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How to use uniq method of venom Package

Best Venom code snippet using venom.uniq

xtract.go

Source:xtract.go

...160Validation161  -verify          Report XML data integrity problems162Summary163  -outline         Display outline of XML structure164  -synopsis        Display count of unique XML paths165Documentation166  -help            Print this document167  -examples        Examples of EDirect and xtract usage168  -version         Print version number169Notes170  String constraints use case-insensitive comparisons.171  Numeric constraints and selection arguments use integer values.172  -num and -len selections are synonyms for Object Count (#) and Item Length (%).173Examples174  -pattern DocumentSummary -element Id -first Name Title175  -pattern "PubmedArticleSet/*" -block Author -sep " " -element Initials,LastName176  -pattern PubmedArticle -block MeshHeading -if "@MajorTopicYN" -equals Y -sep " / " -element DescriptorName,QualifierName177  -pattern GenomicInfoType -element ChrAccVer ChrStart ChrStop178  -pattern Taxon -block "*/Taxon" -unless Rank -equals "no rank" -tab "\n" -element Rank,ScientificName179  -pattern Entrezgene -block "**/Gene-commentary"180  -block INSDReference -position 2181  -if Author -and Title182  -if "#Author" -lt 6 -and "%Title" -le 70183  -if DateCreated/Year -gt 2005184  -if ChrStop -lt ChrStart185  -if CommonName -contains mouse186  -if "&ABST" -starts-with "Transposable elements"187  -if MapLocation -element MapLocation -else -lbl "\-"188  -min ChrStart,ChrStop189  -max ExonCount190  -inc @aaPosition -element @residue191  -1-based ChrStart192  -insd CDS gene product protein_id translation193  -insd complete mat_peptide "%peptide" product peptide194  -filter ExpXml decode content195  -filter LocationHist remove object196`197const xtractInternal = `198ReadBlocks -> SplitPattern => StreamTokens => ParseXML => ProcessQuery -> MergeResults199Performance Default Overrides200  -proc     Number of CPU processors used201  -cons     Ratio of parsers to processors202  -serv     Concurrent parser instances203  -chan     Communication channel depth204  -heap     Order restoration heap size205  -farm     Node allocation buffer length206  -gogc     Garbage collection tuning knob207Debugging208  -debug    Display run-time parameter summary209  -empty    Flag records with no output210  -index    Print record index numbers211  -stats    Show processing time for each record212  -timer    Report processing duration and rate213  -trial    Optimize -proc value, requires -input214Internal Component Performance215  -chunk    ReadBlocks216  -split    ReadBlocks -> SplitPattern217  -drain    ReadBlocks -> SplitPattern -> ConcurrencyChannel218  -token    ReadBlocks -> StreamTokens219Documentation220  -keys     Keyboard navigation shortcuts221  -unix     Common Unix commands222Sample File Download223  ftp-cp ftp.ncbi.nlm.nih.gov /entrez/entrezdirect/samples carotene.xml.zip224  unzip carotene.xml.zip225  rm carotene.xml.zip226Performance Tuning Script227  XtractTrials() {228    echo -e "<Trials>"229    for tries in {1..5}230    do231      xtract -debug -input "$1" -proc "$2" -pattern PubmedArticle -element LastName232    done233    echo -e "</Trials>"234  }235  for proc in {1..8}236  do237    XtractTrials "carotene.xml" "$proc" |238    xtract -pattern Trials -lbl "$proc" -avg Rate -dev Rate239  done240Processor Titration Results241  1    10455    124242  2    18674    684243  3    23654    1371244  4    30527    521245  5    35132    2349246  6    40289    907247  7    45369    1370248  8    47397    1141249Execution Profiling250  xtract -profile -input carotene.xml -pattern PubmedArticle -element LastName251  go tool pprof --pdf ./xtract ./cpu.pprof > ./callgraph.pdf252`253const xtractExamples = `254Author Frequency255  esearch -db pubmed -query "rattlesnake phospholipase" |256  efetch -format docsum |257  xtract -pattern DocumentSummary -sep "\n" -element Name |258  sort-uniq-count-rank259  39    Marangoni S260  31    Toyama MH261  26    Soares AM262  25    Bon C263  ...264Publications265  efetch -db pubmed -id 6271474,5685784,4882854,6243420 -format xml |266  xtract -pattern PubmedArticle -element MedlineCitation/PMID "#Author" \267    -block Author -position first -sep " " -element Initials,LastName \268    -block Article -element ArticleTitle269  6271474    5    MJ Casadaban     Tn3: transposition and control.270  5685784    2    RK Mortimer      Suppressors and suppressible mutations in yeast.271  4882854    2    ED Garber        Proteins and enzymes as taxonomic tools.272  6243420    1    NR Cozzarelli    DNA gyrase and the supercoiling of DNA.273Formatted Authors274  efetch -db pubmed -id 1413997,6301692,781293 -format xml |275  xtract -pattern PubmedArticle -element MedlineCitation/PMID \276    -block DateCreated -sep "-" -element Year,Month,Day \277    -block Author -sep " " -tab "" \278      -element "&COM" Initials,LastName -COM "(, )"279  1413997    1992-11-25    RK Mortimer, CR Contopoulou, JS King280  6301692    1983-06-17    MA Krasnow, NR Cozzarelli281  781293     1976-10-02    MJ Casadaban282Medical Subject Headings283  efetch -db pubmed -id 6092233,2539356,1937004 -format xml |284  xtract -pattern PubmedArticle -element MedlineCitation/PMID \285    -block MeshHeading \286      -subset DescriptorName -pfc "\n" -sep "|" -element @MajorTopicYN,DescriptorName \287      -subset QualifierName -pfc " / " -sep "|" -element @MajorTopicYN,QualifierName |288  sed -e 's/N|//g' -e 's/Y|/*/g'289  6092233290  Base Sequence291  DNA Restriction Enzymes292  DNA, Fungal / genetics / *isolation & purification293  *Genes, Fungal294  ...295Peptide Sequences296  esearch -db protein -query "conotoxin AND mat_peptide [FKEY]" |297  efetch -format gpc |298  xtract -insd complete mat_peptide "%peptide" product peptide |299  grep -i conotoxin | sort -t $'\t' -u -k 2,2n | head -n 8300  ADB43131.1    15    conotoxin Cal 1b     LCCKRHHGCHPCGRT301  AIC77099.1    16    conotoxin Im1.2      GCCSHPACNVNNPHIC302  