title: CE_miRNA_rep_3_8

data_processing:
Libraries were sequenced on the Illumina HiSeq2500 according to standard 50bp protocol.
The 50bp reads were trimmed using Scythe to remove the 3’ adapter sequence.
For each sample, reads were mapped to the reference genome (version ws230) using bowtie with default parameters.
Using htseq-count, annotated miRNA (miRBase V.21) were counted
counted reads were normalized by dividing by the total number of counted reads and multiply by million (tpm).
Genome_build: WS230
Supplementary_files_format_and_content: expression matrix

extract_protocol:
From each sample, total RNA was extracted using TRIzol and eluted in 1.5ul of RNase-free water of which 1ul was used for Small-RNA library preparation.
Illumina TruSeq Small-RNA kit (15004197) was used with the following modifications:  3’ and 5’ ligations were performed at quarter volume, with 1µl of RNA and RA3 diluted 1:5. Reverse transcription was performed in half a volume using the entire ligation product. PCR reaction was performed in half reaction volume with a total of 15 cycles of PCR.


title: CE_mRNA_rep_1_1

status: Public on May 14 2018

type: SRA

city: New York

first: Itai

last: Yanai

address: 430 East 29th St., Office 510

department: Biochemistry and Molecular Pharmacology

country: USA

institute: New York University, School of Medicine

library_source: transcriptomic

data_processing:
Libraries were sequenced on the Illumina HiSeq2500, paired-end sequencing R1- 15bp, R2- 35bp, Index- 6bp
Filter barcode minimum quality of 10.
Demultiplexing using the CEL-Seq2 pipeline (Hashimshony, et a. 2016) of second mate, using first mate barcode, allowing no mismatches in barcode.
Using htseq-count, annotated mRNA were counted
Genome_build: WS230
Supplementary_files_format_and_content: expression matrix

molecule: total RNA

organism: Caenorhabditis elegans

source_name: C. elegans embryo_stage 1- 60 min

growth_protocol: C. elegans embryos were isolated from cut N2 adult worms using mouth pipette (Baugh et al. 2003) and staged at eight developmental time-points (60, 120, 180, 225, 270, 330, 410 and 500 minutes after the 4 cell stage).

extract_protocol:
From each sample, total RNA was extracted using TRIzol and eluted in 1.5ul of RNase-free water of which 0.5ul was used for the CEL-Seq protocol
CEL-Seq

treatment_protocol: 50 embryos were collected at each time-point, in triplicates.

tag: developmental stage

value: stage 1- 60 min

tag: tissue

value: embryo


title: CE_miRNA_rep_3_7

source_name: C. elegans embryo_stage 7- 410 min

value: stage 7- 410 min


title: CE_miRNA_rep_3_6

source_name: C. elegans embryo_stage 6- 330 min

value: stage 6- 330 min


title: set1_viewpoint_1_FL_replicate_3

city: Utrecht

first: Geert

last: Geeven

state: Utrecht

address: Uppsalalaan 8

department: Biomedical Genomics

country: Netherlands

institute: Hubrecht Institute

library_source: genomic

data_processing:
Library strategy: 4C-seq
The initial step in the 4C-seq analysis is the alignment of the sequencing reads (starting from the first restriction enzyme DpnII motif GATC) using bowtie2 with default parameters. We use samtools to filter for mapped reads with a minimum mapping quality score of 1. Next we extract from the reference genome (mm9) all possible 4C capture sequences (in FASTA format) with the exact  same length as the observed 4C captures from the sequencing run. We map and filter these reference capture sequences with the same parameters as the observed 4C reads using bowtie2 and samtools. In subsequent analysis we only include the thus mappable 4C fragment ends.
Genome_build: mm9
Supplementary_files_format_and_content: Tab-separated .txt files contain counts of reads at uniquely mappable 4C fragment ends on the cis chromosome, i.e. the chromosome on which the bait/viewpoint fragment is located.  Scores represent the number of reads mapping to a DpnII restriction fragment end.

molecule: genomic DNA

organism: Mus musculus

source_name: fetal liver

growth_protocol: E14 ES cells (IB10 cells) were cultured in BRL-conditioned Dulbecco’s Modified Eagle Medium (DMEM with High Glucose, GlutaMAX™, pyruvate; Life Technologies) supplemented with 10% fetal calf serum (FCS), non-essential amino acids (NEAA) (Life Technologies), 1000 U/ml leukemia inhibitory factor (LIF) and 2-mercaptoethanol. We isolated fetal livers from e14.5 embryos by dissection and obtained single cell suspensions by filtration through a cell strainer (BD biosciences).

extract_protocol:
The initial steps of the 4C procedure, as published before (van de Werken et al., 2012, Nature Methods (PMID 22961246)), remain unchanged.  Cells are cross-linked using 2% formaldehyde for 10 minutes at room temperature in PBS 10%FCS and nuclei are isolated, after which chromatin is digested with DpnII and subsequently ligated. After reversal of the cross-links, the DNA is purified and treated with the second restriction enzyme treatment (Csp6I). After a second re-ligation step, the sample is purified and a 4C PCR is performed. For mESCs we generated three biological replicates from individual dishes (~10x106 cells). For fetal livers, biological replicates were generated from individual embryos from a single pregnant mouse. We used barcoded primers to distinguish between replicates and tissues.
4C PCR

treatment_protocol: cells are cross linked using 2% formaldehyde for 10 minutes at room temperature in 10%FCS/PBS

value: fetal liver

tag: strain

tag: tissue/cell line

value: tissue


title: set1_viewpoint_1_FL_replicate_1


title: set1_viewpoint_2_FL_replicate_2


title: CE_miRNA_rep_3_5

source_name: C. elegans embryo_stage 5- 270 min

value: stage 5- 270 min


title: CE_mRNA_rep_2_1


title: CE_miRNA_rep_3_4

source_name: C. elegans embryo_stage 4- 225 min

value: stage 4- 225 min


title: TG_EE_2

city: Saarbrücken

first: Julia

middle: Maria

last: Schulze-Hentrich

address: Campus, Building A2.4

department: Genetics and Epigenetics

country: Germany

institute: Saarland University

description: Sample name: I14R018b10

data_processing:
Read quality of RNA-seq data in fastq files was assessed using FastQC (v0.11.4) to identify sequencing cycles with low average quality, adaptor contamination, or repetitive sequences from PCR amplification.
Reads were aligned using STAR (v2.4.2a) allowing gapped alignments to account for splicing against the Ensembl MusMusculus genome v82
Raw counts describing gene-level abundances were derived from DESeq2 (v1.8.2) (Love et al., 2014) with default parameters.
Genome_build: Ensembl MusMusculus genome v82
Supplementary_files_format_and_content: comma seperated text file containing raw read counts per gene identified by Ensembl gene ID

source_name: Hippocampus

extract_protocol:
Hippocampus was removed, flash-frozen on dry ice, and RNA was harvested using the AllPrep DNA/RNA Mini Kit (Qiagen). TruSeq RNA Sample Prep Kit (Illumina) was used with 500 ng of total RNA to construct sequencing libraries.
RNA libraries were prepared for sequencing using standard Illumina protocols. Poly(A) selected single-end sequencing libraries (50 and 65 bp reads) were generated according to the manufacturer’s instructions. All libraries were sequenced on an Illumina HiSeq 2500 platform at a depth of 10–20 million reads each.

value: hippocampus

tag: genotype

value: transgenic (human SNCA overexpression)

tag: environment

value: enriched

tag: age

value: 12 months


title: TG_EE_3

description: Sample name: I14R018b11


title: TG_EE_1

description: Sample name: I14R018b09


title: TG_EE_4

description: Sample name: I14R018b12


title: CE_miRNA_rep_3_3

source_name: C. elegans embryo_stage 3- 180 min

value: stage 3- 180 min


title: set1_viewpoint_2_ESC_replicate_2

source_name: embryonic stem cells

tag: cell type

value: embryonic stem cell

value: cell line


title: CE_mRNA_rep_1_7


title: CE_miRNA_rep_2_8

source_name: C. elegans embryo_stage 8- 500 min

value: stage 8- 500 min


title: WT_EE_4

description: Sample name: I14R018b04

value: wildtype


title: CE_miRNA_rep_3_2

source_name: C. elegans embryo_stage 2-120 min

value: stage 2-120 min


title: TG_SE_2

description: Sample name: I14R018b14

value: standard


title: CE_miRNA_rep_2_7

value: stage 7- 410 min

value: embryo


title: TG_SE_3

description: Sample name: I14R018b15


title: CE_miRNA_rep_2_6

value: stage 6- 330 min


title: WT_SE_4

description: Sample name: I14R018b08


title: WT_EE_2

description: Sample name: I14R018b02


title: WT_EE_1

description: Sample name: I14R018b01


title: CE_miRNA_rep_2_4


title: CE_miRNA_rep_2_3


title: CE_miRNA_rep_2_5


title: WT_SE_2

description: Sample name: I14R018b06


title: CE_miRNA_rep_2_2


title: CE_miRNA_rep_2_1

value: stage 1- 60 min


title: WT_SE_1

description: Sample name: I14R018b05


title: CE_miRNA_rep_1_7


title: CE_miRNA_rep_1_6


title: CE_miRNA_rep_1_4


title: CE_miRNA_rep_1_2


title: CE_miRNA_rep_1_1


title: CE_miRNA_rep_1_5

value: stage 5- 270 min


title: TG_SE_4

description: Sample name: I14R018b16


title: DM_26

description: sample correspond to DM0089 in Levin et al., 2016 PMID 26886793

data_processing:
Libraries were sequenced on the Illumina HiSeq2500 according to standard 50bp protocol.
The 50bp reads were trimmed using Scythe to remove the 3’ adapter sequence.
For each sample, reads were mapped to the reference genome (version dm6) using bowtie with default parameters.
Using htseq-count, annotated miRNA (miRBase V.21) were counted
counted reads were normalized by dividing by the total number of counted reads and multiply by million (tpm).
Genome_build: dm6
Supplementary_files_format_and_content: expression matrix

organism: Drosophila melanogaster

source_name: embryo_stage 7- 1300 min

growth_protocol: As described in Levin et al., 2016

extract_protocol:
From each sample, total RNA was extracted using TRIzol and eluted in RNase-free water. 1ng of RNA was used for Small-RNA library preparation.
Illumina TruSeq Small-RNA kit (15004197) was used with the following modifications:  3’ and 5’ ligations were performed at quarter volume, with 1µl of RNA and RA3 diluted 1:5. Reverse transcription was performed in half a volume using the entire ligation product. PCR reaction was performed in half reaction volume with a total of 15 cycles of PCR.

treatment_protocol: As described in Levin et al., 2016

value: stage 7- 1300 min


title: WT_SE_3

description: Sample name: I14R018b07

value: hippocampus


title: TG_SE_1

description: Sample name: I14R018b13

value: transgenic (human SNCA overexpression)


title: DM_20

description: sample correspond to DM0078 in Levin et al., 2016 PMID 26886793

source_name: embryo_stage 6- 1160 min

value: stage 6- 1160 min


title: Control mRNA Biological Repeat 2

city: Charleston

first: Vamsi

last: Gangaraju

address: 173 Ashley Ave

institute: Medical University of South Carolina

data_processing:
Sequenced reads were mapped to gene, transposon and piRNA cluster sequences using Bowtie2 (Langmead and Salzberg, 2012; Langmead et al., 2009) and quantified using RSEM (Li and Dewey, 2011). Expected counts from RSEM output were normalized to counts per million (CPM). CPM from two independent biological repeats of control and Nup358 GLKD were averaged, CPMNup358GLKD/CPMControl was calculated and plotted. Differential expression analysis was performed using EBSeq and FDR cutoff was set at 0.1.
Differential expression analysis was performed using EBSeq and FDR cutoff was set at 0.1.
Genome_build: dm3
Supplementary_files_format_and_content: Tab delimited text containing expected count from RSEM. Conclusions in this paper were based on these counts. Note that expected counts from all the samples are present in one file.

source_name: Ovaries

extract_protocol:
Total RNA was extracted from 10-15 pairs of adult ovaries using Trizol (Thermo Fisher Scientific) following manufacturer's protocol.
Libraries were constructed using TruSeq RNA Sample Prep Kit (Illumina) following manufacturer's recommended protocol. Note that polyA containing RNAs were enriched prior to the library preparation step.

value: Adult

tag: genotype/variation

value: Control


title: Control mRNA Biological Repeat 1


title: SL40437_A36

city: Charlotesville

first: David

last: Wotton

department: Biochemistry and Molecular Genetics

institute: University of Virginia

data_processing:
Raw FASTQ sequencing reads were chastity filtered to remove clusters having outlying intensity corresponding to bases other than the called base. Filtered reads were assessed for quality using FastQC (1). 1. Andrews S. FastQC: A Quality Control Tool for High Throughput Sequence Data. 2010.
Reads were splice-aware aligned to the reference genome using STAR (2), and reads overlapping gene regions were counted using featureCounts (3). 2. Dobin A, Davis CA, Schlesinger F, Drenkow J, Zaleski C, Jha S, et al. STAR: ultrafast universal RNA-seq aligner. Bioinformatics. 2012; doi:10.1093/bioinformatics/bts635. 3. Liao Y, Smyth GK, Shi W. featureCounts: an efficient general purpose program for assigning sequence reads to genomic features. Bioinformatics. 2014;30:923-30. doi:10.1093/bioinformatics/btt656
The DESeq2 Bioconductor package (4) in the R statistical computing environment (5) was used for normalizing count data, performing exploratory data analysis, estimating dispersion, and fitting a negative binomial model for each gene comparing the expression from Myt1 or Myt1l expressing samples versus control samples. 4. Love MI, Huber W, Anders S. Moderated estimation of fold change and dispersion for RNA-seq data with DESeq2. Genome Biol. 2014;15:550. doi:10.1186/PREACCEPT-8897612761307401. 5. R Core Development Team. R: A Language and Environment for Statistical Computing. ISBN 3-900051-07-0, URL http://www.R-project.org/. Vienna, Austria; 2010.
After obtaining a list of differentially expressed genes, log fold changes, and p-values, Benjamini-Hochberg False Discovery Rate procedure was used to correct p-values for multiple testing.
Genome_build: mm9
Supplementary_files_format_and_content: comma separated file, including read counts per million for each sample

source_name: Prostate

extract_protocol:
RNA was isolated using an Absolutely RNA Miniprep Kit (Agilent) according to the manufacturer's instructions.
Poly-A RNA-seq libraries were generated at HudsonAlpha with Illumina barcodes and sequenced (Illumina HiSeq) to a target depth of at least 25M paired end 50bp reads per sample
RNA-seq, poly A selection, 50bp paired end reads.

