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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

Resources

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, 'i'); if (__m === '*' || __re.test(location.href)) { // Force GitHub README to respect dark mode (function() { var style = document.createElement('style'); style.textContent = ' .markdown-body { color-scheme: dark light; } .markdown-body pre { background: #161b22 !important; } .markdown-body code { background: rgba(110, 118, 129, 0.4) !important; } .markdown-body table th, .markdown-body table td { border-color: #30363d !important; } .markdown-body img { background: #0d1117; } .markdown-body blockquote { border-left-color: #8b949e; } .markdown-body hr { border-color: #30363d; } '; document.head.appendChild(style); })(); } } catch(__e) { console.warn('[Userscript:GitHub Dark Mode README Fix]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + ' GitHub - cerebis/scaffold3C: Find the chromosomal order and orientation of contigs using Hi-C sequencing data information · GitHub
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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

Resources

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0 stars

Watchers

1 watching

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, 'i'); if (__m === '*' || __re.test(location.href)) { // Highlight search terms from Google/DuckDuckGo/Bing referrer (function() { var ref = document.referrer; var terms = []; if (ref.includes('google.com') || ref.includes('duckduckgo.com') || ref.includes('bing.com')) { var url = new URL(ref); var q = url.searchParams.get('q') || url.searchParams.get('p'); if (q) { terms = q.split(/\s+/).filter(function(t) { return t.length > 2; }); } } if (terms.length === 0) return; var style = document.createElement('style'); style.textContent = '.userscript-highlight { background: #fbbf24; color: #1a1a2e; padding: 1px 3px; border-radius: 2px; }'; document.head.appendChild(style); function highlight(node) { if (node.nodeType === 3) { // text node var text = node.textContent; var found = false; terms.forEach(function(term) { var regex = new RegExp('(' + term.replace(/[.*+?^${}()|[\]\\]/g, '\\') + ')', 'gi'); if (regex.test(text)) { found = true; var frag = document.createDocumentFragment(); var parts = text.split(regex); parts.forEach(function(part, i) { if (i % 2 === 0) { frag.appendChild(document.createTextNode(part)); } else { var span = document.createElement('span'); span.className = 'userscript-highlight'; span.textContent = part; frag.appendChild(span); } }); node.parentNode.replaceChild(frag, node); } }); } else if (node.nodeType === 1 && node.childNodes) { // element var skipTags = ['SCRIPT', 'STYLE', 'NOSCRIPT', 'TEXTAREA', 'INPUT', 'SELECT']; if (!skipTags.includes(node.tagName)) { Array.from(node.childNodes).forEach(highlight); } } } highlight(document.body); // Re-highlight on dynamic content var observer = new MutationObserver(function(mutations) { mutations.forEach(function(m) { m.addedNodes.forEach(function(node) { if (node.nodeType === 1 || node.nodeType === 3) highlight(node); }); }); }); observer.observe(document.body, { childList: true, subtree: true }); })(); } } catch(__e) { console.warn('[Userscript:Highlight Search Terms]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + ' GitHub - cerebis/scaffold3C: Find the chromosomal order and orientation of contigs using Hi-C sequencing data information · GitHub
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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

Resources

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0 stars

Watchers

1 watching

Forks

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Used by

Contributors

Languages

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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

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Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

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1 watching

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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

Resources

Stars

0 stars

Watchers

1 watching

Forks

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { // Universal Dark Mode - works on any site (function() { var enabled = true; function applyDarkMode() { if (!enabled) return; // Create style element if it doesn't exist var style = document.getElementById('universal-dark-mode-style'); if (!style) { style = document.createElement('style'); style.id = 'universal-dark-mode-style'; document.head.appendChild(style); } // Dark mode CSS - inverts colors but preserves images/video style.textContent = ' /* Invert everything except media */ html { filter: invert(1) hue-rotate(180deg) !important; background: #1a1a2e !important; } /* Restore images, videos, iframes, canvas */ img, video, iframe, canvas, svg, picture, [style*="background-image"] { filter: invert(1) hue-rotate(180deg) !important; } /* Preserve specific elements that should not be inverted */ .no-dark-mode, .no-dark-mode *, [data-theme="light"], [data-theme="light"], .ace_editor, .ace_editor *, .CodeMirror, .CodeMirror *, .monaco-editor, .monaco-editor *, .markdown-body pre, .markdown-body pre *, .highlight, .highlight *, pre code, pre code * { filter: none !important; } /* Fix common UI elements */ .modal, .popup, .dropdown-menu, .tooltip, .popover { filter: invert(1) hue-rotate(180deg) !important; background: #2d2d44 !important; border-color: #444 !important; } /* Scrollbars */ ::-webkit-scrollbar { background: #1a1a2e !important; } ::-webkit-scrollbar-thumb { background: #444 !important; } ::-webkit-scrollbar-thumb:hover { background: #555 !important; } /* Selection */ ::selection { background: #4ecdc4 !important; color: #1a1a2e !important; } ::-moz-selection { background: #4ecdc4 !important; color: #1a1a2e !important; } '; } function removeDarkMode() { var style = document.getElementById('universal-dark-mode-style'); if (style) style.remove(); } // Toggle with Alt+Shift+D document.addEventListener('keydown', function(e) { if (e.altKey && e.shiftKey && e.key === 'D') { e.preventDefault(); enabled = !enabled; if (enabled) { applyDarkMode(); console.log('[Universal Dark Mode] Enabled'); } else { removeDarkMode(); console.log('[Universal Dark Mode] Disabled'); } } }); // Apply on load applyDarkMode(); // Re-apply on dynamic content var observer = new MutationObserver(function(mutations) { if (enabled && !document.getElementById('universal-dark-mode-style')) { applyDarkMode(); } }); observer.observe(document.head, { childList: true }); console.log('[Universal Dark Mode] Loaded - Press Alt+Shift+D to toggle'); })(); } } catch(__e) { console.warn('[Userscript:Universal Dark Mode]', __e); } })(); })(); GitHub - cerebis/scaffold3C: Find the chromosomal order and orientation of contigs using Hi-C sequencing data information · GitHub
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scaffold3C