AIC77105.1    17    conotoxin Lt1.4      GCCSHPACDVNNPDICG303  AIC77103.1    18    conotoxin Lt1.2      PRCCSNPACNANHAEICG304  AIC77083.1    20    conotoxin Bt14.6     KDCTYCMHSSCSMMYEKCRP305  AIC77085.1    21    conotoxin Bt14.8     NECDNCMRSFCSMIYEKCRLK306  AIC77093.1    22    conotoxin Bt14.16    GDCKPCMHPDCRFNPGRCRPRE307  AIC77154.1    23    conotoxin Bt14.19    VREKDCPPHPVPGMHKCVCLKTC308Chromosome Locations309  esearch -db gene -query "calmodulin [PFN] AND mammalia [ORGN]" |310  efetch -format docsum |311  xtract -pattern DocumentSummary -MAP "(-)" -MAP MapLocation \312    -element Id Name "&MAP" ScientificName313  801       CALM1    14q32.11         Homo sapiens314  808       CALM3    19q13.2-q13.3    Homo sapiens315  805       CALM2    2p21             Homo sapiens316  24242     Calm1    6q31-q32         Rattus norvegicus317  12313     Calm1    12 E             Mus musculus318  326597    CALM     -                Bos taurus319  50663     Calm2    6q11-q12         Rattus norvegicus320  24244     Calm3    1q22             Rattus norvegicus321  12315     Calm3    7 9.15 cM        Mus musculus322  12314     Calm2    17 E4            Mus musculus323  617095    CALM1    -                Bos taurus324  396838    CALM3    6                Sus scrofa325  ...326Gene Regions327  esearch -db gene -query "DDT [GENE] AND mouse [ORGN]" |328  efetch -format docsum |329  xtract -pattern GenomicInfoType -element ChrAccVer ChrStart ChrStop |330  xargs -n 3 sh -c 'efetch -db nuccore -format gb \331    -id "$0" -chr_start "$1" -chr_stop "$2"'332  LOCUS       NC_000076               2142 bp    DNA     linear   CON 09-FEB-2015333  DEFINITION  Mus musculus strain C57BL/6J chromosome 10, GRCm38.p3 C57BL/6J.334  ACCESSION   NC_000076 REGION: complement(75771233..75773374) GPC_000000783335  VERSION     NC_000076.6  GI:372099100336  ...337  FEATURES             Location/Qualifiers338       source          1..2142339                       /organism="Mus musculus"340                       /mol_type="genomic DNA"341                       /strain="C57BL/6J"342                       /db_xref="taxon:10090"343                       /chromosome="10"344       gene            1..2142345                       /gene="Ddt"346       mRNA            join(1..159,462..637,1869..2142)347                       /gene="Ddt"348                       /product="D-dopachrome tautomerase"349                       /transcript_id="NM_010027.1"350       CDS             join(52..159,462..637,1869..1941)351                       /gene="Ddt"352                       /codon_start=1353                       /product="D-dopachrome decarboxylase"354                       /protein_id="NP_034157.1"355                       /translation="MPFVELETNLPASRIPAGLENRLCAATATILDKPEDRVSVTIRP356                       GMTLLMNKSTEPCAHLLVSSIGVVGTAEQNRTHSASFFKFLTEELSLDQDRIVIRFFP357                       ...358Taxonomic Names359  esearch -db taxonomy -query "txid10090 [SBTR] OR camel [COMN]" |360  efetch -format docsum |361  xtract -pattern DocumentSummary -if CommonName \362    -element Id ScientificName CommonName363  57486    Mus musculus molossinus    Japanese wild mouse364  39442    Mus musculus musculus      eastern European house mouse365  35531    Mus musculus bactrianus    southwestern Asian house mouse366  10092    Mus musculus domesticus    western European house mouse367  10091    Mus musculus castaneus     southeastern Asian house mouse368  10090    Mus musculus               house mouse369  9838     Camelus dromedarius        Arabian camel370  9837     Camelus bactrianus         Bactrian camel371Structural Similarity372  esearch -db structure -query "crotalus [ORGN] AND phospholipase A2" |373  elink -related |374  efilter -query "archaea [ORGN]" |375  efetch -format docsum |376  xtract -pattern DocumentSummary \377    -if PdbClass -equals Hydrolase \378      -element PdbAcc PdbDescr379  3VV2    Crystal Structure Of Complex Form Between S324a-subtilisin And Mutant Tkpro380  3VHQ    Crystal Structure Of The Ca6 Site Mutant Of Pro-Sa-Subtilisin381  2ZWP    Crystal Structure Of Ca3 Site Mutant Of Pro-S324a382  2ZWO    Crystal Structure Of Ca2 Site Mutant Of Pro-S324a383  ...384Multiple Links385  esearch -db pubmed -query "conotoxin AND dopamine [MAJR]" |386  elink -target protein -cmd neighbor |387  xtract -pattern LinkSet -if Link/Id -element IdList/Id Link/Id388  23624852    17105332389  14657161    27532980    27532978390  12944511    31542395391  11222635    144922602392Gene Comments393  esearch -db gene -query "rbcL [GENE] AND maize [ORGN]" |394  efetch -format xml |395  xtract -pattern Entrezgene -block "**/Gene-commentary" \396    -if Gene-commentary_type@value -equals genomic \397      -tab "\n" -element Gene-commentary_accession |398  sort | uniq399  NC_001666400  X86563401  Z11973402Vitamin Biosynthesis403  esearch -db pubmed -query "tomato lycopene cyclase" |404  elink -related |405  elink -target protein |406  efilter -organism mammals |407  efetch -format gpc |408  xtract -pattern INSDSeq -if INSDSeq_definition -contains carotene \409    -element INSDSeq_accession-version INSDSeq_definition410  NP_573480.1       beta,beta-carotene 9',10'-oxygenase [Mus musculus]411  NP_001156500.1    beta,beta-carotene 15,15'-dioxygenase isoform 2 [Mus musculus]412  NP_067461.2       beta,beta-carotene 15,15'-dioxygenase isoform 1 [Mus musculus]413  NP_001297121.1    beta-carotene oxygenase 2 [Mustela putorius furo]414  AAS20392.1        carotene-9',10'-monooxygenase [Mustela putorius furo]415Indexed Fields416  einfo -db pubmed |417  xtract -pattern Field \418    -if IsDate -equals Y -and IsHidden -equals N \419      -pfx "[" -sep "]\t" -element Name,FullName |420  sort -t $'\t' -k 2f421  [CDAT]    Date - Completion422  [CRDT]    Date - Create423  [EDAT]    Date - Entrez424  [MHDA]    Date - MeSH425  [MDAT]    Date - Modification426  [PDAT]    Date - Publication427Author Numbers428  esearch -db pubmed -query "conotoxin" |429  efetch -format xml |430  xtract -pattern PubmedArticle -num Author |431  sort-uniq-count -n |432  