tag: tumor stage

value: Adenosquamous HGPIN

value: 36 weeks

value: Apc


title: SL40440_AT20

value: Adenosquamous cancer

value: 20 weeks


title: SL40442_AT20


title: SL40438_A36


title: DM_18

description: sample correspond to DM0062 in Levin et al., 2016 PMID 26886793

source_name: embryo_stage 5- 930 min

value: stage 5- 930 min


title: DM_21

description: sample correspond to DM0081 in Levin et al., 2016 PMID 26886793


title: SL40439_A36


title: CE_miRNA_rep_1_3

value: stage 3- 180 min


title: DM_19

description: sample correspond to DM0066 in Levin et al., 2016 PMID 26886793

value: embryo


title: SL40445_PT11

value: Invasive cancer

value: 11 weeks


title: DM_16

description: sample correspond to DM0038 in Levin et al., 2016 PMID 26886793

source_name: embryo_stage 4- 645 min

value: stage 4- 645 min


title: SL29696_PT11


title: SL29610_PT11


title: DM_15

description: sample correspond to DM0052 in Levin et al., 2016 PMID 26886793


title: Nup358GLKD mRNA Biological Repeat 2


title: Nup358GLKD mRNA Biological Repeat 1


title: DM_22

description: sample correspond to DM0083 in Levin et al., 2016 PMID 26886793

value: stage 7- 1300 min


title: WT_EE_3

description: Sample name: I14R018b03

value: hippocampus

value: wildtype

value: enriched

value: 12 months


title: DM_13

description: sample correspond to DM0036 in Levin et al., 2016 PMID 26886793

source_name: embryo_stage 3- 530 min

value: stage 3- 530 min


title: SL29607_PT8

value: HGPIN

value: 8 weeks


title: SL29606_PT8


title: SL40441_AT20


title: SL29605_P22

value: 22 weeks

value: Pten


title: DM_12

description: sample correspond to DM0039 in Levin et al., 2016 PMID 26886793


title: SL29604_P22


title: DM_9

description: sample correspond to DM0022 in Levin et al., 2016 PMID 26886793

source_name: embryo_stage 2- 300 min

value: stage 2- 300 min


title: SL29603_P22


title: DM_7

description: sample correspond to DM0014 in Levin et al., 2016 PMID 26886793

source_name: embryo_stage 1- 160 min

value: stage 1- 160 min


title: SL29601_P8


title: SL29600_P8


title: SL29599_wt

value: Normal

value: 20 weeks

value: wild type


title: SL29602_P8


title: DM_5

description: sample correspond to DM0011 in Levin et al., 2016 PMID 26886793

value: embryo


title: DM_8

description: sample correspond to DM0023 in Levin et al., 2016 PMID 26886793


title: SL29597_wt


title: SL29596_wt


title: SL40443_P22


title: SL29608_PT8


title: PBC #2

first: Selina

last: Chen-Kiang

state: NY

address: 1300 York Avenue, C338

institute: Weill Cornell Medical College

data_processing:
Cluster generation, sequencing, and processing of the images were done using the Real-Time Analysis (RTA) software on the HiSeq2000 and post-processing with CASAVA (v.1.8.2).
To optimize library preparation we used a TACON high-throughput RNA prep-station. Raw data were filtered for high median quality (Q-value > 20) and then sent to Cornell’s High Performance Computing (HPC) cluster, to be run through our RNA-seq analysis pipeline.
Raw reads were trimmed for the first and last five base pairs before alignment to  remove low quality bases.
Our RNA-Seq analysis pipeline used BWA and SAMtools.
Processed Data files (RPKM values) were obtained using Genesifter (Geospiza), which uses SAMtools and the Genome Analysis Toolkit (GATK) for base quality score recalibration and local re-alignment for indels.
Genome_build: Human (Build 37.2)
upplementary_files_format_and_content: .txt RPKM values

organism: Homo sapiens

source_name: Blood

growth_protocol: Mantle cell lymphoma (MCL) biopsies were obtained from patients at the New York-Presbyterian Hospital after informed consent as part of a study approved by the Institutional Review Board. Primary MCL cells were purified using MACS CD19 MicroBeads (Miltenyi Biotec). The percentage of MCL tumor cells (CD19+, CD5+, CD23-) was determined to be > 90% by flow cytometry.  B cells from healthy volunteers were isolated from peripheral blood (PBC)s using the same protocol. Primary MCL cells were cultured in RPMI 1640 (Invitrogen) supplemented with 10% heat-inactivated FBS (HyClone), 2 mM L-glutamine and 100 U/ml penicillin/streptomycin (Invitrogen)

extract_protocol:
For each experimental condition, 100 ng of high quality total RNA (RIN > 0.8 on the Agilent BioAnalyzer 2100) was isolated using the RNAEasy kit according to the manufacturer’s instructions (QIAGEN)
All RNAs were converted to cDNA, isolated with magnetic beads from the TruSeq mRNA prep kit (v2), and then ligated to Illumina adapters, as per the standard TruSeq Illumina protocol. Using these multi-plexed cDNA libraries, we generated clusters on the Illumina cBot station and paired-end sequenced each sample to 50x50 bp on the Illumina HiSeq2000 at the Weill Cornell Medical College (WCMC) Epigenomics Core

treatment_protocol: No treatment

value: B-cells

tag: source

value: Healthy volunteer

tag: disease state

value: healthy control


title: PBC #3


title: Primary MCL #4

source_name: Lymph Node

value: Mantle cell lymphoma cells

value: Mantle cell lymphoma Patient

value: Mantle Cell Lymphoma


title: PBC #1


title: JEKO-1

value: Mantle cell lymphoma cell line

value: JeKo1 (ATCC® CRL3006™)

tag: cell line


title: SL29598_wt


title: ATCC 17978

status: Public on May 13 2018

city: Adelaide

first: Felise

last: Adams

state: SA

address: Bedford Park

department: Biological Sciences

country: Australia

institute: Flinders University

description: Wildtype bacteria

data_processing:
Base calling was undertaken using Illumina's software
Sequences reads were trimmed for adaptor sequence, and masked for low-complexity / low-quality sequence, and subsequently mapped to Acinetobacter baumannii ATCC 17978 genome sequence using bowtie aligner software.
Counts per gene were generated using htseq-count tool and Reads Per Kilobase of exon per Megabase of library size (RPKM) were calculated
Genome_build: Acinetobacter baumannii ATCC 17978 genome accession CP012004
Supplementary_files_format_and_content: Tab-delimited text files include gene locus names, raw counts and RPKM values generated for each gene for each sample

organism: Acinetobacter baumannii ATCC 17978

source_name: bacterial cells

growth_protocol: Bacterial strains were grown at 37 degrees Celsius in Mueller-Hinton liquid broth culture to an optical density of OD 0.6

extract_protocol:
Total RNA from ATCC 17978 wildtype and ∆adeRS bacterial cells was extracted according to the manufacturers' instructions using the Isolate I RNA extraction Mini Kit (Bioline, NSW, Australia)
Libraries were prepared according to the Illumina's instructions. Briefly, total RNA was treated with a Epicentre Ribo-Zero kit to deplete ribosomal RNA. RNA library barcoding was then undertaken on RNA for HiSeq analysis. Samples were run on the Illumina HiSeq platform (1X50 base pair single reads)

treatment_protocol: No treatment was undertaken

value: wildtype


title: ATCC 17978 ∆adeRS

description: adeRS genes replaced with Erythromycin cartridge

value: partial deletion of adeRS genes (replacement with erythromycin casette)


title: Primary MCL #1


title: Primary MCL #2


title: Female_Alb4C_Repl3_8pool_G118_M11

status: Public on May 11 2018

city: Boston

middle: J.

last: Waxman

state: MA

address: 5 Cummington Mall

department: Department of Biology and Bioinformatics Program

institute: Boston University

description: 4C-seq Library

data_processing:
Library strategy: 4C-seq
READ FILTERING: Samples were sequenced 125bp paired end with additional viewpoints not included in this study. Read 1 of the raw fastq file (with multiple viewpoints) were filtered to select only sequences that contain the known Alb primers used: "TATGGTTAATGATC".
READ MAPPING: Reads were aligned using Burrows-Wheeler Alligner (Li and Durban 2009, Bioinformatics) allowing for up to 2 mismatches within the seed. Mapped reads were filtered to remove multiply-mapping reads as well as those mapping to Chromosome Y.
INTERACTION ANALYSIS: Near cis interactions were called per restriction fragment using an inverse power law background model from the software package R3Cseq (Thongjuea et al 2013, NAR). Trans interactions were determined for broad regions using 4Cker (Raviram et al 2016, PLoS Comp Bio) with the reccomended parameters (k=20).
Genome_build: mm9
Supplementary_files_format_and_content: Supplemental files were generated using R3Cseq (Thongjuea et al 2013, NAR) representing a read depth normalized (reads per million) 4C signal; bedgraph tracks were generated using R3Cseq representing interactions and with a score expressed as -10*log10(p value). The files are formatted for the WashU EpiGenome Browser in the "Long-Range" file format (http://wiki.wubrowse.org/Long-range).

source_name: Liver

growth_protocol: Male and female CD1 mice, 8-9 weeks of age, were purchased from Charles River Laboratories (Crl:CD1(ICR)).

extract_protocol:
Single cell suspensions were generated by passing dounce homogenized tissue through a 40 micron filter. Crosslinking was then performed with 1% formaldehyde for 10 minutes. This represents a pool of eight independent PCR reactions.
Livers were harvested and sonicated according to two strategies indicated per sample. 10M Crosslinked nuclei were processed as described previously (van de Werken et al 2012, Splinter et al 2012). DpnII was used as the primary restriction enzyme and Csp6I was used as the secondary. All ligations and disgestions were overnight (minimum 16 hr), and were verified by running a small aliquot in a 1% agarose gel.
Samples were amplified for 25 cycles of inverse PCR using a custom primer pair containing sequence specific to the promoter of Albumin as well as a partial adaptor sequence to facilitate barcoding in a secondary PCR reaction. To reduce the impact of PCR domination, samples represent pools of 2 or 8 independent (but otherwise identical) inverse PCR reactions as indicated. The reading primer was anchored directly at the DpnII cutsite, while the nonreading primer was positioned ~75bp from the Csp6I site (Reading primer: ACACTCTTTCCCTACACGACGCTCTTCCGATCTGGTAAGTATGGTTAATGATC; Non-reading primer: GACTGGAGTTCAGACGTGTGCTCTTCCGATCTCTCTTTGTCTCCCATTTGAG). The samples were barcoded using New England Biolabs NEBNext Multiplex Oligos for Illumina (#E7335) with 5 rounds of additional PCR per the manufacturer's instructions.

value: Liver

value: Crl:CD1(ICR) (Charles River, strain code #022)

tag: 4c viewpoint

value: Albumin Promoter

tag: Sex

value: Female

value: 8 weeks

tag: pcr pool number


title: CE_miRNA_rep_3_1

source_name: C. elegans embryo_stage 1- 60 min

value: stage 1- 60 min


title: Female_Alb4C_Repl4_8pool_G118_M12

description: 4C-seq Library

extract_protocol:
Single cell suspensions were generated by passing dounce homogenized tissue through a 40 micron filter. Crosslinking was then performed with 1% formaldehyde for 20 minutes. This represents a pool of eight independent PCR reactions.
Livers were harvested and sonicated according to two strategies indicated per sample. 10M Crosslinked nuclei were processed as described previously (van de Werken et al 2012, Splinter et al 2012). DpnII was used as the primary restriction enzyme and Csp6I was used as the secondary. All ligations and disgestions were overnight (minimum 16 hr), and were verified by running a small aliquot in a 1% agarose gel.
Samples were amplified for 25 cycles of inverse PCR using a custom primer pair containing sequence specific to the promoter of Albumin as well as a partial adaptor sequence to facilitate barcoding in a secondary PCR reaction. To reduce the impact of PCR domination, samples represent pools of 2 or 8 independent (but otherwise identical) inverse PCR reactions as indicated. The reading primer was anchored directly at the DpnII cutsite, while the nonreading primer was positioned ~75bp from the Csp6I site (Reading primer: ACACTCTTTCCCTACACGACGCTCTTCCGATCTGGTAAGTATGGTTAATGATC; Non-reading primer: GACTGGAGTTCAGACGTGTGCTCTTCCGATCTCTCTTTGTCTCCCATTTGAG). The samples were barcoded using New England Biolabs NEBNext Multiplex Oligos for Illumina (#E7335) with 5 rounds of additional PCR per the manufacturer's instructions.


title: Male_Alb4C_Repl4_8pool_G118_M10

description: 4C-seq Library

extract_protocol:
Single cell suspensions were generated by passing dounce homogenized tissue through a 40 micron filter Crosslinking was then performed with 1% formaldehyde for 20 minutes. This represents a pool of eight independent PCR reactions.
Livers were harvested and sonicated according to two strategies indicated per sample. 10M Crosslinked nuclei were processed as described previously (van de Werken et al 2012, Splinter et al 2012). DpnII was used as the primary restriction enzyme and Csp6I was used as the secondary. All ligations and disgestions were overnight (minimum 16 hr), and were verified by running a small aliquot in a 1% agarose gel.
Samples were amplified for 25 cycles of inverse PCR using a custom primer pair containing sequence specific to the promoter of Albumin as well as a partial adaptor sequence to facilitate barcoding in a secondary PCR reaction. To reduce the impact of PCR domination, samples represent pools of 2 or 8 independent (but otherwise identical) inverse PCR reactions as indicated. The reading primer was anchored directly at the DpnII cutsite, while the nonreading primer was positioned ~75bp from the Csp6I site (Reading primer: ACACTCTTTCCCTACACGACGCTCTTCCGATCTGGTAAGTATGGTTAATGATC; Non-reading primer: GACTGGAGTTCAGACGTGTGCTCTTCCGATCTCTCTTTGTCTCCCATTTGAG). The samples were barcoded using New England Biolabs NEBNext Multiplex Oligos for Illumina (#E7335) with 5 rounds of additional PCR per the manufacturer's instructions.

value: Male


title: Male_Alb4C_Repl2_2pool_G118_M5

description: 4C-seq Library

extract_protocol:
Single cell suspensions were generated by passing dounce homogenized tissue through a 40 micron filter. Crosslinking was then performed with 1% formaldehyde for 20 minutes. This represents a pool of two independent PCR reactions.
Livers were harvested and sonicated according to two strategies indicated per sample. 10M Crosslinked nuclei were processed as described previously (van de Werken et al 2012, Splinter et al 2012). DpnII was used as the primary restriction enzyme and Csp6I was used as the secondary. All ligations and disgestions were overnight (minimum 16 hr), and were verified by running a small aliquot in a 1% agarose gel.
Samples were amplified for 25 cycles of inverse PCR using a custom primer pair containing sequence specific to the promoter of Albumin as well as a partial adaptor sequence to facilitate barcoding in a secondary PCR reaction. To reduce the impact of PCR domination, samples represent pools of 2 or 8 independent (but otherwise identical) inverse PCR reactions as indicated. The reading primer was anchored directly at the DpnII cutsite, while the nonreading primer was positioned ~75bp from the Csp6I site (Reading primer: ACACTCTTTCCCTACACGACGCTCTTCCGATCTGGTAAGTATGGTTAATGATC; Non-reading primer: GACTGGAGTTCAGACGTGTGCTCTTCCGATCTCTCTTTGTCTCCCATTTGAG). The samples were barcoded using New England Biolabs NEBNext Multiplex Oligos for Illumina (#E7335) with 5 rounds of additional PCR per the manufacturer's instructions.


title: Male_Alb4C_Repl1_2pool_G118_M3

description: 4C-seq Library

extract_protocol:
Nuclei were isolated by ultracentrifugation in a high sucrose buffer then crosslinked with 0.8% formaldehyde for 9 minutes. This represents a pool of two independent PCR reactions.
Livers were harvested and sonicated according to two strategies indicated per sample. 10M Crosslinked nuclei were processed as described previously (van de Werken et al 2012, Splinter et al 2012). DpnII was used as the primary restriction enzyme and Csp6I was used as the secondary. All ligations and disgestions were overnight (minimum 16 hr), and were verified by running a small aliquot in a 1% agarose gel.
Samples were amplified for 25 cycles of inverse PCR using a custom primer pair containing sequence specific to the promoter of Albumin as well as a partial adaptor sequence to facilitate barcoding in a secondary PCR reaction. To reduce the impact of PCR domination, samples represent pools of 2 or 8 independent (but otherwise identical) inverse PCR reactions as indicated. The reading primer was anchored directly at the DpnII cutsite, while the nonreading primer was positioned ~75bp from the Csp6I site (Reading primer: ACACTCTTTCCCTACACGACGCTCTTCCGATCTGGTAAGTATGGTTAATGATC; Non-reading primer: GACTGGAGTTCAGACGTGTGCTCTTCCGATCTCTCTTTGTCTCCCATTTGAG). The samples were barcoded using New England Biolabs NEBNext Multiplex Oligos for Illumina (#E7335) with 5 rounds of additional PCR per the manufacturer's instructions.