scaffold3C is a bioinformatics analysis tool which attempts to determine the order (and potentially orientation) of genome assembly contigs using Hi-C linkage information. To that end, a genome or metagenome sequencing project will require both conventional shotgun (for assembly) and Hi-C sequencing data..

Finding the order and orientation of contigs within a chromosome is accomplished by transforming the problem of scaffolding into a Travelling Salesman Problem (TSP) and solving this using the local search algorithm LKH.

Currently scaffold3C takes as input the results of the genome-clustering tool bin3C.

Installation

Dependencies

Installation steps

Numpy and Cython must be installed first. Note: NumPy's version is restricted due a compatibility issue within a dependency.

It is also highly recommended that a virtual environment is used as there are version requirements on some packages and the final executable of scaffold3C will be created in bin/.

  1. Create a clean Python 2.7 environment
mkdir scaffold3C
cd scaffold3C
virtualenv -p python2.7 .
  1. Install NumPy < 1.15 and Cython.
bin/pip install "numpy<1.15" cython
  1. Install scaffold3C from github
pip install git+https://github.com/cerebis/scaffold3C

Once pip completes installation, you will find an entry-point for scaffold3C at bin/scaffold3C.

Command-line interface

The complete description of the command-line interface bin/scaffold3C -h

usage: scaffold3C [-h] [-V] [-s SEED] [-v] [--clobber] [--log LOG]
[--max-image MAX_IMAGE] [--min-reflen MIN_REFLEN]
[--min-signal MIN_SIGNAL] [--min-size MIN_SIZE]
[--min-extent MIN_EXTENT] [--min-ordlen MIN_ORDLEN]
[--dist-method {inverse,neglog}] [--only-large]
[--skip-plotting] [--fasta FASTA]
MAP CLUSTERING OUTDIR
Create a 3C fragment map from a BAM file
positional arguments:
MAP Contact map
CLUSTERING Clustering solution
OUTDIR Output directory
optional arguments:
-h, --help show this help message and exit
-V, --version Show the application version
-s SEED, --seed SEED Random integer seed
-v, --verbose Verbose output
--clobber Clobber existing files
--log LOG Log file path [OUTDIR/scaffold3C.log]
--max-image MAX_IMAGE
Maximum image size for plots [4000]
--min-reflen MIN_REFLEN
Minimum acceptable reference length [1000]
--min-signal MIN_SIGNAL
Minimum acceptable trans signal [5]
--min-size MIN_SIZE Minimum cluster size for ordering [5]
--min-extent MIN_EXTENT
Minimum cluster extent (kb) for ordering [50000]
--min-ordlen MIN_ORDLEN
Minimum length of sequence to use in ordering [2000]
--dist-method {inverse,neglog}
Distance method for ordering [inverse]
--only-large Only write FASTA for clusters longer than min_extent
--skip-plotting Skip plotting the contact map
--fasta FASTA Alternative location of source FASTA from that
supplied during clustering

Using scaffold3C

To scaffold a metagenomic assembly, you will first need to analyse the assembly with the Hi-C based genome binning tool bin3C.

Ordering only

After bin3C has analyzed a metagenome, you will have both a contact map and clustering result. These two files form the input to scaffold3C. A standard run will attempt to find the order of each MAG over a minimum total extent and cluster size (default: 50kbp and 5 contigs).

Eg. Ordering MAGs for a Hi-C dataset generated from two enzymatic digestions (Sau3AI and MluCI).

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Order and orientation

Inferring the orientation of contigs requires that bin3C create what I have termed a tip-based contact map. This procedure tracks only reads which map within a limited region at the two ends of each contig (the tips). For sanity, tip sizes are constrained to be no larger than the minimum acceptable contig length (tip-size <= min-reflen).

At present, for better performance it is recommended that tip-size be no smaller than 5000bp and minimum contig length be 10kbp.

scaffold3C will automatically detect the presence of a tip-based contact map and solve for both order and orientation.

Eg. Finding both order and orientation for the same dataset above.

bin/bin3C mkmap -v --seed 1234 -e Sau3AI -e MluCI --min-reflen 10000 --tip-size 5000 [fasta] [bam_file] [out_dir]
bin/bin3C clustering -v --seed 1234 [contact_map] [out_dir]
bin/scaffold3C -v --seed 1234 [contact_map] [clustering] [out_dir]

Algorithm details

About

Find the chromosomal order and orientation of contigs using Hi-C sequencing data information

Resources

Stars

0 stars

Watchers

1 watching

Forks

Releases

Packages

Used by

Contributors

Languages