length()<8){prefix=prefix+" ";} System.out.println(prefix+"\t"+String.format(Locale.ROOT, "%.3f%% ",(100l*x/(double)sum))+"\t"+x); lim1*=2; lim2=min(lim2*2, freq.length); } long sum2=sum-freq[0]; long x=freq[1]; System.out.println(); System.out.println("Keys Counted: \t \t"+keysCounted); System.out.println("Unique: \t \t"+sum2); System.out.println("Avg Sites/Key: \t \t"+String.format(Locale.ROOT, "%.3f ",(keysCounted*1d/sum2))); System.out.println(); System.out.println("Singleton: \t"+String.format(Locale.ROOT, "%.3f%% ",(100l*x/(double)sum2))+"\t"+x); x=sum2-x; System.out.println("Useful: \t"+String.format(Locale.ROOT, "%.3f%% ",(100l*x/(double)sum2))+"\t"+x); } public static KCountArray2 count(String reads1, String reads2, int k, int cbits, boolean rcomp){ return count(reads1, reads2, k, cbits, rcomp, null); } public static KCountArray2 count(String reads1, String reads2, int k, int cbits, boolean rcomp, KCountArray2 count){ assert(k>=1 && k<20); final int kbits=2*k; final long mask=(kbits>63 ? -1L : ~((-1L)<<kbits)); if(count==null){ final long cells=1L<<kbits; if(verbose){System.err.println("k="+k+", kbits="+kbits+", cells="+cells+", mask="+Long.toHexString(mask));} count=new KCountArray2(cells, cbits); } final ConcurrentReadInputStream cris; { FileFormat ff1=FileFormat.testInput(reads1, FileFormat.FASTQ, null, true, true); FileFormat ff2=FileFormat.testInput(reads2, FileFormat.FASTQ, null, true, true); cris=ConcurrentReadInputStream.getReadInputStream(maxReads, true, ff1, ff2); cris.start(); //4567 } assert(cris!=null) : reads1; System.err.println("Started cris"); boolean paired=cris.paired(); if(verbose){System.err.println("Paired: "+paired);} ListNum<Read> ln=cris.nextList(); ArrayList<Read> reads=(ln!=null ? ln.list : null); if(reads!=null && !reads.isEmpty()){ Read r=reads.get(0); assert(paired==(r.mate!=null)); } while(ln!=null && reads!=null && reads.size()>0){//ln!=null prevents a compiler potential null access warning //System.err.println("reads.size()="+reads.size()); for(Read r : reads){ readsProcessed++; addRead(r, count, k, mask, rcomp); if(r.mate!=null){ addRead(r.mate, count, k, mask, rcomp); } } //System.err.println("returning list"); cris.returnList(ln); //System.err.println("fetching list"); ln=cris.nextList(); reads=(ln!=null ? ln.list : null); } if(verbose){System.err.println("Finished reading");} cris.returnList(ln); if(verbose){System.err.println("Returned list");} cris.close(); if(verbose){System.err.println("Closed stream");} if(verbose){System.err.println("Processed "+readsProcessed+" reads.");} return count; } public static KCountArray2 countFastqSplit(String reads1, String reads2, int k1, int k2, int gap, int cbits, boolean rcomp, KCountArray2 count){ assert(k1+k2>=1 && k1+k2<20); assert(gap>=0); final int kbits1=2*k1; final int kbits2=2*k2; final long mask1=~((-1L)<<(kbits1)); final long mask2=~((-1L)<<(kbits2)); if(count==null){ final long cells=1L<<(kbits1+kbits2); if(verbose){System.err.println("k1="+k1+", k2="+k2+", kbits1="+kbits1+", kbits2="+kbits2+", cells="+cells+ ", mask1="+Long.toHexString(mask1)+", mask2="+Long.toHexString(mask2));} count=new KCountArray2(cells, cbits, gap); } assert(count.gap==gap); final ConcurrentReadInputStream cris; { FileFormat ff1=FileFormat.testInput(reads1, FileFormat.FASTQ, null, true, true); FileFormat ff2=FileFormat.testInput(reads2, FileFormat.FASTQ, null, true, true); cris=ConcurrentReadInputStream.getReadInputStream(maxReads, true, ff1, ff2); cris.start(); //4567 } assert(cris!=null) : reads1; System.err.println("Started cris"); boolean paired=cris.paired(); if(verbose){System.err.println("Paired: "+paired);} ListNum<Read> ln=cris.nextList(); ArrayList<Read> reads=(ln!=null ? ln.list : null); if(reads!=null && !reads.isEmpty()){ Read r=reads.get(0); assert(paired==(r.mate!=null)); } while(ln!=null && reads!=null && reads.size()>0){//ln!=null prevents a compiler potential null access warning //System.err.println("reads.size()="+reads.size()); for(Read r : reads){ readsProcessed++; addReadSplit(r, count, k1, k2, mask1, mask2, gap, rcomp); if(r.mate!