title: mouse striatum_E16.5_Sp8/Sp9-DCKO_Dlx5/6-CIE; Sp8 Flox/Flox; Sp9 Flox/Flox_rep3

city: Shanghai

first: Qifei

last: Liang

address: 138 Yi Xue Yuan Road

country: China

institute: Fudan University

data_processing:
Illumina Casava1.8.4 software used for basecalling.
Sequenced reads were trimmed for adaptor sequence, and masked for low-complexity or low-quality sequence, then mapped to whole genome（version:GRCm38.p4）using TopHat（version:2.0.9).
Cufflinks v2.1.1 was used to count the read numbers mapped to each gene
To identify most differentially expressed genes, we ranked genes according to their size and sequencing coverage normalized FPKM (fragments per kilo base of exon per million). The log2 fold changes of gene FPKM between two genotypes were tested statistically to determine whether an individual gene expression was altered significantly or not.
Genome_build: GRCm38.p4
Supplementary_files_format_and_content: tab-delimited text file includes FPKM values for each sample.

source_name: striatum

extract_protocol:
Total RNA was extracted using RNeasy Mini Kit (Cat#74106, QIAGEN) following the manufacturer’s instructions and checked for a RIN number to inspect RNA integrity by an Agilent Bioanalyzer 2100 (Agilent technologies, Santa Clara, CA, US).Qualified total RNA was further purified by RNeasy micro kit (Cat#74004, QIAGEN, GmBH, Germany) and RNase-Free DNase Set  (Cat#79254, QIAGEN, GmBH, Germany).
RNA libraries were prepared for sequencing using standard Illumina protocols

treatment_protocol: The striatum from E16.5 mice were dissected in ice-cold HBSS.These tissues were flash frozen in the nitrogen and then stored into -80 oC

value: striatum


title: mouse striatum_E16.5_Sp8/Sp9-DCKO_Dlx5/6-CIE; Sp8 Flox/Flox; Sp9 Flox/Flox_rep2


title: Male_Alb4C_Repl3_8pool_G118_M9

description: 4C-seq Library


title: Female_Alb4C_Repl2_2pool_G118_M7

description: 4C-seq Library


title: mouse striatum_E16.5_control_no cre_rep3

value: no cre littermate


title: CE_miRNA_rep_1_8

source_name: C. elegans embryo_stage 8- 500 min

value: stage 8- 500 min

value: embryo


title: mouse striatum_E16.5_control_no cre_rep2


title: Primary MCL #3

value: Mantle cell lymphoma cells

value: Mantle cell lymphoma Patient


title: 10X38_2_TTTGCATGGTACGT

city: Stockholm

first: Sten

last: Linnarsson

address: Scheeles väg 1

department: Medical Biochemistry and Biophysics

country: Sweden

institute: Karolinska Institutet

data_processing:
Demultiplexed  samples were aligned to the reference genome and converted to mRNA molecule counts using  the 10X Chromium “cellranger” pipeline version 1.1
Genome_build: UCSC mm10
Supplementary_files_format_and_content: Tab-delimited file of mRNA molecule counts

source_name: Cortex CA1

growth_protocol: Slc32a1  (vesicular  GABA  transporter)‐Cre  BAC  transgenic  mice  were   crossed with a R26R‐tdTomato reporter line to generate mice with fluorescently labelled inhibitory   neurons. Both the Slc32a1‐Cre and tdTomato mouse lines were of mixed B6 and CD1 backgrounds.   Three of these mice were used for both the p28 and p63 cohorts; both males and females were   used at each age.

extract_protocol:
Mice were sacrificed by an overdose of Isoflurane and Ketamine/Xylazine, followed by   transcardial  perfusion  through  the  left  ventricle  with  artificial  cerebrospinal  fluid  (aCSF)   equilibrated in 95%O2 5%CO2 before use. The brain was removed and CA1 was microdissected   from  300μm  vibratome  sections.  Single‐cell  suspensions  were  prepared  using  Papain   (Worthington)  with  30min  enzymatic  digestion,  followed  by  manual  trituration  with  fire‐  polished Pasteur pipettes. The albumin density gradient was only performed for the p63 samples.   On  a  BD  FACSAria  II,  tdTomato‐positive  cells  were  sorted  into  oxygenated  aCSF  at  4°C,   concentrated, inspected for viability, and counted.
Sorted  suspensions  were  added  to  10X  Chromium  RT  mix  aiming  at  2500  cells  recovered  per   experiment. Downstream cDNA synthesis (14 PCR cycles) and library preparation were carried   out  as  instructed  by  the  manufacturer  (10X  Genomics  Chromium  Single  Cell  Kit  Version  1).   Libraries were sequenced on the Illumina HiSeq2500 to an average depth 112 000 reads per cell   (raw),  yielding  on  average  3600  distinct  molecules  and  1700  genes  per  cell.

value: CA1 inhibitory cells

tag: cell class

value: Unknown


title: mouse striatum_E16.5_Sp8/Sp9-DCKO_Dlx5/6-CIE; Sp8 Flox/Flox; Sp9 Flox/Flox_rep1

tag: developmental stage


title: 10X38_2_TTTGCATGCTACGA


title: 10X38_2_TTTGCATGGCTTAG


title: 10X38_2_TTTCGAACTCATTC


title: 10X38_2_TTTGACTGAATGCC


title: 10X38_2_TTTCCAGACCAGTA


title: Female_Alb4C_Repl1_2pool_G118_M1

description: 4C-seq Library

extract_protocol:
Single cell suspensions were generated by passing dounce homogenized tissue through a 40 micron filter Crosslinking was then performed with 1% formaldehyde for 20 minutes. This represents a pool of two independent PCR reactions.
Livers were harvested and sonicated according to two strategies indicated per sample. 10M Crosslinked nuclei were processed as described previously (van de Werken et al 2012, Splinter et al 2012). DpnII was used as the primary restriction enzyme and Csp6I was used as the secondary. All ligations and disgestions were overnight (minimum 16 hr), and were verified by running a small aliquot in a 1% agarose gel.
Samples were amplified for 25 cycles of inverse PCR using a custom primer pair containing sequence specific to the promoter of Albumin as well as a partial adaptor sequence to facilitate barcoding in a secondary PCR reaction. To reduce the impact of PCR domination, samples represent pools of 2 or 8 independent (but otherwise identical) inverse PCR reactions as indicated. The reading primer was anchored directly at the DpnII cutsite, while the nonreading primer was positioned ~75bp from the Csp6I site (Reading primer: ACACTCTTTCCCTACACGACGCTCTTCCGATCTGGTAAGTATGGTTAATGATC; Non-reading primer: GACTGGAGTTCAGACGTGTGCTCTTCCGATCTCTCTTTGTCTCCCATTTGAG). The samples were barcoded using New England Biolabs NEBNext Multiplex Oligos for Illumina (#E7335) with 5 rounds of additional PCR per the manufacturer's instructions.