reorder-columns 2 1 |433  head -n 15 |434  xy-plot auth.png435  0     11436  1     193437  2     854438  3     844439  4     699440  5     588441  6     439442  7     291443  8     187444  9     124445  10    122446  11    58447  12    33448  13    18449  900 +450      |           ********451  800 +           *       **452      |          *          *453  700 +          *          ***454      |          *             **455  600 +         *                *456      |         *                ***457  500 +         *                   **458      |        *                      ***459  400 +       *                          **460      |       *                            *461  300 +       *                            ***462      |      *                                *463  200 +      *                                 ******464      |     *                                        *********465  100 +   **                                                  *466      |  *                                                     **********467    0 + *                                                                ******468        +---------+---------+---------+---------+---------+---------+---------+469        0         2         4         6         8        10        12        14470Record Counts471  echo "diphtheria measles pertussis polio tuberculosis" |472  xargs -n 1 sh -c 'esearch -db pubmed -query "$0 [MESH]" |473  efilter -days 365 -datetype PDAT |474  xtract -pattern ENTREZ_DIRECT -lbl "$0" -element Count'475  diphtheria      18476  measles         166477  pertussis       98478  polio           75479  tuberculosis    1386480Gene Products481  for sym in HBB DMD TTN ATP7B HFE BRCA2 CFTR PAH PRNP RAG1482  do483    esearch -db gene -query "$sym [GENE] AND human [ORGN]" |484    efilter -query "alive [PROP]" | efetch -format docsum |485    xtract -pattern GenomicInfoType \486      -element ChrAccVer ChrStart ChrStop |487    while read acc str stp488    do489      efetch -db nuccore -format gbc \490        -id "$acc" -chr_start "$str" -chr_stop "$stp" |491      xtract -insd CDS,mRNA INSDFeature_key "#INSDInterval" \492        gene "%transcription" "%translation" \493        product transcription translation |494      grep -i $'\t'"$sym"$'\t'495    done496  done497  NC_000011.10    mRNA    3     HBB    626      hemoglobin, beta                     ACATTTGCTT...498  NC_000011.10    CDS     3     HBB    147      hemoglobin subunit beta              MVHLTPEEKS...499  NC_000023.11    mRNA    78    DMD    13805    dystrophin, transcript variant X2    AGGAAGATGA...500  NC_000023.11    mRNA    77    DMD    13794    dystrophin, transcript variant X6    ACTTTCCCCC...501  NC_000023.11    mRNA    77    DMD    13800    dystrophin, transcript variant X5    ACTTTCCCCC...502  NC_000023.11    mRNA    77    DMD    13785    dystrophin, transcript variant X7    ACTTTCCCCC...503  NC_000023.11    mRNA    74    DMD    13593    dystrophin, transcript variant X8    ACTTTCCCCC...504  NC_000023.11    mRNA    75    DMD    13625    dystrophin, transcript variant X9    ACTTTCCCCC...505  ...506Genome Range507  esearch -db gene -query "Homo sapiens [ORGN] AND Y [CHR]" |508  efilter -status alive | efetch -format docsum |509  xtract -pattern DocumentSummary -NAME Name -DESC Description \510    -block GenomicInfoType -if ChrLoc -equals Y \511      -min ChrStart,ChrStop -element "&NAME" "&DESC" |512  sort -k 1,1n | cut -f 2- |513  between-two-genes ASMT IL3RA514  IL3RA           interleukin 3 receptor subunit alpha515  LOC101928032    uncharacterized LOC101928032516  LOC101928055    uncharacterized LOC101928055517  SLC25A6         solute carrier family 25 member 6518  LOC105373102    uncharacterized LOC105373102519  LINC00106       long intergenic non-protein coding RNA 106520  ASMTL-AS1       ASMTL antisense RNA 1521  ASMTL           acetylserotonin O-methyltransferase-like522  P2RY8           purinergic receptor P2Y8523  AKAP17A         A-kinase anchoring protein 17A524  ASMT            acetylserotonin O-methyltransferase525Amino Acid Substitutions526  ApplySNPs() {527    seq=""528    last=""529    while read rsid accn pos res530    do531      if [ "$accn" != "$last" ]532      then533        insd=$(efetch -db protein -id "$accn" -format gbc < /dev/null)534        seq=$(echo $insd | xtract -pattern INSDSeq -element INSDSeq_sequence)535        last=$accn536      fi537      pos=$((pos+1))538      pfx=""539      sfx=""540      echo ">rs$rsid [$accn $res@$pos]"541      if [ $pos -gt 1 ]542      then543        pfx=$(echo ${seq:0:$pos-1})544      fi545      if [ $pos -lt ${#seq} ]546      then547        sfx=$(echo ${seq:$pos})548      fi549      echo "$pfx$res$sfx" | fold -w 50550    done551  }552  esearch -db gene -query "OPN1MW [GENE] AND human [ORGN]" |553  elink -target snp | efetch -format xml |554  xtract -pattern Rs -RSID Rs@rsId \555    -block FxnSet -if @fxnClass -equals missense \556      -sep "." -element "&RSID" @protAcc,@protVer @aaPosition \557      -tab "\n" -element @residue |558  sort -t $'\t' -k 2,2 -k 3,3n -k 4,4 | uniq |559  ApplySNPs560  >rs104894915 [NP_000504.1 K@94]561  maqqwslqrlagrhpqdsyedstqssiftytnsnstrgpfegpnyhiapr562  wvyhltsvwmifvviasvftnglvlaatmkfkklrhplnwilvKlavadl563  aetviastisvvnqvygyfvlghpmcvlegytvslcgitglwslaiiswe564  ...565Amino Acid Composition566  #!