=null){ addReadSplit(r.mate, count, k1, k2, mask1, mask2, gap, rcomp); } } //System.err.println("returning list"); cris.returnList(ln); //System.err.println("fetching list"); ln=cris.nextList(); reads=(ln!=null ? ln.list : null); } if(verbose){System.err.println("Finished reading");} cris.returnList(ln); if(verbose){System.err.println("Returned list");} cris.close(); if(verbose){System.err.println("Closed stream");} if(verbose){System.err.println("Processed "+readsProcessed+" reads.");} return count; } public static void addRead(final Read r, final KCountArray2 count, final int k, final long mask, boolean rcomp){ int len=0; long kmer=0; byte[] bases=r.bases; byte[] quals=r.quality; for(int i=0; i<bases.length; i++){ byte b=bases[i]; int x=AminoAcid.baseToNumber[b]; if(x<0 || (quals!=null && quals[i]<minQuality)){ len=0; kmer=0; }else{ kmer=((kmer<<2)|x)&mask; len++; if(len>=k){ keysCounted++; // System.out.print("Incrementing "+Long.toHexString(kmer)+": "+count.read(kmer)); count.increment(kmer, 1); // System.out.println(" -> "+count.read(kmer)); // System.out.print("Incrementing array for "+Long.toHexString(kmer)+": "+array[(int)kmer]); // array[(int)kmer]++; // System.out.println(" -> "+array[(int)kmer]+"\n"); // assert(array[(int)kmer]==count.read(kmer) || array[(int)kmer]>3); } } } if(rcomp){ r.reverseComplement(); addRead(r, count, k, mask, false); } } public static void addReadSplit(final Read r, final KCountArray2 count, final int k1, final int k2, final long mask1, final long mask2, final int gap, boolean rcomp){ int len=0; int shift=k2*2; long kmer1=0; long kmer2=0; byte[] bases=r.bases; byte[] quals=r.quality; assert(kmer1>=kmer2); // assert(false) : k1+", "+k2+", "+mask1+", "+mask2+", "+gap; for(int i=0, j=i+k1+gap; j<bases.length; i++, j++){ int x1=AminoAcid.baseToNumber[bases[i]]; int x2=AminoAcid.baseToNumber[bases[j]]; if(x1<0 || x2<0 || (quals!=null && (quals[i]<minQuality || quals[j]<minQuality))){ len=0; kmer1=0; kmer2=0; }else{ kmer1=((kmer1<<2)|x1)&mask1; kmer2=((kmer2<<2)|x2)&mask2; len++; if(len>=k1){ keysCounted++; // System.out.print("Incrementing "+Long.toHexString(kmer)+": "+count.read(kmer)); long key=(kmer1<<shift)|kmer2; // System.err.println(Long.toHexString(key)); count.increment(key, 1); // System.out.println(" -> "+count.read(kmer)); // System.out.print("Incrementing array for "+Long.toHexString(kmer)+": "+array[(int)kmer]); // array[(int)kmer]++; // System.out.println(" -> "+array[(int)kmer]+"\n"); // assert(array[(int)kmer]==count.read(kmer) || array[(int)kmer]>3); } } } if(rcomp){ r.reverseComplement(); addReadSplit(r, count, k1, k2, mask1, mask2, gap, false); } } public static void addReadSplit(final byte[] bases, final KCountArray2 count, final int k1, final int k2, final long mask1, final long mask2, final int gap, boolean rcomp){ int len=0; int shift=k2*2; long kmer1=0; long kmer2=0; byte[] quals=null; assert(kmer1>=kmer2); // assert(false) : k1+", "+k2+", "+mask1+", "+mask2+", "+gap; for(int i=0, j=i+k1+gap; j<bases.length; i++, j++){ int x1=AminoAcid.baseToNumber[bases[i]]; int x2=AminoAcid.baseToNumber[bases[j]]; if(x1<0 || x2<0 || (quals!=null && (quals[i]<minQuality || quals[j]<minQuality))){ len=0; kmer1=0; kmer2=0; }else{ kmer1=((kmer1<<2)|x1)&mask1; kmer2=((kmer2<<2)|x2)&mask2; len++; if(len>=k1){ keysCounted++; // System.out.print("Incrementing "+Long.toHexString(kmer)+": "+count.read(kmer)); long key=(kmer1<<shift)|kmer2; System.out.println(Long.toHexString(kmer1)); System.out.println(Long.toHexString(kmer2)); System.out.println(Long.toHexString(key)); count.increment(key, 1); // System.out.println(" -> "+count.read(kmer)); // System.out.print("Incrementing array for "+Long.toHexString(kmer)+": "+array[(int)kmer]); // array[(int)kmer]++; // System.out.println(" -> "+array[(int)kmer]+"\n"); // assert(array[(int)kmer]==count.read(kmer) || array[(int)kmer]>3); } } } if(rcomp){ AminoAcid.reverseComplementBasesInPlace(bases); addReadSplit(bases, count, k1, k2, mask1, mask2, gap, false); } } }