tag: tissue


title: 10X38_2_TTTCAGTGTTAGGC


title: 10X38_2_TTTCACGAAACGTC


title: 10X38_2_TTTGCATGACCGAT


title: 10X38_2_TTTATCCTCATGAC


title: 10X38_2_TTTAGCTGAAAGCA


title: mouse striatum_E16.5_control_no cre_rep1

tag: strain


title: 10X38_2_TTTAGGCTTAGACC


title: 10X38_2_TTTAGCTGCATACG


title: 10X38_2_TTTATCCTTAGACC


title: 10X38_2_TTTAGAGAGAAAGT


title: 10X38_2_TTGTAGCTCAAAGA


title: 10X38_2_TTGGAGTGCTCGAA


title: 10X38_2_TTTAGAGAATGCTG


title: 10X38_2_TTGCTATGTAGACC


title: 10X38_2_TTGGAGTGAGGTTC


title: 10X38_2_TTGCTATGAGCATC


title: 10X38_2_TTGTCATGTATCGG


title: 10X38_2_TTGATCTGGTAAAG


title: 10X38_2_TTGATCTGATCTCT


title: 10X38_2_TTGAGGTGTGGTTG


title: 10X38_2_TTGAGGACGGTATC


title: 10X38_2_TTGAGGACAACCGT


title: 10X38_2_TTGAGGACTCATTC


title: 10X38_2_TTGAGGACCTCCCA


title: 10X38_2_TTGACACTGTCAAC


title: 10X38_2_TTGACACTGTGTTG


title: 10X38_2_TTGAACCTCCATAG


title: 10X38_2_TTGGTACTCCTGTC


title: 10X38_2_TTCTGATGTGTCTT


title: 10X38_2_TTGAATGACGAGAG


title: 10X38_2_TTCTGATGCGACTA


title: 10X38_2_TTCGTATGTCCTGC


title: 10X38_2_TTCCCACTTTGTGG


title: 10X38_2_TTCTCAGAGTTAGC


title: 10X38_2_TTCCATGATGTCGA


title: 10X38_2_TTCTCAGATGTAGC


title: 10X38_2_TTCCATGAGGAAGC


title: 10X38_2_TTCCATGACATGCA


title: 10X38_2_TTCCTAGATTCTCA


title: 10X38_2_TTCCTAGATCCAGA


title: 10X38_2_TTCATTCTTTTGCT


title: 10X38_2_TTCCAAACTAGTCG


title: 10X38_2_TTCATGTGGCTCCT


title: 10X38_2_TTCATGACTGTGAC


title: 10X38_2_TTCATGTGGAGGGT


title: 10X38_2_TTCATGACCTGATG


title: 10X38_2_TTCATCGAGAGGTG


title: 10X38_2_TTCATCGATCTGGA


title: 10X38_2_TTCATCGACAACCA


title: 10X38_2_TTCAGTACGTAGCT


title: 10X38_2_TTCACCCTCTAGTG


title: 10X38_2_TTCACCCTCCATGA


title: 10X38_2_TTCAGACTCTGTGA


title: 10X38_2_TTCACCCTCACTAG


title: 10X38_2_TTCACCCTATTTCC


title: 10X38_2_TTCACAACTTGCTT


title: 10X38_2_TTCACAACAGCTAC


title: 10X38_2_TTCACAACGAACCT


title: 10X38_2_TTCAACACTAAGCC


title: 10X38_2_TTCAACACGGTGAG


title: 10X38_2_TTCAACACTACTTC


title: 10X38_2_TTCAAGCTACCCAA


title: 10X38_2_TTTCCAGAATTCGG


title: 10X38_2_TTATGGCTCTCAAG


title: 10X38_2_TTATGGCTCCTATT


title: 10X38_2_TTATGGCTACCGAT


title: 10X38_2_TTCAACACCTTACT


title: 10X38_2_TTATTCCTTGCAGT


title: 10X38_2_TTATGGCTTCGTGA


title: 10X38_2_TTATCCGATACTGG


title: 10X38_2_TTATGCACTGCCCT


title: 10X38_2_TTATCCGACTGTGA


title: 10X38_2_TTAGACCTTCCTAT


title: 10X38_2_TTAGTCTGTTGTGG


title: 10X38_2_TTAGTCTGCTAGAC


title: 10X38_2_TTATCCGAAGAGGC


title: 10X38_2_TTACTCGAGGCATT


title: 10X38_2_TTAGAATGTGACAC


title: 10X38_2_TTAGACCTCATTCT


title: 10X38_2_TTCAAAGACCGAAT


title: 10X38_2_TTCAACACCTACTT


title: 10X38_2_TTACGTACTAAGGA


title: 10X38_2_TTACGTACCAGTCA


title: 10X38_2_TTACGTACCACTAG


title: 10X38_2_TTACCATGACACGT


title: 10X38_2_TTACACACACACTG


title: 10X38_2_TTACACACAAAGCA


title: 10X38_2_TGTGGATGTACTCT


title: 10X38_2_TGTTACACGATAAG


title: 10X38_2_TGTGATCTATGGTC


title: SL40446_PT11

value: Invasive cancer

value: 11 weeks


title: 10X38_2_TGTGAGACTTTCGT


title: 10X38_2_TGTGACGATCTGGA


title: 10X38_2_TGTGACGATTTGGG


title: 10X38_2_TGTGACGAGACAGG


title: 10X38_2_TGTGAGTGGAACCT


title: 10X38_2_TGTCTAACTCCCGT


title: 10X38_2_TGTCAGGAAACCTG


title: 10X38_2_TGTATGCTACCACA


title: 10X38_2_TTACACACCCACCT


title: 10X38_2_TGTCTAACCAGAGG


title: 10X38_2_TGTTAAGACACTGA


title: 10X38_2_TGTAGTCTGTTTCT


title: 10X38_2_TGTCAGGATATTCC


title: 10X38_2_TTACGACTTTGACG


title: 10X38_2_TTACGACTAACAGA


title: 10X38_2_TGTATGCTCTGTGA


title: 10X38_2_TGTATGCTCTCCCA


title: 10X38_2_TGTGAGTGCCCACT


title: 10X38_2_TGTATCTGGGGAGT


title: 10X38_2_TGTTACACGGTAAA


title: 10X38_2_TTACAGCTGGATCT


title: 10X38_2_TGTAGTCTAAGATG


title: 10X38_2_TGTATCTGGGAAAT


title: 10X38_2_TGTACTTGACACTG


title: 10X38_2_TGTAATGAAGTGCT


title: 10X38_2_TGTAACCTCCCACT


title: SL29609_PT11


title: 10X38_2_TGTAAAACCTTCTA


title: 10X38_2_TGGTCAGACAGATC


title: 10X38_2_TGGTAGTGGAGGAC


title: 10X38_2_TGGTAGTGGACGTT


title: 10X38_2_TGGTAGTGCTGATG


title: 10X38_2_TGGTACGATCCTGC


title: 10X38_2_TGGGTATGTGTCAG


title: 10X38_2_TGGTATCTACGCTA


title: 10X38_2_TGGCACCTTGTGGT


title: 10X38_2_TGGCACCTTTCCAT


title: 10X38_2_TGGCACCTTGTGAC


title: 10X38_2_TGGCACCTCAGATC


title: 10X38_2_TGGATGACTGTGGT


title: 10X38_2_TGGATGACTATTCC


title: 10X38_2_TGGATGTGCTCTAT


title: 10X38_2_TGGATCGAACTCTT


title: 10X38_2_TGGATCGACTTCCG


title: 10X38_2_TGGACTGATCACGA


title: 10X38_2_TGGAGACTGGGACA


title: 10X38_2_TGGACCCTACTACG


title: 10X38_2_TGGAAGCTAAGGCG


title: 10X38_2_TGTAAAACTACGCA


title: 10X38_2_TGTAACCTCCTTAT


title: 10X38_2_TGGACCCTAAGGCG


title: 10X38_2_TGGACTGACCAAGT


title: 10X38_2_TGGAACTGGCTCCT


title: 10X38_2_TGGAACTGGGGCAA


title: 10X38_2_TGGAACACGGACTT


title: 10X38_2_TGGTACGAAATCGC


title: 10X38_2_TGGAACTGCCCACT


title: 10X38_2_TGGAACACCTAGTG


title: 10X38_2_TGGAACTGCACACA


title: 10X38_2_TGGAACACACTACG


title: 10X38_2_TGGAAAGACTAGCA


title: 10X38_2_TGCGCACTTGGCAT


title: 10X38_2_TGGAAAGAAAACGA


title: 10X38_2_TGCGCACTGTTCAG


title: 10X38_2_TGCTTAACGCTGAT


title: 10X38_2_TGCGATGACCCTTG


title: 10X38_2_TGCGATGAGCATAC


title: 10X38_2_TGGAACTGTCGATG


title: 10X38_2_TGCGAAACTGTGCA


title: 10X38_2_TGCGAAACTCCTCG


title: 10X38_2_TGCGATGACGAACT


title: 10X38_2_TGCGAAACGAGCTT


title: 10X38_2_TGCGATGACAGTCA


title: 10X38_2_TGCGAAACGCTTCC


title: 10X38_2_TGCCGACTCAGAAA


title: 10X38_2_TGCCAGCTATCTTC


title: 10X38_2_TGCCAGCTCGCCTT


title: 10X38_2_TGCGAAACCATTGG


title: 10X38_2_TGCATGGACTTGGA


title: 10X38_2_TGCAGATGCATTTC


title: 10X38_2_TGCAGATGCTCCAC


title: 10X38_2_TGCCAAGATTTCAC


title: 10X38_2_TGCACGCTCTGTGA


title: 10X38_2_TGCACGCTCCTCGT


title: 10X38_2_TGCAGATGCAGAGG


title: 10X38_2_TGCAAGTGTTGTGG


title: 10X38_2_TGCAATCTAGTCAC


title: 10X38_2_TGCAAGACTACGAC


title: 10X38_2_TGCAAGACGTTCGA


title: 10X38_2_TGCAACGATATGCG


title: 10X38_2_TGCAACGAGAGGAC


title: 10X38_2_TGATTCTGTGCTAG


title: 10X38_2_TGATTCTGTCTTTG


title: 10X38_2_TGATTCTGTTGGCA


title: 10X38_2_TGATTAGATGCAAC


title: 10X38_2_TGATTCACGGAACG


title: 10X38_2_TGATTAGATGGATC


title: 10X38_2_TGATTAGAGGTTAC


title: 10X38_2_TGATCGGACGTGTA


title: 10X38_2_TGATACCTCTCTAT


title: 10X38_2_TGATCGGACGCATA


title: 10X38_2_TGATCGGAGTTCAG


title: 10X38_2_TGATACCTACCACA


title: 10X38_2_TGATACCTACCATG


title: 10X38_2_TGAGTGACTGGTAC


title: 10X38_2_TGATACCTAAGGTA


title: 10X38_2_TGCAACGATCAAGC


title: 10X38_2_TGAGTCGATTCTTG


title: 10X38_2_TGAGTCGAGAGGTG


title: 10X38_2_TGAGGTACTCAGTG


title: 10X38_2_TGAGTGACGTTCTT


title: 10X38_2_TGAGCAACTACGCA


title: 10X38_2_TGAGTCGAGAAGGC


title: 10X38_2_TGAGACACCTTACT


title: 10X38_2_TGAGACACCGCCTT


title: 10X38_2_TGAGGACTAAGGTA


title: 10X38_2_TGAGTCGAACGTTG


title: 10X38_2_TGACTTTGGAGCAG


title: 10X38_2_TGACTTTGGAGACG


title: 10X38_2_TGACTTTGTGCAAC


title: 10X38_2_TGACTTTGAATGCC


title: 10X38_2_TGATTAGAAGGGTG


title: 10X38_2_TGATCGGATCCAAG


title: 10X38_2_TGACTTACTCACCC


title: 10X38_2_TGACTTACGTACGT


title: 10X38_2_TGACTTACTGTCTT


title: 10X38_2_TGACTGGACGGAGA


title: 10X38_2_TGACTGGATTTGGG


title: 10X38_2_TGACGCCTTTCCCG


title: 10X38_2_TGACGCCTTTCGCC


title: 10X38_2_TGACGCCTTGCCTC


title: 10X38_2_TGACGCCTTGCCCT


title: 10X38_2_TGAGGACTTCCAAG


title: 10X38_2_TGACGCCTATCTCT


title: 10X38_2_TGACCGCTTATCTC


title: 10X38_2_TGACGATGACCCAA


title: 10X38_2_TGACGCCTGGTTCA


title: 10X38_2_TGACACGACGCAAT


title: 10X38_2_TGACCGCTCTGTCC


title: 10X38_2_TGAATAACTGCGTA


title: 10X38_2_TGAAGCTGGTCACA


title: 10X38_2_TGACCAGATCTCCG


title: 10X38_2_TGAACCGATTCCAT


title: 10X38_2_TGAACCGATGGTGT


title: 10X38_2_TGAAATTGCAGGAG


title: 10X38_2_TCTTCAGATCGATG


title: 10X38_2_TCTGATACCCAGTA


title: 10X38_2_TCTCTAGAGAGGAC


title: 10X38_2_TCTCTAGAATACCG


title: 10X38_2_TGACGATGTCCCGT


title: 10X38_2_TCTCAAACTCAGGT


title: 10X38_2_TCTCAAACGCTATG


title: 10X38_2_TCTCAAACGCGTAT


title: 10X38_2_TCTATGTGGAGGCA


title: 10X38_2_TCTAGACTCGGGAA


title: 10X38_2_TGACCAGATTAGGC


title: 10X38_2_TCTAAGCTGCATAC


title: 10X38_2_TCTACAACACGCTA


title: 10X38_2_TCTATGTGGCCCTT


title: 10X38_2_TGAAGCACAGGAGC


title: 10X38_2_TCTAACACTGACTG


title: 10X38_2_TCTAAGCTAGTAGA


title: 10X38_2_TCGTTATGTGAAGA


title: 10X38_2_TCTAACTGTGCCAA


title: 10X38_2_TGAACCGACAGCTA


title: 10X38_2_TCGTTATGGGTAAA


title: 10X38_2_TCTTGATGTTGCTT


title: 10X38_2_TCTTGATGTCAAGC


title: 10X38_2_TCGTGAGATGTGCA


title: 10X38_2_TCGTTATGAGGGTG


title: 10X38_2_TCTACAACTAGAAG


title: 10X38_2_TCGTGAGAGTCACA


title: 10X38_2_TCTCTAGATTTGCT


title: 10X38_2_TCGTGAGAGACGGA


title: 10X38_2_TCGTGAGAGCTATG


title: 10X38_2_TCTGATACAACGTC


title: 10X38_2_TCTAAGCTAGGTTC


title: 10X38_2_TCGGCACTCGAGTT


title: 10X38_2_TCGTAGGAAGGGTG


title: 10X38_2_TCGGACCTAGTCAC


title: 10X38_2_TCGTAGGACCGATA


title: 10X38_2_TCGCACTGACGGTT


title: 10X38_2_TCGCAAGAAAGAGT


title: 10X38_2_TCGATTTGTCGCCT


title: 10X38_2_TCGCACACTGACTG


title: 10X38_2_TCGATTTGTGTCGA


title: 10X38_2_TCGAGAACTAAGCC


title: 10X38_2_TCGCCATGCTGCAA


title: 10X38_2_TCGAGAACACCTTT


title: 10X38_2_TCGCCATGCTCGAA


title: 10X38_2_TCGATACTCGGTAT


title: 10X38_2_TCGAGAACTTGACG


title: 10X38_2_TCGATACTACACAC


title: 10X38_2_TCGACGCTCTACTT


title: 10X38_2_TCGACGCTGAGGCA


title: 10X38_2_TCGATACTGTCAAC


title: 10X38_2_TCGACGCTAGAAGT


title: 10X38_2_TCCGGACTTTTGTC


title: 10X38_2_TCCGGACTTGCACA


title: 10X38_2_TCGACCTGCCGTTC


title: 10X38_2_TCCTACCTCCGCTT


title: 10X38_2_TCCGGACTGTACAC


title: 10X38_2_TCCGAGCTTCCCGT


title: 10X38_2_TCCGAAGATGTCGA


title: 10X38_2_TCCGAAGATCTATC


title: 10X38_2_TCGACGCTGAATAG


title: 10X38_2_TCCGAAGATCAAGC


title: 10X38_2_TCGATTTGACGTTG


title: 10X38_2_TCCCACGAGTATGC


title: 10X38_2_TCCCGAACTCTTTG


title: 10X38_2_TCCCGAACGCTGTA


title: 10X38_2_TCCGAAGAGCTGAT


title: 10X38_2_TCCATCCTCGACAT


title: 10X38_2_TCATTGACTGACCA


title: 10X38_2_TCCAGAGAATGCCA


title: 10X38_2_TCCCGAACGCTTAG


title: 10X38_2_TCCACTCTGGGCAA


title: 10X38_2_TCGACGCTCGCTAA


title: 10X38_2_TCCGAAGAAAAGTG


title: 10X38_2_TCATTGACGTCACA


title: 10X38_2_TCATTGACCGAGTT


title: 10X38_2_TCATTCGACATGAC


title: 10X38_2_TCATTCGATTTCGT


title: 10X38_2_TCATGTACGTCTAG


title: 10X38_2_TCATCATGCTGGAT


title: 10X38_2_TCCGAAGAGGACGA


title: 10X38_2_TCATCAACTTGTCT


title: 10X38_2_TCCCGAACGGAAGC


title: 10X38_2_TCATCAACCGATAC


title: 10X38_2_TCCCTACTTGTAGC


title: 10X38_2_TCAGTACTTCGCTC


title: 10X38_2_TCAGGATGTCACGA


title: 10X38_2_TCAGGATGTTGCTT


title: 10X38_2_TCAGGATGCTGTAG


title: 10X38_2_TCAGAGACTCACGA


title: 10X38_2_TCAGCAGAGGCATT