/bin/bash -norc567  abbrev=( Ala Asx Cys Asp Glu Phe Gly His Ile \568           Xle Lys Leu Met Asn Pyl Pro Gln Arg \569           Ser Thr Sec Val Trp Xxx Tyr Glx )570  AminoAcidComp() {571    local count572    while read num lttr573    do574      idx=$(printf %i "'$lttr'")575      ofs=$((idx-97))576      count[$ofs]="$num"577    done <<< "$1"578    for i in {0..25}579    do580      echo -e "${abbrev[$i]}\t${count[$i]-0}"581    done |582    sort583  }584  AminoAcidJoin() {585    result=""586    while read acc seq gene587    do588      comp="$(echo "$seq" | tr A-Z a-z | sed 's/[^a-z]//g' | fold -w 1 | sort-uniq-count)"589      current=$(AminoAcidComp "$comp")590      current=$(echo -e "GENE\t$gene\n$current")591      if [ -n "$result" ]592      then593        result=$(join -t $'\t' <(echo "$result") <(echo "$current"))594      else595        result=$current596      fi597    done598    echo "$result" |599    grep -e "GENE" -e "[1-9]"600  }601  ids="NP_001172026,NP_000509,NP_004001,NP_001243779"602  efetch -db protein -id "$ids" -format gpc |603  xtract -insd INSDSeq_sequence CDS gene |604  AminoAcidJoin605  GENE    INS    HBB    DMD    TTN606  Ala     10     15     210    2084607  Arg     5      3      193    1640608  Asn     3      6      153    1111609  Asp     2      7      185    1720610  Cys     6      2      35     513611  Gln     7      3      301    942612  Glu     8      8      379    3193613  Gly     12     13     104    2066614  His     2      9      84     478615  Ile     2      0      165    2062616  Leu     20     18     438    2117617  Lys     2      11     282    2943618  Met     2      2      79     398619  Phe     3      8      77     908620  Pro     6      7      130    2517621  Ser     5      5      239    2463622  Thr     3      7      194    2546623  Trp     2      2      67     466624  Tyr     4      3      61     999625  Val     6      18     186    3184626Phrase Searching627  entrez-phrase-search -db pubmed -field WORD \628    selective serotonin reuptake inhibitor + monoamine oxidase inhibitor |629  efetch -format xml |630  xtract -pattern PubmedArticle -element MedlineCitation/PMID \631    -block Keyword -pfc "\n  " -element Keyword632  24657329633    Antidepressant634    Organic cation transporter 2635    Piperine636    Uptake 2637  24280122638    5-HIAA639    5-HT640    5-HTP641    5-hydroxyindoleacetic acid642    5-hydroxytryptophan643    ...644`645const pubMedArtSample = `646<PubmedArticle>647<MedlineCitation Owner="NLM" Status="MEDLINE">648<PMID Version="1">6301692</PMID>649<DateCreated>650<Year>1983</Year>651<Month>06</Month>652<Day>17</Day>653</DateCreated>654<DateCompleted>655<Year>1983</Year>656<Month>06</Month>657<Day>17</Day>658</DateCompleted>659<DateRevised>660<Year>2007</Year>661<Month>11</Month>662<Day>14</Day>663</DateRevised>664<Article PubModel="Print">665<Journal>666<ISSN IssnType="Print">0092-8674</ISSN>667<JournalIssue CitedMedium="Print">668<Volume>32</Volume>669<Issue>4</Issue>670<PubDate>671<Year>1983</Year>672<Month>Apr</Month>673</PubDate>674</JournalIssue>675<Title>Cell</Title>676<ISOAbbreviation>Cell</ISOAbbreviation>677</Journal>678<ArticleTitle>Site-specific relaxation and recombination by the Tn3 resolvase: recognition of the DNA path between oriented res sites.</ArticleTitle>679<Pagination>680<MedlinePgn>1313-24</MedlinePgn>681</Pagination>682<Abstract>683<AbstractText Label="RESULTS>We studied the dynamics of site-specific recombination by the resolvase encoded by the Escherichia coli transposon Tn3.684The pure enzyme recombined supercoiled plasmids containing two directly repeated recombination sites, called res sites.685Resolvase is the first strictly site-specific topoisomerase.686It relaxed only plasmids containing directly repeated res sites; substrates with zero, one or two inverted sites were inert.687Even when the proximity of res sites was ensured by catenation of plasmids with a single site, neither relaxation nor recombination occurred.688The two circular products of recombination were catenanes interlinked only once.689These properties of resolvase require that the path of the DNA between res sites be clearly defined and that strand exchange occur with a unique geometry.</AbstractText>690<AbstractText Label="SUMMARY">A model in which one subunit of a dimeric resolvase is bound at one res site,691while the other searches along adjacent DNA until it encounters the second site,692would account for the ability of resolvase to distinguish intramolecular from intermolecular sites,693to sense the relative orientation of sites and to produce singly interlinked catenanes.694Because resolvase is a type 1 topoisomerase, we infer that it makes the required duplex bDNA breaks of recombination one strand at a time.</AbstractText>695</Abstract>696<AuthorList CompleteYN="Y">697<Author ValidYN="Y">698<LastName>Krasnow</LastName>699<ForeName>Mark A</ForeName>700<Initials>MA</Initials>701</Author>702<Author ValidYN="Y">703<LastName>Cozzarelli</LastName>704<ForeName>Nicholas R</ForeName>705<Initials>NR</Initials>706</Author>707</AuthorList>708<Language>eng</Language>709<GrantList CompleteYN="Y">710<Grant>711<GrantID>GM-07281</GrantID>712<Acronym>GM</Acronym>713<Agency>NIGMS NIH HHS</Agency>714<Country>United States</Country>715</Grant>716</GrantList>717<PublicationTypeList>718<PublicationType UI="D016428">Journal Article</PublicationType>719<PublicationType UI="D013487">Research Support, U.S. Gov't, P.H.S.</PublicationType>720</PublicationTypeList>721</Article>722<MedlineJournalInfo>723<Country>UNITED STATES</Country>724<MedlineTA>Cell</MedlineTA>725<NlmUniqueID>0413066</NlmUniqueID>726<ISSNLinking>0092-8674</ISSNLinking>727</MedlineJournalInfo>728<ChemicalList>729<Chemical>730<RegistryNumber>0</RegistryNumber>731<NameOfSubstance UI="D004269">DNA, Bacterial</NameOfSubstance>732</Chemical>733<Chemical>734<RegistryNumber>0</RegistryNumber>735<NameOfSubstance UI="D004278">DNA, Superhelical</NameOfSubstance>736</Chemical>737<Chemical>738<RegistryNumber>0</RegistryNumber>739<NameOfSubstance UI="D004279">DNA, Viral</NameOfSubstance>740</Chemical>741<Chemical>742<RegistryNumber>EC 2.7.7.-</RegistryNumber>743<NameOfSubstance UI="D009713">Nucleotidyltransferases</NameOfSubstance>744</Chemical>745<Chemical>746<RegistryNumber>EC 2.7.7.-</RegistryNumber>747<NameOfSubstance UI="D019895">Transposases</NameOfSubstance>748</Chemical>749<Chemical>750<RegistryNumber>EC 5.99.1.2</RegistryNumber>751<NameOfSubstance UI="D004264">DNA Topoisomerases, Type I</NameOfSubstance>752</Chemical>753</ChemicalList>754<CitationSubset>IM</CitationSubset>755<MeshHeadingList>756<MeshHeading>757<DescriptorName MajorTopicYN="N" UI="D004264">DNA Topoisomerases, Type I</DescriptorName>758<QualifierName MajorTopicYN="N" UI="Q000378">metabolism</QualifierName>759</MeshHeading>760<MeshHeading>761<DescriptorName MajorTopicYN="N" UI="D004269">DNA, Bacterial</DescriptorName>762<QualifierName MajorTopicYN="Y" UI="Q000378">metabolism</QualifierName>763</MeshHeading>764<MeshHeading>765<DescriptorName MajorTopicYN="N" UI="D004278">DNA, Superhelical</DescriptorName>766<QualifierName MajorTopicYN="N" UI="Q000378">metabolism</QualifierName>767</MeshHeading>768<MeshHeading>769<DescriptorName MajorTopicYN="N" UI="D004279">DNA, Viral</DescriptorName>770<QualifierName MajorTopicYN="Y" UI="Q000378">metabolism</QualifierName>771</MeshHeading>772<MeshHeading>773<DescriptorName MajorTopicYN="N" UI="D008957">Models, Genetic</DescriptorName>774</MeshHeading>775<MeshHeading>776<DescriptorName MajorTopicYN="Y" UI="D009690">Nucleic Acid Conformation</DescriptorName>777</MeshHeading>778<MeshHeading>779<DescriptorName MajorTopicYN="N" UI="D009713">Nucleotidyltransferases</DescriptorName>780<QualifierName MajorTopicYN="N" UI="Q000302">isolation &amp; purification</QualifierName>781<QualifierName MajorTopicYN="Y" UI="Q000378">metabolism</QualifierName>782</MeshHeading>783<MeshHeading>784<DescriptorName MajorTopicYN="N" UI="D010957">Plasmids</DescriptorName>785</MeshHeading>786<MeshHeading>787<DescriptorName MajorTopicYN="Y" UI="D011995">Recombination, Genetic</DescriptorName>788</MeshHeading>789<MeshHeading>790<DescriptorName MajorTopicYN="N" UI="D012091">Repetitive Sequences, Nucleic Acid</DescriptorName>791</MeshHeading>792<MeshHeading>793<DescriptorName MajorTopicYN="N" UI="D013539">Simian virus 40</DescriptorName>794</MeshHeading>795<MeshHeading>796<DescriptorName MajorTopicYN="N" UI="D019895">Transposases</DescriptorName>797</MeshHeading>798</MeshHeadingList>799</MedlineCitation>800<PubmedData>801<History>802<PubMedPubDate PubStatus="pubmed">803<Year>1983</Year>804<Month>4</Month>805<Day>1</Day>806</PubMedPubDate>807<PubMedPubDate PubStatus="medline">808<Year>1983</Year>809<Month>4</Month>810<Day>1</Day>811<Hour>0</Hour>812<Minute>1</Minute>813</PubMedPubDate>814<PubMedPubDate PubStatus="entrez">815<Year>1983</Year>816<Month>4</Month>817<Day>1</Day>818<Hour>0</Hour>819<Minute>0</Minute>820</PubMedPubDate>821</History>822<PublicationStatus>ppublish</PublicationStatus>823<ArticleIdList>824<ArticleId IdType="pubmed">6301692</ArticleId>825<ArticleId IdType="pii">0092-8674(83)90312-4</ArticleId>826</ArticleIdList>827</PubmedData>828</PubmedArticle>829`830const insdSeqSample = `831<INSDSeq>832<INSDSeq_locus>AF480315_1</INSDSeq_locus>833<INSDSeq_length>67</INSDSeq_length>834<INSDSeq_moltype>AA</INSDSeq_moltype>835<INSDSeq_topology>linear</INSDSeq_topology>836<INSDSeq_division>INV</INSDSeq_division>837<INSDSeq_update-date>25-JUL-2016</INSDSeq_update-date>838<INSDSeq_create-date>31-DEC-2003</INSDSeq_create-date>839<INSDSeq_definition>four-loop conotoxin preproprotein, partial [Conus purpurascens]</INSDSeq_definition>840<INSDSeq_primary-accession>AAQ05867</INSDSeq_primary-accession>841<INSDSeq_accession-version>AAQ05867.1</INSDSeq_accession-version>842<INSDSeq_other-seqids>843<INSDSeqid>gb|AAQ05867.1|AF480315_1</INSDSeqid>844<INSDSeqid>gi|33320307</INSDSeqid>845</INSDSeq_other-seqids>846<INSDSeq_source>Conus purpurascens</INSDSeq_source>847<INSDSeq_organism>Conus purpurascens</INSDSeq_organism>848<INSDSeq_taxonomy>Eukaryota; Metazoa; Lophotrochozoa; Mollusca; Gastropoda; Caenogastropoda; Hypsogastropoda; Neogastropoda; Conoidea; Conidae; Conus</INSDSeq_taxonomy>849<INSDSeq_references>850<INSDReference>851<INSDReference_reference>1</INSDReference_reference>852<INSDReference_position>1..67</INSDReference_position>853<INSDReference_authors>854<INSDAuthor>Duda,T.F. Jr.</INSDAuthor>855<INSDAuthor>Palumbi,S.R.</INSDAuthor>856</INSDReference_authors>857<INSDReference_title>Convergent evolution of venoms and feeding ecologies among polyphyletic piscivorous Conus species</INSDReference_title>858<INSDReference_journal>Unpublished</INSDReference_journal>859</INSDReference>860<INSDReference>861<INSDReference_reference>2</INSDReference_reference>862<INSDReference_position>1..67</INSDReference_position>863<INSDReference_authors>864<INSDAuthor>Duda,T.F. Jr.</INSDAuthor>865<INSDAuthor>Palumbi,S.R.</INSDAuthor>866</INSDReference_authors>867<INSDReference_title>Direct Submission</INSDReference_title>868<INSDReference_journal>Submitted (04-FEB-2002) Naos Marine Lab, Smithsonian Tropical Research Institute, Apartado 2072, Balboa, Ancon, Panama, Republic of Panama</INSDReference_journal>869</INSDReference>870</INSDSeq_references>871<INSDSeq_comment>Method: conceptual translation supplied by author.</INSDSeq_comment>872<INSDSeq_source-db>accession AF480315.1</INSDSeq_source-db>873<INSDSeq_feature-table>874<INSDFeature>875<INSDFeature_key>source</INSDFeature_key>876<INSDFeature_intervals>877<INSDInterval>878<INSDInterval_from>1</INSDInterval_from>879<INSDInterval_to>67</INSDInterval_to>880<INSDInterval_accession>AAQ05867.1</INSDInterval_accession>881</INSDInterval>882</INSDFeature_intervals>883<INSDFeature_quals>884<INSDQualifier>885<INSDQualifier_name>organism</INSDQualifier_name>886<INSDQualifier_value>Conus purpurascens</INSDQualifier_value>887</INSDQualifier>888<INSDQualifier>889<INSDQualifier_name>isolate</INSDQualifier_name>890<INSDQualifier_value>purpurascens-2c</INSDQualifier_value>891</INSDQualifier>892<INSDQualifier>893<INSDQualifier_name>db_xref</INSDQualifier_name>894<INSDQualifier_value>taxon:41690</INSDQualifier_value>895</INSDQualifier>896<INSDQualifier>897<INSDQualifier_name>clone_lib</INSDQualifier_name>898<INSDQualifier_value>venom duct cDNA library</INSDQualifier_value>899</INSDQualifier>900<INSDQualifier>901<INSDQualifier_name>country</INSDQualifier_name>902<INSDQualifier_value>Panama</INSDQualifier_value>903</INSDQualifier>904<INSDQualifier>905<INSDQualifier_name>note</INSDQualifier_name>906<INSDQualifier_value>isolated from the Bay of Panama</INSDQualifier_value>907</INSDQualifier>908</INSDFeature_quals>909</INSDFeature>910<INSDFeature>911<INSDFeature_key>Protein</INSDFeature_key>912<INSDFeature_location>&lt;1..67</INSDFeature_location>913<INSDFeature_intervals>914<INSDInterval>915<INSDInterval_from>1</INSDInterval_from>916<INSDInterval_to>67</INSDInterval_to>917<INSDInterval_accession>AAQ05867.1</INSDInterval_accession>918</INSDInterval>919</INSDFeature_intervals>920<INSDFeature_partial5 