title: 10X38_2_TCAGACGATATCGG


title: 10X38_2_TCATGTACGGAAGC


title: 10X38_2_TCAGCGCTCTACCC


title: 10X38_2_TCACGAGATCTTCA


title: 10X38_2_TCAGGATGACACGT


title: 10X38_2_TCACCTCTGCGATT


title: 10X38_2_TCAGACGAATCTCT


title: 10X38_2_TCACCGTGGGTGGA


title: 10X38_2_TCACCTCTGCCAAT


title: 10X38_2_TCACTATGCCTAAG


title: 10X38_2_TCACCTCTCATCAG


title: 10X38_2_TCACCGTGACCTAG


title: 10X38_2_TCACCGTGCCGTAA


title: 10X38_2_TCACATACAGTCAC


title: 10X38_2_TCACAACTTATTCC


title: 10X38_2_TCAATCACTTAGGC


title: 10X38_2_TCACATACACCTAG


title: 10X38_2_TCAATAGATTCTTG


title: 10X38_2_TCACTATGTGACAC


title: 10X38_2_TCAATCACAGTAGA


title: 10X38_2_TCAATAGACTCGAA


title: 10X38_2_TCAATAGACCTTGC


title: 10X38_2_TCAATAGACTGTAG


title: 10X38_2_TCAAGTCTCACTGA


title: 10X38_2_TATTTCCTATCGGT


title: 10X38_2_TATTTCCTGTTGAC


title: 10X38_2_TCAAGGTGCTACGA


title: 10X38_2_TATGTGCTATGACC


title: 10X38_2_TATTTCCTGTTTGG


title: 10X38_2_TATTGCTGTTCTGT


title: 10X38_2_TATTGCTGCTGCAA


title: 10X38_2_TCAGCAGACTGCAA


title: 10X38_2_TATGTGCTAAGATG


title: 10X38_2_TATGGTCTTTGCAG


title: 10X38_2_TCCCGAACCGGGAA


title: 10X38_2_TATGGTCTAGTACC


title: 10X38_2_TATGGTCTGTGTCA


title: 10X38_2_TCAAGGACTGTCTT


title: 10X38_2_TATGGTCTAAGGGC


title: 10X38_2_TATGGGTGGGTGAG


title: 10X38_2_TATGGGACCGAACT


title: 10X38_2_TATGGGACCAGATC


title: 10X38_2_TATGAATGACACAC


title: 10X38_2_TATGAATGTCCAAG


title: 10X38_2_TCAAGGACGGAAAT


title: 10X38_2_TATGAATGCTGTAG


title: 10X38_2_TATGCGGAAACAGA


title: 10X38_2_TATCTTCTATGTGC


title: 10X38_2_TATCTTCTAACGTC


title: 10X38_2_TATCTGACTGGTGT


title: 10X38_2_TCGTAGGAGCGAAG


title: 10X38_2_TATCTCGATAAAGG


title: 10X38_2_TATCTCGACAGCTA


title: 10X38_2_TATCTCGACTTTAC


title: 10X38_2_TATCTGACCGCCTT


title: 10X38_2_TATCTCGAGTTTGG


title: 10X38_2_TATCGTACAAACAG


title: 10X38_2_TATCTCGAATGTGC


title: 10X38_2_TATCGACTTAGCGT


title: 10X38_2_TATCCTGACTGGTA


title: 10X38_2_TATCGACTAGAGTA


title: 10X38_2_TATGGGACACCCAA


title: 10X38_2_TATCAGCTTTGGTG


title: 10X38_2_TATCCAACCTGTCC


title: 10X38_2_TCCGAGCTCAGGAG


title: 10X38_2_TATCAAGAAGGCGA


title: 10X38_2_TATCCAACTGGAGG


title: 10X38_2_TATCACTGCCCTTG


title: 10X38_2_TATCAGCTACTGTG


title: 10X38_2_TATCAGCTTTCATC


title: 10X38_2_TATCCTGACGTGTA


title: 10X38_2_TATCACTGTCCAGA


title: 10X38_2_TATCAAGAACGTGT


title: 10X38_2_TATAGCCTATGCTG


title: 10X38_2_TATCGTACGCGATT


title: 10X38_2_TATCGTACGTTTGG


title: 10X38_2_TATCCTGACTAGAC


title: 10X38_2_TATACCACTGTTTC


title: 10X38_2_TATAAGTGCCTTTA


title: 10X38_2_TATACAGACTGGAT


title: 10X38_2_TATAAGACAACCGT


title: 10X38_2_TAGTTCACAGTGTC


title: 10X38_2_TAGTTGCTAGCAAA


title: 10X38_2_TATACGCTCGAGTT


title: 10X38_2_TAGTTCACACCACA


title: 10X38_2_TAGTTAGAGGGACA


title: 10X38_2_TAGTGGTGGCCTTC


title: 10X38_2_TAGTCTTGCAGTCA


title: 10X38_2_TAGTCTTGACTTTC


title: 10X38_2_TCGCCATGATTCCT


title: 10X38_2_TAGTCACTGTACCA


title: 10X38_2_TAGTATGAGGAGCA


title: 10X38_2_TAGTACCTGTCTTT


title: 10X38_2_TAGTATGAGGACAG


title: 10X38_2_TAGTACCTTACTCT


title: 10X38_2_TAGTCACTCGTTAG


title: 10X38_2_TAGTACCTAGCACT


title: 10X38_2_TAGTCTTGCTGCTC


title: 10X38_2_TAGTTCACCGCTAA


title: 10X38_2_TATAGCCTACCACA


title: 10X38_2_TAGTAATGTGGAGG


title: 10X38_2_TAGGTGTGTGAGCT


title: 10X38_2_TAGGTGACTTCGCC


title: 10X38_2_TAGGTGACCTGCAA


title: 10X38_2_TAGTAAACCTGTAG


title: 10X38_2_TAGGTCGATGTCTT


title: 10X38_2_TAGGTGACCACTAG


title: 10X38_2_TAGGTCGAGTCAAC


title: 10X38_2_TAGGTGACCTGAAC


title: 10X38_2_TAGTGGTGGTTCAG


title: 10X38_2_TAGGTCGACTGAAC


title: 10X38_2_TCACCCGAGTCTTT


title: 10X38_2_TAGTACCTTCCTCG


title: 10X38_2_TAGGTCGAATCTCT


title: 10X38_2_TAGGCTGATCGCCT


title: 10X38_2_TAGGTCGAACGCTA


title: 10X38_2_TAGGAGCTAACCGT


title: 10X38_2_TAGCGATGTTGTGG


title: 10X38_2_TAGCCCTGGTCGAT


title: 10X38_2_TAGGAGCTGGAAGC


title: 10X38_2_TAGGACTGGCCTTC


title: 10X38_2_TAGCCCACTCGCCT


title: 10X38_2_TAGCCCTGCCCTAC


title: 10X38_2_TAGCCCACCTCCCA


title: 10X38_2_TAGCCGCTTCCCGT


title: 10X38_2_TAGCATCTTTCCAT


title: 10X38_2_TAGCCCACACTAGC


title: 10X38_2_TAGCATCTGCCAAT


title: 10X38_2_TAGATTGATGCGTA


title: 10X38_2_TAGATCCTCTATGG


title: 10X38_2_TAGATTGAAAAGTG


title: 10X38_2_TAGAGAGATCTCAT


title: 10X38_2_TAGAATTGCTCTTA


title: 10X38_2_TAGACGTGCTTAGG


title: 10X38_2_TAGAATACGGAGGT


title: 10X38_2_TAGAAACTTGAGGG


title: 10X38_2_TAGAATTGTTGTGG


title: 10X38_2_TACTTGACCTCAGA


title: 10X38_2_TACTTTCTCCAATG


title: 10X38_2_TACTGGGACTGGAT


title: 10X38_2_TACTCTGATGTCAG


title: 10X38_2_TACTCAACCTCTAT


title: 10X38_2_TACTCAACATGTCG


title: 10X38_2_TACTACTGGGGATG


title: 10X38_2_TACTAAGATGAGAA


title: 10X38_2_TACTAAGAATCGTG


title: 10X38_2_TACGTACTTGAACC


title: 10X38_2_TACGTTACACCACA


title: 10X38_2_TACGTTACGGCAAG


title: 10X38_2_TACGGCCTAACCAC


title: 10X38_2_TACGGCCTGTTCGA


title: 10X38_2_TACGCGCTTACTCT


title: 10X38_2_TACGCCACTACTGG


title: 10X38_2_TACGCCACGGCAAG


title: 10X38_2_TCAGCGCTGGAGGT


title: 10X38_2_TACGCAGATGCTGA


title: 10X38_2_TACGCAGACCGCTT


title: 10X38_2_TACGATCTACAGTC


title: 10X38_2_TACGATCTTGTCCC


title: 10X38_2_TACGACGAACACGT


title: 10X38_2_TACGACGACCAACA


title: 10X38_2_TACTGTTGGGATTC


title: 10X38_2_TACCGGCTGACAGG


title: 10X38_2_TACGACGAAACAGA


title: 10X38_2_TACCGCTGTCTTCA


title: 10X38_2_TACTCTGAGGTGAG


title: 10X38_2_TACCGCTGGCCTTC


title: 10X38_2_TACCGCTGAAGTAG


title: 10X38_2_TACTAAGAGCGAGA


title: 10X38_2_TACATAGAGCGTAT


title: 10X38_2_TACAATGATACGCA


title: 10X38_2_TAATGATGAGCTCA


title: 10X38_2_TACGCAGATGTCGA


title: 10X38_2_TAATGTGAGACGTT


title: 10X38_2_TAATGTGACCCACT


title: 10X38_2_TACAATGAGAGGTG


title: 10X38_2_TAAGTCCTGCATAC


title: 10X38_2_TAATCCACGACAGG


title: 10X38_2_TAAGGCTGACCTAG


title: 10X38_2_TAATGATGACGTAC


title: 10X38_2_TAAGGGCTGCTATG


title: 10X38_2_TACGCAGACGAGTT


title: 10X38_2_TAAGGGCTTAGCGT


title: 10X38_2_TAAGCTCTAGCTAC


title: 10X38_2_TAAGCGTGTGGTTG


title: 10X38_2_TAAGATTGTGGTAC


title: 10X38_2_TAAGCGTGGGGTGA


title: 10X38_2_TAAGCGTGTTCGGA


title: 10X38_2_TAAGATTGTGTCAG


title: 10X38_2_TAAGATTGTGACCA


title: 10X38_2_TAAGATTGGTTCGA


title: 10X38_2_TAAGATTGATTTCC


title: 10X38_2_TATGTCACCTTTAC


title: 10X38_2_TAAGAGGATGGTGT


title: 10X38_2_TAAGAGGAAAGAGT


title: 10X38_2_TAAGAGGACATCAG


title: 10X38_2_TAAGAGGAATAAGG


title: 10X38_2_TAACTCACTTGTCT


title: 10X38_2_TAACTAGATGACCA


title: 10X38_2_TAACTCACGACGAG


title: 10X38_2_TAACTAGAGTATCG


title: 10X38_2_TAACTAGAGTAGCT


title: 10X38_2_TAACTAGACTGTAG


title: 10X38_2_TAACTAGACAGATC


title: 10X38_2_TAACGTCTGGACTT


title: 10X38_2_TAAATGTGCGCATA


title: 10X38_2_TAACACCTCAAGCT


title: 10X38_2_TAACAATGTAACGC


title: 10X38_2_TAAAGTTGTGATGC


title: 10X38_2_TAACACCTTTACTC


title: 10X38_2_TAAATGTGGCGAAG


title: 10X38_2_TAACCGGACGAGTT


title: 10X38_2_TAACAATGAATCGC


title: 10X38_2_TAAAGACTTGAGCT


title: 10X38_2_TAAAGTTGCGACTA


title: 10X38_2_TAAACAACCTGAGT


title: 10X38_2_TAAGAACTCGCATA


title: 10X38_2_TAACAATGGGTAAA


title: 10X38_2_GTTGTACTCAAGCT


title: 10X38_2_GTTGGATGGGGCAA


title: 10X38_2_GTTGTACTTCGCAA


title: 10X38_2_GTTGGATGAGAACA


title: 10X38_2_GTTGGATGACACTG


title: 10X38_2_TAACTAGAGGAGGT


title: 10X38_2_GTTGATCTGGAGCA


title: 10X38_2_GTTGAGTGTCGTAG


title: 10X38_2_GTTGAGTGGATAGA


title: 10X38_2_TAACATGAAAGGCG


title: 10X38_2_TAACTAGACCTCAC


title: 10X38_2_TAAATGTGGACAGG


title: 10X38_2_TAACAATGAAGATG


title: 10X38_2_GTTGACGAGGTTTG


title: 10X38_2_GTTCAGGAGTCCTC


title: 10X38_2_GTTCAGGAGAACCT


title: 10X38_2_GTTATCTGTCACGA


title: 10X38_2_GTTTAAGACGCTAA


title: 10X38_2_GTTATAGATAAGCC


title: 10X38_2_GTTATAGACCATAG


title: 10X38_2_GTTAAATGGTCCTC


title: 10X38_2_GTTAGTCTAGCCTA


title: 10X38_2_GTTACTACTCGTGA


title: 10X38_2_GTTAACCTCTTCCG


title: 10X38_2_GTTAACCTTGTGCA


title: 10X38_2_GTTAAATGGGTGGA


title: 10X38_2_GTTAAAACGAATCC


title: 10X38_2_GTGTGATGTCAAGC


title: 10X38_2_GTGTAGTGCCTTTA


title: 10X38_2_GTGTGATGCTGCAA


title: 10X38_2_GTGTATCTGTACAC


title: 10X38_2_GTTGATCTGAGGGT


title: 10X38_2_GTGTAGTGACTGTG


title: 10X38_2_GTGGATTGTCTGGA


title: 10X38_2_GTTGACGATACTGG


title: 10X38_2_GTGGATTGGTCATG


title: 10X38_2_GTGCTAGAGGAGTG


title: 10X38_2_GTGGATTGGGTGAG


title: 10X38_2_GTGCCACTCTGTAG


title: 10X38_2_GTGCTAGAGCAGAG


title: 10X38_2_GTGCCACTAGCCAT


title: 10X38_2_GTGCCACTCCCGTT


title: 10X38_2_GTTACGGACCCAAA


title: 10X38_2_GTGCAAACCGAGAG


title: 10X38_2_GTGATGACTCGCAA


title: 10X38_2_GTGATCGAGCAGTT


title: 10X38_2_GTGATCGAGTTAGC


title: 10X38_2_GTGAGGGACTTATC


title: 10X38_2_GTGACCCTTTGGCA


title: 10X38_2_GTGAGGGAACTAGC


title: 10X38_2_GTTAAAACTGACTG


title: 10X38_2_GTGAACACTGAGAA


title: 10X38_2_GTGAACACACCCAA


title: 10X38_2_GTGAACACCATACG


title: 10X38_2_GTGACCCTATCGTG


title: 10X38_2_GTCTGAGATTGACG


title: 10X38_2_GTCTAGGATGGTGT


title: 10X38_2_GTCTGAGAGGAGGT


title: 10X38_2_GTCTAGGATGCTTT


title: 10X38_2_GTCTAGGAATCGAC


title: 10X38_2_GTCGCACTGTTTCT


title: 10X38_2_GTCGACCTTGAACC


title: 10X38_2_GTCGAATGTTACTC


title: 10X38_2_GTCCCATGTCGCCT


title: 10X38_2_GTCGAATGTCCCGT


title: 10X38_2_GTGAGGGAGAATGA


title: 10X38_2_GTCCCATGCCTCCA


title: 10X38_2_GTCCAGCTTATGGC


title: 10X38_2_GTCCAGCTGAGACG


title: 10X38_2_GTCCCATGTACGCA


title: 10X38_2_GTCCCATGCCTGAA


title: 10X38_2_GTCCACTGCACCAA


title: 10X38_2_GTCCACTGAGTTCG


title: 10X38_2_GTCCACACGATACC


title: 10X38_2_GTCCACACCGTACA


title: 10X38_2_GTCCACTGTCCGTC


title: 10X38_2_GTCCACACCCTTGC


title: 10X38_2_GTCCAAGAGCAGAG


title: 10X38_2_GTCAACGATGTCCC


title: 10X38_2_GTCAATCTGACGGA


title: 10X38_2_GTCACCTGGCGTAT


title: 10X38_2_GTCACCTGTCTTTG


title: 10X38_2_GTCCACTGAGCTAC


title: 10X38_2_GTCAACGAGTGTCA


title: 10X38_2_GTCACAGAGAATCC


title: 10X38_2_GTCCACACCAGGAG


title: 10X38_2_GTATGGTGTGGTAC


title: 10X38_2_GTATTCACTATGGC


title: 10X38_2_GTATCTACAGGTTC


title: 10X38_2_GTATTCACGGTGTT


title: 10X38_2_GTATCTACACTGTG


title: 10X38_2_GTCAACGACACACA


title: 10X38_2_GTATCTACACCTGA


title: 10X38_2_GTATCACTCTCCAC


title: 10X38_2_GTATCACTTTGACG


title: 10X38_2_GTAGTGACAGTCGT


title: 10X38_2_GTAGTGTGGCCTTC


title: 10X38_2_GTAGTCGACACTTT


title: 10X38_2_GTAGGTACCTACTT


title: 10X38_2_GTAGTGACGAAACA


title: 10X38_2_GTAGGTACAGAACA


title: 10X38_2_GTAGCTGAGTCGTA


title: 10X38_2_GTAGCCCTGAAACA


title: 10X38_2_GTAGCTGAGATAAG


title: 10X38_2_GTAGCCCTTTGCTT


title: 10X38_2_GTAGCCCTCTTAGG


title: 10X38_2_GTAGCAACGTCTGA


title: 10X38_2_GTAGCATGCACACA


title: 10X38_2_GTACGTGACCCAAA


title: 10X38_2_GTACTACTGAGGGT


title: 10X38_2_GTACGTGAAGTGTC