value="true"/>921<INSDFeature_quals>922<INSDQualifier>923<INSDQualifier_name>product</INSDQualifier_name>924<INSDQualifier_value>four-loop conotoxin preproprotein</INSDQualifier_value>925</INSDQualifier>926</INSDFeature_quals>927</INSDFeature>928<INSDFeature>929<INSDFeature_key>mat_peptide</INSDFeature_key>930<INSDFeature_location>41..67</INSDFeature_location>931<INSDFeature_intervals>932<INSDInterval>933<INSDInterval_from>41</INSDInterval_from>934<INSDInterval_to>67</INSDInterval_to>935<INSDInterval_accession>AAQ05867.1</INSDInterval_accession>936</INSDInterval>937</INSDFeature_intervals>938<INSDFeature_quals>939<INSDQualifier>940<INSDQualifier_name>product</INSDQualifier_name>941<INSDQualifier_value>four-loop conotoxin</INSDQualifier_value>942</INSDQualifier>943<INSDQualifier>944<INSDQualifier_name>calculated_mol_wt</INSDQualifier_name>945<INSDQualifier_value>3008</INSDQualifier_value>946</INSDQualifier>947<INSDQualifier>948<INSDQualifier_name>peptide</INSDQualifier_name>949<INSDQualifier_value>PCKKTGRKCFPHQKDCCGRACIITICP</INSDQualifier_value>950</INSDQualifier>951</INSDFeature_quals>952</INSDFeature>953<INSDFeature>954<INSDFeature_key>CDS</INSDFeature_key>955<INSDFeature_location>1..67</INSDFeature_location>956<INSDFeature_intervals>957<INSDInterval>958<INSDInterval_from>1</INSDInterval_from>959<INSDInterval_to>67</INSDInterval_to>960<INSDInterval_accession>AAQ05867.1</INSDInterval_accession>961</INSDInterval>962</INSDFeature_intervals>963<INSDFeature_partial5 value="true"/>964<INSDFeature_quals>965<INSDQualifier>966<INSDQualifier_name>coded_by</INSDQualifier_name>967<INSDQualifier_value>AF480315.1:&lt;1..205</INSDQualifier_value>968</INSDQualifier>969<INSDQualifier>970<INSDQualifier_name>codon_start</INSDQualifier_name>971<INSDQualifier_value>2</INSDQualifier_value>972</INSDQualifier>973</INSDFeature_quals>974</INSDFeature>975</INSDSeq_feature-table>976<INSDSeq_sequence>vvivavlfltacqlitaddsrrtqkhralrsttkratsnrpckktgrkcfphqkdccgraciiticp</INSDSeq_sequence>977</INSDSeq>978`979const geneDocSumSample = `980<DocumentSummary>981<Id>3581</Id>982<Name>IL9R</Name>983<Description>interleukin 9 receptor</Description>984<Status>0</Status>985<CurrentID>0</CurrentID>986<Chromosome>X, Y</Chromosome>987<GeneticSource>genomic</GeneticSource>988<MapLocation>Xq28 and Yq12</MapLocation>989<OtherAliases>CD129, IL-9R</OtherAliases>990<OtherDesignations>interleukin-9 receptor|IL-9 receptor</OtherDesignations>991<NomenclatureSymbol>IL9R</NomenclatureSymbol>992<NomenclatureName>interleukin 9 receptor</NomenclatureName>993<NomenclatureStatus>Official</NomenclatureStatus>994<Mim>995<int>300007</int>996</Mim>997<GenomicInfo>998<GenomicInfoType>999<ChrLoc>X</ChrLoc>1000<ChrAccVer>NC_000023.11</ChrAccVer>1001<ChrStart>155997580</ChrStart>1002<ChrStop>156013016</ChrStop>1003<ExonCount>14</ExonCount>1004</GenomicInfoType>1005<GenomicInfoType>1006<ChrLoc>Y</ChrLoc>1007<ChrAccVer>NC_000024.10</ChrAccVer>1008<ChrStart>57184100</ChrStart>1009<ChrStop>57199536</ChrStop>1010<ExonCount>14</ExonCount>1011</GenomicInfoType>1012</GenomicInfo>1013<GeneWeight>5425</GeneWeight>1014<Summary>The protein encoded by this gene is a cytokine receptor that specifically mediates the biological effects of interleukin 9 (IL9).1015The functional IL9 receptor complex requires this protein as well as the interleukin 2 receptor, gamma (IL2RG), a common gamma subunit shared by the receptors of many different cytokines.1016The ligand binding of this receptor leads to the activation of various JAK kinases and STAT proteins, which connect to different biologic responses.1017This gene is located at the pseudoautosomal regions of X and Y chromosomes.1018Genetic studies suggested an association of this gene with the development of asthma.1019Multiple pseudogenes on chromosome 9, 10, 16, and 18 have been described.1020Alternatively spliced transcript variants have been found for this gene.</Summary>1021<ChrSort>X</ChrSort>1022<ChrStart>155997580</ChrStart>1023<Organism>1024<ScientificName>Homo sapiens</ScientificName>1025<CommonName>human</CommonName>1026<TaxID>9606</TaxID>1027</Organism>1028</DocumentSummary>1029`1030const keyboardShortcuts = `1031Command History1032  Ctrl-n     Next command1033  Ctrl-p     Previous command1034Move Cursor Forward1035  Ctrl-e     To end of line1036  Ctrl-f     By one character1037  Esc-f      By one argument1038Move Cursor Backward1039  Ctrl-a     To beginning of line1040  Ctrl-b     By one character1041  Esc-b      By one argument1042Delete1043  Del        Previous character1044  Ctrl-d     Next character1045  Ctrl-k     To end of line1046  Ctrl-u     Entire line1047  Ctrl-w     Previous word1048  Esc-Del    Previous argument1049  Esc-d      Next argument1050Autocomplete1051  Tab        Completes directory or file names1052Program Control1053  Ctrl-c     Quit running program1054  ^x^y       Run last command replacing x with y1055`1056const unixCommands = `1057Process by Contents1058 sort      Sorts lines of text1059  -f       Ignore case1060  -n       Numeric comparison1061  -r       Reverse result order1062  -k       Field key (start,stop or first)1063  -u       Unique lines with identical keys1064  -b       Ignore leading blanks1065  -s       Stable sort1066  -t       Specify field separator1067 uniq      Removes repeated lines1068  -c       Count occurrences1069  -i       Ignore case1070  -f       Ignore first n fields1071  -s       Ignore first n characters1072  -d       Only output repeated lines1073  -u       Only output non-repeated lines1074 grep      Matches patterns using regular expressions1075  -i       Ignore case1076  -v       Invert search1077  -w       Search expression as a word1078  -x       Search expression as whole line1079  -e       Specify individual pattern1080  -c       Only count number of matches1081  -n       Print line numbers...

process_files.go

Source:process_files.go

...36	}37	if len(filePaths) == 0 {38		return nil, fmt.Errorf("no YAML (*.yml or *.yaml) file found or defined")39	}40	return uniq(filePaths), nil41}42func uniq(stringSlice []string) []string {43	keys := make(map[string]bool)44	list := []string{}45	for _, entry := range stringSlice {46		if _, value := keys[entry]; !value {47			keys[entry] = true48			list = append(list, entry)49		}50	}51	return list52}53type partialTestSuite struct {54	Name string `json:"name" yaml:"name"`55	Vars H      `yaml:"vars" json:"vars"`56}...

uniq

Using AI Code Generation

1import "fmt"2func main() {3	venom := new(Venom)4	venom.uniq()5}6import "fmt"7func main() {8	venom := new(Venom)9	venom.uniq()10}11import "fmt"12func main() {13	venom := new(Venom)14	venom.uniq()15}16import "fmt"17func main() {18	venom := new(Venom)19	venom.uniq()20}21import "fmt"22func main() {23	venom := new(Venom)24	venom.uniq()25}26import "fmt"27func main() {28	venom := new(Venom)29	venom.uniq()30}31import "fmt"32func main() {33	venom := new(Venom)34	venom.uniq()35}36import "fmt"37func main() {38	venom := new(Venom)39	venom.uniq()40}41import "fmt"42func main() {43	venom := new(Venom)44	venom.uniq()45}46import "fmt"47func main() {48	venom := new(Venom)49	venom.uniq()50}

uniq

Using AI Code Generation

1import (2func main() {3	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))4}5import (6func main() {7	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))8}9import (10func main() {11	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))12}13import (14func main() {15	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))16}17import (18func main() {19	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))20}21import (22func main() {23	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))24}25import (26func main() {27	fmt.Println(venom.Uniq(1, 2, 3, 3, 2, 1))28}

uniq

Using AI Code Generation

1import (2func main() {3	fmt.Println(venom.Uniq("Hello"))4}5import (6func main() {7	fmt.Println(venom.GetVenom())8}9import (10func main() {11	fmt.Println(venom.GetVenom())12}13import (14func main() {15	fmt.Println(venom.GetVenom())16}17import (18func main() {19	fmt.Println(venom.GetVenom())20}21import (22func main() {23	fmt.Println(venom.GetVenom())24}25import (26func main() {27	fmt.Println(venom.GetVenom())28}29import (30func main() {31	fmt.Println(venom.GetVenom())32}33import (34func main() {35	fmt.Println(venom.GetVenom())36}37import (38func main() {39	fmt.Println(venom.GetVenom())40}41import (42func main() {43	fmt.Println(venom.GetVenom())44}45import (46func main() {47	fmt.Println(venom.GetVenom())48}

uniq

Using AI Code Generation

1import "fmt"2func main() {3	fmt.Println("Hello World!")4	venom := Venom{1, 2, 3, 4, 5, 6, 7, 8, 9, 10}5	fmt.Println(venom.uniq())6}7import "fmt"8func main() {9	fmt.Println("Hello World!")10	venom := Venom{1, 2, 3, 4, 5, 6, 7, 8, 9, 10}11	fmt.Println(venom.uniq())12}13import "fmt"14func main() {15	fmt.Println("Hello World!")16	venom := Venom{1, 2, 3, 4, 5, 6, 7, 8, 9, 10}17	fmt.Println(venom.uniq())18}19import "fmt"20func main() {21	fmt.Println("Hello World!")22	venom := Venom{1, 2, 3, 4, 5, 6, 7, 8, 9, 10}23	fmt.Println(venom.uniq())24}25import "fmt"26func main() {27	fmt.Println("Hello World!")28	venom := Venom{1, 2, 3, 4, 5, 6, 7, 8, 9, 10}29	fmt.Println(venom.uniq())30}31import "fmt"32func main() {33	fmt.Println("Hello World!")34	venom := Venom{1, 2, 3, 4, 5, 6, 7, 8, 9, 10}35	fmt.Println(venom.uniq())36}37import "fmt"38func main() {39	fmt.Println("Hello World!")40	venom := Venom{1, 2, 3