title: 10X38_2_GTAGACTGGTCGAT


title: 10X38_2_GTAGCATGAGCCAT


title: 10X38_2_GTACCCTGGAAACA


title: 10X38_2_GTAATATGGACGTT


title: 10X38_2_GTACAGTGGGACGA


title: 10X38_2_GTAATATGCTTGGA


title: 10X38_2_GTAATAACTTCGTT


title: 10X38_2_GTAATAACAAGTGA


title: 10X38_2_GTAATAACACCACA


title: 10X38_2_GTAGCATGGAAACA


title: 10X38_2_GTAAGCACGGGTGA


title: 10X38_2_GTAAGCACTTTCAC


title: 10X38_2_GTAGCCCTTACGAC


title: 10X38_2_GTAACGTGCATGGT


title: 10X38_2_GGTTTACTTGCACA


title: 10X38_2_GTAAGCACCGTGTA


title: 10X38_2_GTAACGTGGTTGAC


title: 10X38_2_GGTTTACTTCGTGA


title: 10X38_2_GGTGATACCACTTT


title: 10X38_2_GGTTTACTGGGACA


title: 10X38_2_GTACGAACCGAATC


title: 10X38_2_GGTGGAGATTGTGG


title: 10X38_2_GGTCTAGATCCGTC


title: 10X38_2_GGTCTAGATATTCC


title: 10X38_2_GGTTGAACCTTGCC


title: 10X38_2_GGTGATACATAAGG


title: 10X38_2_GTAATAACTGGCAT


title: 10X38_2_GGTACTGATGATGC


title: 10X38_2_GGTAGTACTTATCC


title: 10X38_2_GGTATGACATGGTC


title: 10X38_2_GGTAAAGAAACGAA


title: 10X38_2_GGTAGTACTCAGAC


title: 10X38_2_GTAATAACACGGAG


title: 10X38_2_GGGTTAACCTGACA


title: 10X38_2_GGTAAAGAGCGTTA


title: 10X38_2_GGGCCATGCAGATC


title: 10X38_2_GGGCCAACATTCGG


title: 10X38_2_GGGCCAACCCGTTC


title: 10X38_2_GGGCCAACACCAGT


title: 10X38_2_GGGCAGCTTGCGTA


title: 10X38_2_GGGCACACTCCAGA


title: 10X38_2_GGGCACACTGTGCA


title: 10X38_2_GGGCAAGATCGCTC


title: 10X38_2_GGGCAAGACGAATC


title: 10X38_2_GGGCAAGAAGTGCT


title: 10X38_2_GGGCAAGAGGCGAA


title: 10X38_2_GGGATTACCTTCTA


title: 10X38_2_GGGATGGAGTCGAT


title: 10X38_2_GGGATGGATCAGTG


title: 10X38_2_GGGTTAACAAGTAG


title: 10X38_2_GGGATTACCCCGTT


title: 10X38_2_GGGAAGTGGAGAGC


title: 10X38_2_GGGACCACTGAGCT


title: 10X38_2_GGGAAGACGTTGGT


title: 10X38_2_GGGAAGTGACCAGT


title: 10X38_2_GGGAACGAGGTTTG


title: 10X38_2_GGGAACGAACCTCC


title: 10X38_2_GGGAAGACACGTGT


title: 10X38_2_GGCTCACTTCGTAG


title: 10X38_2_GGCTACCTGCGTTA


title: 10X38_2_GGCTAATGGTGCTA


title: 10X38_2_GGGCAAGATAACCG


title: 10X38_2_GGCGGACTCTAAGC


title: 10X38_2_GGCTAATGCTCCCA


title: 10X38_2_GGCGCATGTGCTTT


title: 10X38_2_GGCGCATGGCAGTT


title: 10X38_2_GGCGCATGGACAGG


title: 10X38_2_GGCGCATGCATCAG


title: 10X38_2_GGCGACTGCCATAG


title: 10X38_2_GGCGACTGAGATCC


title: 10X38_2_GGCGACTGGGATCT


title: 10X38_2_GGCGACACGCGAAG


title: 10X38_2_GGGACCACTGGTCA


title: 10X38_2_GGGACCACAAACGA


title: 10X38_2_GGCCCAGATACAGC


title: 10X38_2_GGCCAGACTGGAGG


title: 10X38_2_GGCCAGACGGAGCA


title: 10X38_2_GGCCGAACCTCCAC


title: 10X38_2_GGCCAGACAGTGCT


title: 10X38_2_GGCTCACTGGTGTT


title: 10X38_2_GGCAATACGACAAA


title: 10X38_2_GGCAATACTCAGGT


title: 10X38_2_GGATTGTGGGAAGC


title: 10X38_2_GGCAATACAGTAGA


title: 10X38_2_GGCAATACCTATGG


title: 10X38_2_GGATGTACTGACCA


title: 10X38_2_GGATGTTGGATGAA


title: 10X38_2_GGATAGCTCTTATC


title: 10X38_2_GGATGTACACTAGC


title: 10X38_2_GGATACTGCCGTAA


title: 10X38_2_GGATGTACTCGATG


title: 10X38_2_GGAGGTGAAGGAGC


title: 10X38_2_GGCCGATGCGGTAT


title: 10X38_2_GGAGCGCTGTCGTA


title: 10X38_2_GGATAGCTCCTTGC


title: 10X38_2_GGAGGATGGGGACA


title: 10X38_2_GGAGCGCTCTGACA


title: 10X38_2_GGATGTACATGTGC


title: 10X38_2_GGCCGAACTCCCAC


title: 10X38_2_GGAGCCACCTTGGA


title: 10X38_2_GGAGCGCTACACCA


title: 10X38_2_GGCCACGACCTAAG


title: 10X38_2_GGAGCAGATTTCAC


title: 10X38_2_GGAGCAGAAGCTAC


title: 10X38_2_GGAGCAGACCGCTT


title: 10X38_2_GGAGAGACCACAAC


title: 10X38_2_GGACTATGCTCGCT


title: 10X38_2_GGACTATGTTCCCG


title: 10X38_2_GGCATATGACTCTT


title: 10X38_2_GGACGCACCTTACT


title: 10X38_2_GGACGCTGGAGCAG


title: 10X38_2_GGAGACGACTTATC


title: 10X38_2_GGACCTCTGTACAC


title: 10X38_2_GGACCTCTACCTTT


title: 10X38_2_GGACCTCTAAGTAG


title: 10X38_2_GGACCTCTAACCGT


title: 10X38_2_GGACCGTGGCGTAT


title: 10X38_2_GGACCGTGCCATAG


title: 10X38_2_GGACATTGCTATGG


title: 10X38_2_GGACCCGAGGAGGT


title: 10X38_2_GGACAGGACTACTT


title: 10X38_2_GGAATCTGTTCCCG


title: 10X38_2_GGAATCTGCTTGTT


title: 10X38_2_GGACAACTGAGCAG


title: 10X38_2_GGAATGCTGAGCAG


title: 10X38_2_GGAAGGTGGCCATA


title: 10X38_2_GGAAGGTGGACTAC


title: 10X38_2_GGAGGCCTTGCAGT


title: 10X38_2_GGAAGGACAATCGC


title: 10X38_2_GGAACTTGGCAGTT


title: 10X38_2_GGAATCTGCAGTTG


title: 10X38_2_GGAACTTGACACAC


title: 10X38_2_GGAACTTGTTTGCT


title: 10X38_2_GGAACACTCTTGAG


title: 10X38_2_GGAACTACTGAGAA


title: 10X38_2_GCTTGAGATCTTCA


title: 10X38_2_GCTTGAGACATGCA


title: 10X38_2_GCTTGAGAAGGTTC


title: 10X38_2_GGAACACTTCCGTC


title: 10X38_2_GGAGCAGACAACCA


title: 10X38_2_GCTCGACTGCAGTT


title: 10X38_2_GGACAACTTCTGGA


title: 10X38_2_GCTCCATGATGTCG


title: 10X38_2_GCTCCATGTTCTCA


title: 10X38_2_GCTCAGCTAAGGTA


title: 10X38_2_GCTCAGCTGAGGAC


title: 10X38_2_GCTCACTGCGTGAT


title: 10X38_2_GCTATACTGAGATA


title: 10X38_2_GCTCACTGACCTCC


title: 10X38_2_GCTCAAGACCAATG


title: 10X38_2_GCTATACTACCCTC


title: 10X38_2_GGAACTTGCGTTGA


title: 10X38_2_GCTACGCTACTCAG


title: 10X38_2_GCTAGATGCATACG


title: 10X38_2_GCTAGATGGGATCT


title: 10X38_2_GCTAGAACAACCAC


title: 10X38_2_GCTACCTGGTACCA


title: 10X38_2_GCTGATGATCTACT


title: 10X38_2_GCTACAGATTCGGA


title: 10X38_2_GCTACCTGAGCCAT


title: 10X38_2_GCGTAATGCTAAGC


title: 10X38_2_GCGTACCTCCTCCA


title: 10X38_2_GCTACAGAGTCTAG


title: 10X38_2_GCGTAATGAGTGTC


title: 10X38_2_GCGTATGATCCGTC


title: 10X38_2_GCGGGACTGTAAGA


title: 10X38_2_GCTGATGAAGTGCT


title: 10X38_2_GCTGATGATCACGA


title: 10X38_2_GCGGGACTCTTGCC


title: 10X38_2_GCGCGATGAAGGTA


title: 10X38_2_GCGCGATGTGGTGT


title: 10X38_2_GCGAGCACCTCAGA


title: 10X38_2_GCGAGCACTCAGAC


title: 10X38_2_GCGCACGAGTATGC


title: 10X38_2_GCGCGAACGTTACG


title: 10X38_2_GCGAGAGATTTCTG


title: 10X38_2_GCGAGAGAGGTTCA


title: 10X38_2_GCGAGAGATCGCAA


title: 10X38_2_GCTACAGACTCCCA


title: 10X38_2_GCGACTCTGGCAAG


title: 10X38_2_GCGACTCTCAACTG


title: 10X38_2_GCGAAGGACGTAGT


title: 10X38_2_GCGAAGGAGGCATT


title: 10X38_2_GCGACTCTGGACAG


title: 10X38_2_GCGAAGGAGTCAAC


title: 10X38_2_GCGAAGGAACTGGT


title: 10X38_2_GCCTGACTTCACCC


title: 10X38_2_GCCTACACCCTATT


title: 10X38_2_GCCTCAACGGTACT


title: 10X38_2_GCGAAGGAAACGAA


title: 10X38_2_GCGAAGGAAACCAC


title: 10X38_2_GCCGTACTCCTCCA


title: 10X38_2_GCCGGAACACCATG


title: 10X38_2_GCCGAGTGTGACTG


title: 10X38_2_GCCGGAACCCATAG


title: 10X38_2_GCCGACGATGAGCT


title: 10X38_2_GCCCAGGAATGGTC


title: 10X38_2_GCCCAGGATGAGGG


title: 10X38_2_GCCATCACTCTTTG


title: 10X38_2_GCCACGGACACACA


title: 10X38_2_GCCATGCTTGGTTG


title: 10X38_2_GCCAAATGCTTCTA


title: 10X38_2_GCCAACCTCTAGAC


title: 10X38_2_GCCACGGATCACCC


title: 10X38_2_GCCAACCTGCTGTA


title: 10X38_2_GCCAAATGACGTTG


title: 10X38_2_GCCAAATGCCCAAA


title: 10X38_2_GCCAAAACACACAC


title: 10X38_2_GCCAAAACGCTATG


title: 10X38_2_GCATTGGAGAAACA


title: 10X38_2_GCATTGGATGCAAC


title: 10X38_2_GCCTACACCAGTTG


title: 10X38_2_GCATGTGATACTTC


title: 10X38_2_GCATGTGACCTCCA


title: 10X38_2_GCAGTCCTATAAGG


title: 10X38_2_GCAGCTCTTTGCAG


title: 10X38_2_GCAGGGCTGTTAGC


title: 10X38_2_GCAGCTCTCAAGCT


title: 10X38_2_GCCGACGAAGTCGT


title: 10X38_2_GCATGATGCGTAAC


title: 10X38_2_GCAGCTCTCGGAGA


title: 10X38_2_GCCACTACATGACC


title: 10X38_2_GCAGCGTGCACACA


title: 10X38_2_GCAGCCGATGACAC


title: 10X38_2_GCCAACCTGGTCAT


title: 10X38_2_GCAGATACTTGCGA


title: 10X38_2_GCATGATGGGTAGG


title: 10X38_2_GCACTGCTGCATCA


title: 10X38_2_GCATGATGAAGATG


title: 10X38_2_GCACTGCTCCAAGT


title: 10X38_2_GCACGGTGTGGTCA


title: 10X38_2_GCACTAGACGATAC


title: 10X38_2_GCACGGTGGTTTGG


title: 10X38_2_GCACGGACTAACGC


title: 10X38_2_GCACACCTGCGGAA


title: 10X38_2_GCACACCTTGTGCA


title: 10X38_2_GCACCTACCACTTT


title: 10X38_2_GCACACCTAACCGT


title: 10X38_2_GCACTAGAACAGCT


title: 10X38_2_GCACGGACAGTCGT


title: 10X38_2_GCACGTCTGGAAGC


title: 10X38_2_GCACAATGTCACGA


title: 10X38_2_GCACCTTGAGGGTG


title: 10X38_2_GCACCTTGGTTGGT


title: 10X38_2_GCACAATGTATTCC


title: 10X38_2_GCACAATGAGCCTA


title: 10X38_2_GCACAATGACACAC


title: 10X38_2_GCACAAACCCAAGT


title: 10X38_2_GCAATTCTGAGGAC


title: 10X38_2_GCAGATACCTGAAC


title: 10X38_2_GCAGATACCTTAGG


title: 10X38_2_GCAATCGATGGAAA


title: 10X38_2_GCACGGACACGGTT


title: 10X38_2_GCAACTGATGAACC


title: 10X38_2_GCACACCTCTGGTA


title: 10X38_2_GCACAATGAGGTCT


title: 10X38_2_GCAACCCTTTGTCT


title: 10X38_2_GATTTAGATGTCAG


title: 10X38_2_GATTTGCTTTGTGG


title: 10X38_2_GATTTAGAAAACAG


title: 10X38_2_GATTGGACCGTGAT


title: 10X38_2_GCAAACTGAAAGCA


title: 10X38_2_GATGCATGTGGTAC


title: 10X38_2_GATTCGGATAAAGG


title: 10X38_2_GATTCGGAACGTAC


title: 10X38_2_GATGCATGTGCCAA


title: 10X38_2_GATTCGGATGAAGA


title: 10X38_2_GATTCTACGACGAG


title: 10X38_2_GATCTACTAGTGTC


title: 10X38_2_GATCTACTGTCTTT


title: 10X38_2_GATTGGTGCTTGTT


title: 10X38_2_GATTCTTGGGCAAG


title: 10X38_2_GATGCAACCCCACT


title: 10X38_2_GATTCTTGACGTGT


title: 10X38_2_GATCGTGAGTTGAC


title: 10X38_2_GATGCAACTTCCAT


title: 10X38_2_GATCGAACGAGGGT


title: 10X38_2_GATCCGCTGTACCA


title: 10X38_2_GATCCGCTCTTACT


title: 10X38_2_GATCCGCTCTAGCA


title: 10X38_2_GATCCGCTCGTGTA


title: 10X38_2_GATCCCTGCTCTAT


title: 10X38_2_GATTTAGAAAGTGA


title: 10X38_2_GATATTGAGAGGAC


title: 10X38_2_GATATTGAAATCGC


title: 10X38_2_GATATTGAAGTCAC


title: 10X38_2_GATATATGCATTGG


title: 10X38_2_GATATCCTAAAAGC


title: 10X38_2_GATAGAGATTACTC


title: 10X38_2_GATAGAGACGAGAG


title: 10X38_2_GATAATACATTCCT


title: 10X38_2_GATAAGGAGGTCTA


title: 10X38_2_GATAAGGATTCTTG


title: 10X38_2_GAGTGTTGAACAGA


title: 10X38_2_GAGTGACTTGGGAG


title: 10X38_2_GAGTACTGGCAGAG


title: 10X38_2_GAGTGACTTCTGGA


title: 10X38_2_GAGTACACGGCGAA


title: 10X38_2_GAGTACTGACCTTT


title: 10X38_2_GAGGTTTGTGAGCT


title: 10X38_2_GAGGTACTGGAGCA


title: 10X38_2_GAGGTACTCATGAC


title: 10X38_2_GAGGTTTGGTGCTA


title: 10X38_2_GAGTAAGAGACAAA


title: 10X38_2_GAGGGTGACTTGAG


title: 10X38_2_GAGGGTGATTCTCA


title: 10X38_2_GAGGTTACCAGTTG


title: 10X38_2_GAGGGTGACGTAGT


title: 10X38_2_GAGGGCCTTACTCT


title: 10X38_2_GAGGGCCTGCTAAC


title: 10X38_2_GAGGGCCTATTCTC


title: 10X38_2_GAGGGATGCTGAAC


title: 10X38_2_GAGGGAACTCCAAG


title: 10X38_2_GAGGGAACGTATCG


title: 10X38_2_GAGGGAACGCTTAG


title: 10X38_2_GAGGCCACATCTCT


title: 10X38_2_GAGGGAACACGTGT


title: 10X38_2_GAGGCAGAAAAACG


title: 10X38_2_GAGCTCCTTAGAAG


title: 10X38_2_GGACCCGAGTTGTG


title: 10X38_2_GAGCGAGAAGACTC


title: 10X38_2_GAGGCAGAACGACT


title: 10X38_2_GAGCAGGATGCAGT


title: 10X38_2_GAGGCAGAGGTACT


title: 10X38_2_GAGCGAGACAGAGG


title: 10X38_2_GAGCATACGCTGAT


title: 10X38_2_GAGCAACTCCTCGT


title: 10X38_2_GAGATGCTAAACGA


title: 10X38_2_GAGATGCTGAAACA