uniq

Using AI Code Generation

1import "fmt"2type Venom struct {3}4func (v Venom) Uniq() string {5	return fmt.Sprintf("Venom: %s", v.venom)6}7func main() {8	v := Venom{"I am Venom"}9	fmt.Println(v.Uniq())10}11import "fmt"12type Venom struct {13}14func (v Venom) Uniq() string {15	return fmt.Sprintf("Venom: %s", v.venom)16}17func main() {18	v := Venom{"I am Venom"}19	fmt.Println(v.Uniq())20}21import "fmt"22type Venom struct {23}24func (v Venom) Uniq() string {25	return fmt.Sprintf("Venom: %s", v.venom)26}27func main() {28	v := Venom{"I am Venom"}29	fmt.Println(v.Uniq())30}31import "fmt"32type Venom struct {33}34func (v Venom) Uniq() string {35	return fmt.Sprintf("Venom: %s", v.venom)36}37func main() {38	v := Venom{"I am Venom"}39	fmt.Println(v.Uniq())40}41import "fmt"42type Venom struct {43}44func (v Venom) Uniq() string {45	return fmt.Sprintf("Venom: %s", v.venom)46}47func main() {48	v := Venom{"I am Venom"}49	fmt.Println(v.Uniq())50}51import "fmt"52type Venom struct {53}54func (v Venom) Uniq() string {55	return fmt.Sprintf("Venom: %s", v.venom)56}57func main() {58	v := Venom{"I am Venom"}59	fmt.Println(v.Uniq())60}61import "fmt"62type Venom struct {63}

uniq

Using AI Code Generation

1import "fmt"2import "venom"3func main() {4    v.Set("a", "b")5    v.Set("a", "c")6    v.Set("b", "c")7    v.Set("c", "c")8    v.Set("d", "c")9    v.Set("e", "c")10    v.Set("f", "c")11    v.Set("g", "c")12    v.Set("h", "c")13    v.Set("i", "c")14    v.Set("j", "c")15    v.Set("k", "c")16    v.Set("l", "c")17    v.Set("m", "c")18    v.Set("n", "c")19    v.Set("o", "c")20    v.Set("p", "c")21    v.Set("q", "c")22    v.Set("r", "c")23    v.Set("s", "c")24    v.Set("t", "c")25    v.Set("u", "c")26    v.Set("v", "c")27    v.Set("w", "c")28    v.Set("x", "c")29    v.Set("y", "c")30    v.Set("z", "c")31    v.Set("a", "d")32    v.Set("a", "e")33    v.Set("a", "f")34    v.Set("a", "g")35    v.Set("a", "h")36    v.Set("a", "i")37    v.Set("a", "j")38    v.Set("a", "k")39    v.Set("a", "l")40    v.Set("a", "m")41    v.Set("a", "n")42    v.Set("a", "o")43    v.Set("a", "p")44    v.Set("a", "q")45    v.Set("a", "r")46    v.Set("a", "s")47    v.Set("a", "t")48    v.Set("a", "u")49    v.Set("a", "v")50    v.Set("a", "w")51    v.Set("a", "x")52    v.Set("a", "y")53    v.Set("a", "z")54    v.Set("b", "d")55    v.Set("b", "e")56    v.Set("b",

uniq

Using AI Code Generation

1import (2func main() {3	fmt.Println("Hello, world.")4	v := venom.NewVenom()5	v.Uniq()6}7import (8func main() {9	fmt.Println("Hello, world.")10	v := venom.NewVenom()11	v.Uniq()12}13import (14func main() {15	fmt.Println("Hello, world.")16	v := venom.NewVenom()17	v.Uniq()18}19import (20func main() {21	fmt.Println("Hello, world.")22	v := venom.NewVenom()23	v.Uniq()24}25import (26func main() {27	fmt.Println("Hello, world.")28	v := venom.NewVenom()29	v.Uniq()30}31import (32func main() {33	fmt.Println("Hello, world.")34	v := venom.NewVenom()35	v.Uniq()36}37import (38func main() {39	fmt.Println("Hello, world.")40	v := venom.NewVenom()41	v.Uniq()42}43import (44func main() {45	fmt.Println("Hello, world.")46	v := venom.NewVenom()47	v.Uniq()48}49import (

uniq

Using AI Code Generation

1import (2func main() {3	fmt.Println(v)4	v.Uniq()5}6import (7func main() {8	fmt.Println(v)9	v.Uniq()10}11import (12func main() {13	fmt.Println(v)14	v.Uniq()15}16import (17func main() {18	fmt.Println(v)19	v.Uniq()20}21import (22func main() {23	fmt.Println(v)24	v.Uniq()25}26import (27func main() {28	fmt.Println(v)29	v.Uniq()30}31import (32func main() {33	fmt.Println(v)34	v.Uniq()35}36import (37func main() {38	fmt.Println(v)39	v.Uniq()

uniq

Using AI Code Generation

1import (2func main() {3	venom.Print("Hello World!")4}5import (6func main() {7	venom.Print("Hello World!")8}9import (10func main() {11	venom.Print("Hello World!")12}13import (14func main() {15	venom.Print("Hello World!")16}17import (18func main() {19	venom.Print("Hello World!")20}21import (22func main() {23	venom.Print("Hello World!")24}25import (26func main() {27	venom.Print("Hello World!")28}29import (30func main() {31	venom.Print("Hello World!")32}33import (34func main() {35	venom.Print("Hello World!")36}

Automation Testing Tutorials

Learn to execute automation testing from scratch with LambdaTest Learning Hub. Right from setting up the prerequisites to run your first automation test, to following best practices and diving deeper into advanced test scenarios. LambdaTest Learning Hubs compile a list of step-by-step guides to help you be proficient with different test automation frameworks i.e. Selenium, Cypress, TestNG etc.