title: 10X38_2_GAGGGTGAAGTCAC


title: 10X38_2_GAGATAGAGCGTTA


title: 10X38_2_GAGATAGATTGTGG


title: 10X38_2_GAGCAGGATTTGGG


title: 10X38_2_GACTGATGTCATTC


title: 10X38_2_GACTGAACCAGATC


title: 10X38_2_GACTGATGACCTAG


title: 10X38_2_GACTCCTGTTTCGT


title: 10X38_2_GACTACGATCGTAG


title: 10X38_2_GACTACGATGAACC


title: 10X38_2_GACTACGACTGAAC


title: 10X38_2_GAGCGCACTTCATC


title: 10X38_2_GAGCGAGATGCCTC


title: 10X38_2_GACGTCCTCTCTAT


title: 10X38_2_GACGTAACGTCAAC


title: 10X38_2_GACGATTGTGGCAT


title: 10X38_2_GACGCTCTGATGAA


title: 10X38_2_GACGTATGTAAAGG


title: 10X38_2_GACGCCGATGTGGT


title: 10X38_2_GACGCCGATGGTGT


title: 10X38_2_GACGCCGACCCTTG


title: 10X38_2_GACGATTGAGAACA


title: 10X38_2_GACGATTGGGTAAA


title: 10X38_2_GACCTCACAGCCTA


title: 10X38_2_GACCAAACCCTAAG


title: 10X38_2_GACAGTACTTGACG


title: 10X38_2_GACCAAACTCTTAC


title: 10X38_2_GACCATGAGAGCTT


title: 10X38_2_GACGAGGAGCTGTA


title: 10X38_2_GACAGTACAAGTAG


title: 10X38_2_GACCTAGAAGCCTA


title: 10X38_2_GACAGTACGGATCT


title: 10X38_2_GACCAAACACCAAC


title: 10X38_2_GACAGGGAAACGTC


title: 10X38_2_GACAGGGAGTCATG


title: 10X38_2_GACAACTGTCTTTG


title: 10X38_2_GACAACTGGGGATG


title: 10X38_2_GACAACTGGGCGAA


title: 10X38_2_GACAACACGGTGTT


title: 10X38_2_GACGCCGATTACTC


title: 10X38_2_GAATTAACAAAACG


title: 10X38_2_GAATGCTGGTCATG


title: 10X38_2_GAATGCACCGCAAT


title: 10X38_2_GAAGTGCTCGTTAG


title: 10X38_2_GAAGTGCTCGAACT


title: 10X38_2_GAATGCTGAGGCGA


title: 10X38_2_GAATGCTGGGTTTG


title: 10X38_2_GAAGTCACACGGAG


title: 10X38_2_GAAGTCTGACGTAC


title: 10X38_2_GAAGGTCTGTACGT


title: 10X38_2_GAAGTAGACCTGTC


title: 10X38_2_GAAGGTCTTCCTCG


title: 10X38_2_GAAGGGTGCGCATA


title: 10X38_2_GAAGTAGATTAGGC


title: 10X38_2_GAAGCTTGTGGATC


title: 10X38_2_GAAGCTACGTTCTT


title: 10X38_2_GAAGATGATTCTCA


title: 10X38_2_GAAGCTACAAACAG


title: 10X38_2_GACACTGATGCCTC


title: 10X38_2_GAAGATGAGTTGCA


title: 10X38_2_GAAGATGAATTCTC


title: 10X38_2_GAAGGGTGACGACT


title: 10X38_2_GAAGCGGATCCTCG


title: 10X38_2_GAAGAATGCGTTGA


title: 10X38_2_GAAGAATGAAGCAA


title: 10X38_2_GAACTGTGTTACTC


title: 10X38_2_GAACAGCTTTACCT


title: 10X38_2_GAATGGCTGGTACT


title: 10X38_2_GAAGTGCTGGTTCA


title: 10X38_2_GAAATACTCTACGA


title: 10X38_2_GAAAGTGAGTCTGA


title: 10X38_2_GAAGGGTGTGGAGG


title: 10X38_2_GAACACACACCTAG


title: 10X38_2_GAAATACTACCTGA


title: 10X38_2_GAACAGCTGGGCAA


title: 10X38_2_GAAACAGATGGTAC


title: 10X38_2_GAAAGCCTGGAGCA


title: 10X38_2_GAAACAGAATAAGG


title: 10X38_2_CTTTCAGATCGACA


title: 10X38_2_CTTTCAGACAGAAA


title: 10X38_2_CTTTCAGAATGTGC


title: 10X38_2_CTTTAGTGTCCTTA


title: 10X38_2_CTTTAGTGTCTGGA


title: 10X38_2_CTTTGATGTCCCGT


title: 10X38_2_CTTGAGGATTACCT


title: 10X38_2_CTTGAACTGAGATA


title: 10X38_2_CTTGTATGTCGCCT


title: 10X38_2_CTTGTATGAAGGGC


title: 10X38_2_CTTCACCTCACCAA


title: 10X38_2_CTTGAACTGACAAA


title: 10X38_2_CTTCATGAAGGTTC


title: 10X38_2_CTTATCGATTGCTT


title: 10X38_2_CTTAGACTCCGTAA


title: 10X38_2_CTTAGGGAGAAGGC


title: 10X38_2_GAAAGTGACTTAGG


title: 10X38_2_CTTATCGAAGGCGA


title: 10X38_2_GAAACCTGTCCCAC


title: 10X38_2_CTTAGACTACAGTC


title: 10X38_2_CTTACATGCTCATT


title: 10X38_2_CTTACATGTCGTGA


title: 10X38_2_CTTACATGAGCTCA


title: 10X38_2_CTTACATGGACGGA


title: 10X38_2_CTTACATGACTCAG


title: 10X38_2_CTTAAAGATGTGAC


title: 10X38_2_CTTAAGCTCAGCTA


title: 10X38_2_CTTAACACAACTGC


title: 10X38_2_CTTAACACCCGTAA


title: 10X38_2_CTGGATGAGCCCTT


title: 10X38_2_CTGTATACATCGAC


title: 10X38_2_CTGGCACTGCCAAT


title: 10X38_2_CTGGAAACTGAACC


title: 10X38_2_CTTAAAGACGTTGA


title: 10X38_2_CTTTAGTGTCTTCA


title: 10X38_2_CTGCGACTTTCCCG


title: 10X38_2_CTGTATACGTCTGA


title: 10X38_2_CTGGCACTGCTTAG


title: 10X38_2_CTGATGGATGTGCA


title: 10X38_2_CTGCGACTTCTCGC


title: 10X38_2_CTGATTTGTTCAGG


title: 10X38_2_CTGATGGACGTGAT


title: 10X38_2_CTGCGACTCGTTAG


title: 10X38_2_CTGATGGAGCCATA


title: 10X38_2_CTGATGGAAAGAGT


title: 10X38_2_CTGATGGACAGTTG


title: 10X38_2_CTGATACTCTGATG


title: 10X38_2_CTGAGCCTGAAAGT


title: 10X38_2_CTGAGAACTGTGAC


title: 10X38_2_CTGAGCCTGGATTC


title: 10X38_2_CTGACCACCTATGG


title: 10X38_2_CTGACAGAGGGAGT


title: 10X38_2_CTGGATGAACGCAT


title: 10X38_2_CTGAAGACACGACT


title: 10X38_2_CTCTAATGCTGTGA


title: 10X38_2_CTCTAATGCATTGG


title: 10X38_2_CTCTAAACTCCTCG


title: 10X38_2_CTCTAATGCTCTAT


title: 10X38_2_CTCTAAACTAGAGA


title: 10X38_2_CTCTAAACAGCGGA


title: 10X38_2_CTCGCATGTGTAGC


title: 10X38_2_CTCGCATGTCGCTC


title: 10X38_2_CTCGAGCTTCTCAT


title: 10X38_2_CTCGACACGCTGTA


title: 10X38_2_CTCGAGCTCTGCAA


title: 10X38_2_CTCGAGCTCTGACA


title: 10X38_2_CTCGACACCCGTTC


title: 10X38_2_CTCGACACCCATAG


title: 10X38_2_CTCGACACGCAAGG


title: 10X38_2_CTCGACACAGAATG


title: 10X38_2_CTGAGCCTACTCTT


title: 10X38_2_CTCGAGCTTTTGTC


title: 10X38_2_CTCGAAGATGGAGG


title: 10X38_2_CTCCGAACTCTGGA


title: 10X38_2_CTCGAAGAGCTGAT


title: 10X38_2_CTCGACACCGCTAA


title: 10X38_2_CTCCGAACTCAGTG


title: 10X38_2_CTGAATCTGTTGGT


title: 10X38_2_CTCTAAACTAAGGA


title: 10X38_2_CTCCATCTCTCCAC


title: 10X38_2_CTCCATCTCTCGAA


title: 10X38_2_CTCCACGAGAGCAG


title: 10X38_2_CTCCACGAGCTATG


title: 10X38_2_CTCCACGACCGCTT


title: 10X38_2_CTGAATCTGATAGA


title: 10X38_2_CTCAGCTGCTAGTG


title: 10X38_2_CTCAGCACTTCATC


title: 10X38_2_CTCATTGACCCACT


title: 10X38_2_CTCATTGAAATGCC


title: 10X38_2_CTCAGCACTGGTGT


title: 10X38_2_CTCAGCACCTTACT


title: 10X38_2_CTCAGAGAAAAGTG


title: 10X38_2_CTCAGAGACAGGAG


title: 10X38_2_CTCAGCACACGTAC


title: 10X38_2_CTCAGAGAATCGTG


title: 10X38_2_CTCAGCACACGACT


title: 10X38_2_CTCCGAACCCATGA


title: 10X38_2_CTCAATTGTCTCAT


title: 10X38_2_GAATGGCTTAGAAG


title: 10X38_2_CTCAATTGACGGGA


title: 10X38_2_CTATGTACACCACA


title: 10X38_2_CTATCAACGTCCTC


title: 10X38_2_CTATCCCTTATGCG


title: 10X38_2_CTATTGACACCCAA


title: 10X38_2_CTATGTTGGTTTGG


title: 10X38_2_CTATGTTGTGGAGG


title: 10X38_2_CTATAGCTCAACCA


title: 10X38_2_CTATACTGTCTCAT


title: 10X38_2_CTATAAGATCTCGC


title: 10X38_2_CTATAAGAAGTGCT


title: 10X38_2_CTAGTTTGACTAGC


title: 10X38_2_CTATACTGAAGTGA


title: 10X38_2_CTAGTTTGAGTCTG


title: 10X38_2_CTAGTTACTCTTCA


title: 10X38_2_CTAGTTACGTTGGT


title: 10X38_2_CTAGTTACAGCATC


title: 10X38_2_CTAGGTGACTGCTC


title: 10X38_2_CTAGGCCTTAACGC


title: 10X38_2_CTAGGATGCTCTCG


title: 10X38_2_CTAGATCTCTCAGA


title: 10X38_2_CTAGGTGAAAAAGC


title: 10X38_2_CTAGATCTAAACAG


title: 10X38_2_CTACGGCTCACACA


title: 10X38_2_CTAGAGACACGTGT


title: 10X38_2_CTAGAGACGCTTCC


title: 10X38_2_CTATGTACGTTAGC


title: 10X38_2_CTACAACTGGTCAT


title: 10X38_2_CTATACTGAGCAAA


title: 10X38_2_CTAACACTTGTCGA


title: 10X38_2_CTAACACTGAATGA


title: 10X38_2_CTAAGGACCAACTG


title: 10X38_2_CTAATGCTACGACT


title: 10X38_2_CTAAGGTGACCATG


title: 10X38_2_CTAAGGACAGCAAA


title: 10X38_2_CTAACTACCTCTTA


title: 10X38_2_CGTTATACCAGATC


title: 10X38_2_CGTGATGACTGATG


title: 10X38_2_CTAGGTGACATGCA


title: 10X38_2_CGTTAACTGTACGT


title: 10X38_2_CGTGCACTGTGCAT


title: 10X38_2_CGTGAAACAAGAAC


title: 10X38_2_CTAGGATGGAAAGT


title: 10X38_2_CGTCGACTGCAGTT


title: 10X38_2_CGTCGACTAGGTCT


title: 10X38_2_CGTCGACTACGTTG


title: 10X38_2_CGTCCATGGCCAAT


title: 10X38_2_CGTACCTGTCCCGT


title: 10X38_2_CGTCCATGTTGGCA


title: 10X38_2_CGTCAAGAGCGGAA


title: 10X38_2_CGTCCAACGAATGA


title: 10X38_2_CTAACTACAGCTCA


title: 10X38_2_CGTACCTGGCAAGG


title: 10X38_2_CGTACCACAGTGCT


title: 10X38_2_CGTTAGGAGTACGT


title: 10X38_2_CGGTAAACAGTCAC


title: 10X38_2_CGGTCACTTATCGG


title: 10X38_2_CGTGAATGACTAGC


title: 10X38_2_CGGGCATGAGAACA


title: 10X38_2_CGGTCACTGCCAAT


title: 10X38_2_CGTAACGATGCTTT


title: 10X38_2_CGTGCACTACCTAG


title: 10X38_2_CGGCATCTTCCGAA


title: 10X38_2_CGGCATCTTGAAGA


title: 10X38_2_CGGCGAACCCTATT


title: 10X38_2_CGGCATCTGAGATA


title: 10X38_2_CGGCACGAGGTGTT


title: 10X38_2_CGGCGAACCCGATA


title: 10X38_2_CGTCCATGACACAC


title: 10X38_2_CGTCAAGAGCTATG


title: 10X38_2_CGGCACGAGAACTC


title: 10X38_2_CGGCACGACATGAC


title: 10X38_2_CGGCACGAATTCGG


title: 10X38_2_CGGCACGAAGAGTA


title: 10X38_2_CGGATAACTAGAAG


title: 10X38_2_CGGATATGTTAGGC


title: 10X38_2_CGGATAACAACCTG


title: 10X38_2_CGGATAACAGAATG


title: 10X38_2_CGGATATGAGTCAC


title: 10X38_2_CGGTACCTCGTAGT


title: 10X38_2_CGGAGGCTTGTCAG


title: 10X38_2_CGGGACTGACAGTC


title: 10X38_2_CGGAGGCTTCGATG


title: 10X38_2_CGGACTCTTGGTGT


title: 10X38_2_CGGAGGCTAACCGT


title: 10X38_2_CGGACTCTAGTCGT


title: 10X38_2_CGGACTCTGTCACA


title: 10X38_2_CGGAATTGGTCCTC


title: 10X38_2_CGGCATCTCCCTTG


title: 10X38_2_CGCTACTGGCAGTT


title: 10X38_2_CGCTCATGTATGGC


title: 10X38_2_CGCGATCTACTGGT


title: 10X38_2_CGGAATTGGACTAC


title: 10X38_2_CGCTAAGAGTTCGA


title: 10X38_2_CGCGAGACTCCCGT


title: 10X38_2_CGCCGAGAAAGCAA


title: 10X38_2_CGCCTAACTGGTGT


title: 10X38_2_CGCTACTGAATCGC


title: 10X38_2_CGCCATTGGCCTTC


title: 10X38_2_CGCCATTGGGTAAA


title: 10X38_2_CGCCATTGGAGGGT


title: 10X38_2_CGCAGGTGGCGTTA


title: 10X38_2_CGCCATACCAGAGG


title: 10X38_2_CGCAGGTGGTCGAT


title: 10X38_2_CGCAGGTGGTGAGG


title: 10X38_2_CGCATAGAAGTAGA


title: 10X38_2_CGCCATACGCGATT


title: 10X38_2_CGCAGGACCCTCAC


title: 10X38_2_CGCAGGTGCTGATG


title: 10X38_2_CGCAGGTGCCATGA


title: 10X38_2_CGCACTTGGGTTAC


title: 10X38_2_CGCAGGACAGCCTA


title: 10X38_2_CGCACTACTAAAGG


title: 10X38_2_CGCACGGACATCAG


title: 10X38_2_CGCACGGAGTCAAC


title: 10X38_2_CGCACGGAAGAAGT


title: 10X38_2_CGCACTTGCTCAGA


title: 10X38_2_CGCAACCTTGTGGT


title: 10X38_2_CGCAACCTGTTGCA


title: 10X38_2_CGCACGGAAGCCAT


title: 10X38_2_CGCAACCTTTGTGG


title: 10X38_2_CGCAAATGCTGTAG


title: 10X38_2_CGCAACCTCCTGAA


title: 10X38_2_CGATCCACGAGGCA


title: 10X38_2_CGCAACCTATTCTC


title: 10X38_2_CGATAGACTCTACT


title: 10X38_2_CGAGGCTGGAGCTT


title: 10X38_2_CGATAGACGGTGGA


title: 10X38_2_CGAGGGCTATGGTC


title: 10X38_2_CGATCAGAGCTGTA


title: 10X38_2_CGAGGCTGACGTTG


title: 10X38_2_CGAGGCACTTCCGC


title: 10X38_2_CGAGGAGATTCAGG


title: 10X38_2_CGAGCGTGTATTCC


title: 10X38_2_CGAGGAGAGGTAAA


title: 10X38_2_CGAGGCACACGTAC


title: 10X38_2_CGAGCCGATAGTCG


title: 10X38_2_CGACGTCTGGAGCA


title: 10X38_2_CGACCTTGCACTAG


title: 10X38_2_CGAGCCGACTGAGT


title: 10X38_2_CGCAACCTGTTCAG


title: 10X38_2_CGACCTACGTAAAG


title: 10X38_2_CGACCTACCTGGTA


title: 10X38_2_CGACCTACGAAACA


title: 10X38_2_CGACCGGAGGAACG


title: 10X38_2_CGACAAACTTAGGC


title: 10X38_2_CGAATCGAGGCAAG


title: 10X38_2_CGAATCGACAGGAG


title: 10X38_2_CGAAGTACACAGCT


title: 10X38_2_CGAATCGATTCTAC


title: 10X38_2_CGAAGACTCTGTTT


title: 10X38_2_CGAATCGACACTTT


title: 10X38_2_CGAACATGCGCCTT


title: 10X38_2_CCTTTAGATCCTCG


title: 10X38_2_CCTTTAGAGTCTGA


title: 10X38_2_CCTTTAGACTGCTC


title: 10X38_2_CCTTCACTTAAGGA


title: 10X38_2_CGACCACTACACTG


title: 10X38_2_CCTTTAGAACCTTT


title: 10X38_2_CCTGAGCTACCAGT


title: 10X38_2_CCTGAGCTAGTCTG


title: 10X38_2_CCTGGACTCATCAG


title: 10X38_2_CCTCGAACTGTTTC


title: 10X38_2_CGAGATTGGAGGTG


title: 10X38_2_CCTTAATGCGTGAT


title: 10X38_2_CCTAGAGATCTAGG


title: 10X38_2_CCTAAACTCTGTTT


title: 10X38_2_CCGTAAGACAACTG


title: 10X38_2_CCTAGAGAGATAGA


title: 10X38_2_CCGGAGACTTCTCA


title: 10X38_2_CCGCTATGCTCTCG


title: 10X38_2_CCGCGAGATCCCAC


title: 10X38_2_CCGGAGACGAGGCA


title: 10X38_2_CCGCTATGCACTAG


title: 10X38_2_CCGAAAACTAGCCA


title: 10X38_2_CCGAAAACCATGCA


title: 10X38_2_CCGGAGACACTGTG


title: 10X38_2_CCGAAAACAAGCCT


title: 10X38_2_CCGAAAACAAAGTG


title: 10X38_2_CCCTGAACCCAATG


title: 10X38_2_CCCTGAACGACGGA


title: 10X38_2_CCCTAGTGGAGGTG


title: 10X38_2_CCGATAGACCGCTT


title: 10X38_2_CCGACACTAGGCGA


title: 10X38_2_CCCTACGAAATGCC


title: 10X38_2_CCCTAGTGTTGAGC


title: 10X38_2_CCCGGAGAGATAGA


title: 10X38_2_CCCGAACTCGTAGT


title: 10X38_2_CCCATCGAGAATAG


title: 10X38_2_CCTGACTGCACTTT


title: 10X38_2_CCCGAACTCTGAAC


title: 10X38_2_CCCACATGAACCAC


title: 10X38_2_CCCAACTGTGAGAA


title: 10X38_2_CCCACATGCGTTAG


title: 10X38_2_CCCAACACCAAAGA


title: 10X38_2_CCCAAAGATGGCAT


title: 10X38_2_CCCAAAGATGTGGT


title: 10X38_2_CCCAACACGCAGAG


title: 10X38_2_CCATTAACCTTGCC


title: 10X38_2_CCATGCTGTCAGTG


title: 10X38_2_CCCTGAACAGAGTA


title: 10X38_2_CCATCCGATACGAC


title: 10X38_2_CCATCCGAGTCCTC


title: 10X38_2_CCATAGGACTACGA


title: 10X38_2_CCATCCGAGTAAAG


title: 10X38_2_CCATCGTGGCAGAG


title: 10X38_2_CCATAGGACAAAGA


title: 10X38_2_CCAGTGCTCCAACA


title: 10X38_2_CCAGTGCTAGATGA


title: 10X38_2_CCAGTGCTACCTAG


title: 10X38_2_CCATAGGACCTCCA


title: 10X38_2_CCAGCTACTCAGGT


title: 10X38_2_CCAGTCTGACGCAT


title: 10X38_2_CCAGCTACCCTACC


title: 10X38_2_CCATCCGACGTGTA


title: 10X38_2_CCAGCGGACAGAAA


title: 10X38_2_CCAGATGAGTTACG


title: 10X38_2_CCAGCGGAACGGAG


title: 10X38_2_CCAGATGAGAACCT


title: 10X38_2_CCAGACCTGGGATG


title: 10X38_2_CCAGATGAACGGAG


title: 10X38_2_CCACTTCTTTCGGA


title: 10X38_2_CCACTTCTGGTGGA


title: 10X38_2_CCCATGTGGGAAAT


title: 10X38_2_CCATGCTGGCTGTA


title: 10X38_2_CCACTGTGCAATCG


title: 10X38_2_CCACTGACTGCGTA


title: 10X38_2_CCATCGTGACGGTT


title: 10X38_2_CCACGGGAGTGCAT


title: 10X38_2_CCACCTGAGGTTCA


title: 10X38_2_CCACCTGACTGGAT


title: 10X38_2_CCACCTGACCCTAC


title: 10X38_2_CCACCATGTGGGAG


title: 10X38_2_CCACCATGCTTCTA


title: 10X38_2_CCACCATGATCTTC


title: 10X38_2_CCACCATGAGGGTG


title: 10X38_2_CCACCATGTGAGAA


title: 10X38_2_CCAGATGATTCATC


title: 10X38_2_CCAATTTGAACGTC


title: 10X38_2_CCAATTTGTATCTC


title: 10X38_2_CCAAGATGAGAATG


title: 10X38_2_CCAATTTGTTGGTG


title: 10X38_2_CCAATGGATGAGGG


title: 10X38_2_CCAAAGTGTACTTC


title: 10X38_2_CCAAGATGCTACGA


title: 10X38_2_CCAAGATGGCAGTT


title: 10X38_2_CCACTGTGGTCTTT


title: 10X38_2_CCAAGAACTCTCTA


title: 10X38_2_CATTTGTGACGGTT


title: 10X38_2_CATTTGACTCTGGA


title: 10X38_2_CATTTGACTCGACA


title: 10X38_2_CATTGGGACTGATG


title: 10X38_2_CATTGTACTTAGGC


title: 10X38_2_CATTGGGACGATAC


title: 10X38_2_CATTGACTTCCAAG


title: 10X38_2_CATTGGGAAAGTGA


title: 10X38_2_CATTGACTGGTCTA


title: 10X38_2_CATTCCCTGAATCC


title: 10X38_2_CCACCTGAAAGGCG


title: 10X38_2_CATTCCCTGAAAGT


title: 10X38_2_CATTCCCTACTCTT


title: 10X38_2_CATTCCCTAAGGCG


title: 10X38_2_CATTAGCTGGTAAA


title: 10X38_2_CATGTTTGGTACCA


title: 10X38_2_CATGTTACTGCTTT


title: 10X38_2_CATGTTACCGTGAT


title: 10X38_2_CATGTTACCTGACA


title: 10X38_2_CATGTACTTGGGAG


title: 10X38_2_CATGTACTCTACTT


title: 10X38_2_CATGGATGAAGTGA


title: 10X38_2_CATGCCACTGTTTC


title: 10X38_2_CATGCCACTATGGC


title: 10X38_2_CATCTTGATGAGCT


title: 10X38_2_CATCTTGACTGACA


title: 10X38_2_CATGAGACTCGACA


title: 10X38_2_CATCTCCTTTGCAG


title: 10X38_2_CATGCCACAGCAAA


title: 10X38_2_CATCGGCTGAAGGC


title: 10X38_2_CATCGGCTCCAAGT


title: 10X38_2_CATCGCTGGGTATC


title: 10X38_2_CATCCCGATTCGTT


title: 10X38_2_CATCCCGATGACAC


title: 10X38_2_CATCCCGAAGGTCT


title: 10X38_2_CATCCCGAAGCCTA


title: 10X38_2_CATCAGGAACGTGT


title: 10X38_2_CATCAGGACTACCC


title: 10X38_2_CATATAGACGCAAT


title: 10X38_2_CATCAACTTCTTCA


title: 10X38_2_CATACTACTAGCCA


title: 10X38_2_CATACTACGTTGAC


title: 10X38_2_CATACTACGATAGA


title: 10X38_2_CATAACCTAGAGGC


title: 10X38_2_CATCTTGACTTGAG


title: 10X38_2_CATAAATGGTTGGT


title: 10X38_2_CATAAATGGTAAGA


title: 10X38_2_CATACTACGTCTAG


title: 10X38_2_CATAAAACCGATAC


title: 10X38_2_CATCTCCTTAACCG


title: 10X38_2_CAGTTACTCTGAGT


title: 10X38_2_CAGTTACTTCCGTC


title: 10X38_2_CAGTTTACCAGGAG


title: 10X38_2_CATAAAACCACTAG


title: 10X38_2_CAGTTTACGGTGAG


title: 10X38_2_CAGTTACTATCGAC


title: 10X38_2_CAGTTACTAGTGTC


title: 10X38_2_CAGTTGGAGTTGTG


title: 10X38_2_CAGTGATGGTAAGA


title: 10X38_2_CAGTTACTAGATCC


title: 10X38_2_CAGTGATGCTGTGA


title: 10X38_2_CAGTCAGAGGTGGA


title: 10X38_2_CAGTGATGCATTTC


title: 10X38_2_CATAGTCTGTTGCA


title: 10X38_2_CATCAACTTCTCTA


title: 10X38_2_CATACTTGTTGCGA


title: 10X38_2_CATACTTGCCTCAC


title: 10X38_2_CAGTCAGAAGCAAA


title: 10X38_2_CAGGTTGAATCGGT


title: 10X38_2_CAGGTATGGTTTGG


title: 10X38_2_CAGGTAACTATGCG


title: 10X38_2_CAGGCCGAATCGTG


title: 10X38_2_CAGGAACTCTATTC


title: 10X38_2_CAGCTCTGCCCAAA


title: 10X38_2_CAGCTAGAGGTCAT


title: 10X38_2_CAGCGTCTCGGGAA


title: 10X38_2_CAGGTAACCCTCAC


title: 10X38_2_CAGCGGACCCTTAT


title: 10X38_2_CAGCGTCTCCGCTT


title: 10X38_2_CAGCCTTGCATGCA


title: 10X38_2_CAGCCTACAATCGC


title: 10X38_2_CAGCATGAGGTGAG


title: 10X38_2_CAGTTGGAACGTGT


title: 10X38_2_CAGCACCTTAGCCA


title: 10X38_2_CAGCGTCTCGCTAA


title: 10X38_2_CAGCCTTGCAGTCA


title: 10X38_2_CAGATGACATGCTG


title: 10X38_2_CAGATGACGTCTAG


title: 10X38_2_CAGATCGAGTGCTA


title: 10X38_2_CAGCACCTGCCCTT


title: 10X38_2_CAGATCGAGCCATA


title: 10X38_2_CAGATCGAAGCAAA


title: 10X38_2_CAGACTGATCAGAC


title: 10X38_2_CAGACTGAAATCGC


title: 10X38_2_CAGAGGGATACGAC


title: 10X38_2_CAGACCCTTTCTTG


title: 10X38_2_CAGACCCTGCTGAT


title: 10X38_2_CAGACCCTCGTGTA


title: 10X38_2_CAGACAACTGATGC


title: 10X38_2_CACTTTGACGGAGA


title: 10X38_2_CACTTAACTGTCCC


title: 10X38_2_CAGAAGCTGTCTAG


title: 10X38_2_CAGCCTACTCCTTA


title: 10X38_2_CACTGAGAACGTGT


title: 10X38_2_CACTCTCTAAGCAA


title: 10X38_2_CACTAGGAGCCCTT


title: 10X38_2_CACTCCGAATGTGC


title: 10X38_2_CACTATACACCCAA


title: 10X38_2_CACTATACTGAGGG


title: 10X38_2_CACTAACTGGTATC


title: 10X38_2_CACTAACTTTCCCG


title: 10X38_2_CACGGGTGGCATAC


title: 10X38_2_CACGATGATTATCC


title: 10X38_2_CACGATGACCCACT


title: 10X38_2_CACGGGTGGTGCAT


title: 10X38_2_CACGGGACGACAAA


title: 10X38_2_CACGAAACAAGCAA


title: 10X38_2_CACGATGAGCCAAT


title: 10X38_2_CACCGGGAAAGGCG


title: 10X38_2_CAGAAGCTTGAACC


title: 10X38_2_CACGACCTAGTAGA


title: 10X38_2_CACCCATGGTTAGC


title: 10X38_2_CACTTAACCCATAG


title: 10X38_2_CACTGCACAGAGTA


title: 10X38_2_CACAGATGACACGT


title: 10X38_2_CACAGAACGTTGCA


title: 10X38_2_CACAGAACGCTAAC


title: 10X38_2_CACTAACTAGTGCT


title: 10X38_2_CACGGGACTCCTCG


title: 10X38_2_CACGGGACGGAAAT


title: 10X38_2_CACACCTGTAGAGA


title: 10X38_2_CACAATCTTTCCGC


title: 10X38_2_CACACCTGGTGTTG


title: 10X38_2_CACAACGATCCTCG


title: 10X38_2_CACAATCTGCGAAG


title: 10X38_2_CAATTCTGTCCGAA


title: 10X38_2_CAATTCTGCATTTC


title: 10X38_2_CAATGGACCCTGTC


title: 10X38_2_CAATTCACATCACG


title: 10X38_2_CAATTCACCTTGTT


title: 10X38_2_CAATCTACCTAGTG


title: 10X38_2_CACCGTTGGAGATA


title: 10X38_2_CAATTCACCCTGTC


title: 10X38_2_CAATCGGAGGGTGA


title: 10X38_2_CACATGGATTTCGT


title: 10X38_2_CACAGATGTATGCG


title: 10X38_2_CACCACTGCTGTAG


title: 10X38_2_CAATATGACAAAGA


title: 10X38_2_CAAGTCGACCCACT


title: 10X38_2_CAAGGACTTAGTCG


title: 10X38_2_CACAATCTCTGTCC


title: 10X38_2_CAAGCTGAGATACC


title: 10X38_2_CAAGCCCTTTTCGT


title: 10X38_2_CAAGCCCTTTCCCG


title: 10X38_2_CAAGCTGATCTCAT


title: 10X38_2_CAAGACTGGGAAAT


title: 10X38_2_CAAGACACCTAGTG


title: 10X38_2_CAAGACACTGAGGG


title: 10X38_2_CAATTCACGGGTGA


title: 10X38_2_CAAGACACACCTCC


title: 10X38_2_CAACTTTGCTGATG


title: 10X38_2_CAATATGATGTAGC


title: 10X38_2_CAACTTTGCTGCTC


title: 10X38_2_CAACTTTGATCAGC


title: 10X38_2_CAACGAACAGAACA


title: 10X38_2_CAACGATGGACGGA


title: 10X38_2_CAACGATGTAGACC


title: 10X38_2_CAACAGACAACCTG


title: 10X38_2_CAACGATGAAAGTG


title: 10X38_2_CAACCAGAGGTGGA


title: 10X38_2_CAAGAAGATCTTAC


title: 10X38_2_CAAAGCACACCTTT


title: 10X38_2_CAAATTGATATCTC


title: 10X38_2_CACAACGATACAGC


title: 10X38_2_CAAATTGACTATTC


title: 10X38_2_ATTTCCGATCTACT


title: 10X38_2_ATTTGCACATTCTC


title: 10X38_2_ATTTCCGAGAGAGC


title: 10X38_2_CAATAAACTAACCG


title: 10X38_2_ATTTCCGAACGACT


title: 10X38_2_ATTTAGGACTTATC


title: 10X38_2_CAACCGCTCCGAAT


title: 10X38_2_CACCGTTGGGCAAG


title: 10X38_2_ATTGGTCTTGTAGC


title: 10X38_2_ATTGGTCTGGGAGT


title: 10X38_2_ATTGTCTGGCCATA


title: 10X38_2_ATTGGGTGAGTACC


title: 10X38_2_ATTGCTACCTGATG


title: 10X38_2_ATTGCACTCCGATA


title: 10X38_2_ATTGCTTGGAGGGT


title: 10X38_2_ATTGCTTGGTCGTA


title: 10X38_2_ATTGCTACCCGATA


title: 10X38_2_ATTGATGATGAAGA


title: 10X38_2_ATTGATGATGTGAC


title: 10X38_2_ATTCTGACCCAAGT


title: 10X38_2_ATTCCATGATGCTG


title: 10X38_2_ATTCGGGAAACGTC


title: 10X38_2_ATTCAGCTCCCACT


title: 10X38_2_ATTGATGAGGTCTA


title: 10X38_2_ATTAGTGAGAGGTG


title: 10X38_2_ATTCTTCTGTTGTG


title: 10X38_2_ATTAGTGAAAGGGC


title: 10X38_2_ATTATGGAGAGGGT


title: 10X38_2_ATTACCTGCCGTAA


title: 10X38_2_ATTACCACTGCCCT


title: 10X38_2_ATTGTAGACTGTAG


title: 10X38_2_ATTACCACGGCGAA


title: 10X38_2_ATTAACGAGTCAAC


title: 10X38_2_ATGTTGCTTCTTAC


title: 10X38_2_ATGTTGCTCAGATC


title: 10X38_2_ATGTCGGATCACGA


title: 10X38_2_ATGTCGGATCAAGC


title: 10X38_2_ATGTTAGAGATAAG


title: 10X38_2_ATGTTGCTCCTTAT


title: 10X38_2_ATGTTCACCATCAG


title: 10X38_2_ATGTTAGATTCTAC


title: 10X38_2_ATGGTGACTGGTAC


title: 10X38_2_ATGTCACTAATGCC


title: 10X38_2_ATGGGTACTTGGCA


title: 10X38_2_ATGGTGACACTCTT


title: 10X38_2_ATGGGTACAAGAAC


title: 10X38_2_ATGCTTTGCTTCTA


title: 10X38_2_ATGGGTACTCCAAG


title: 10X38_2_ATGGACACGTCTAG


title: 10X38_2_ATGCTTTGCCTTAT


title: 10X38_2_ATGCGCCTCTTTAC


title: 10X38_2_ATGCTTTGCTGTTT


title: 10X38_2_ATGCCGCTGGTGAG


title: 10X38_2_ATGCAGTGGTGCAT


title: 10X38_2_ATGCCAGAGACGTT


title: 10X38_2_ATGCCGCTATGACC


title: 10X38_2_ATGCAGTGGGACTT


title: 10X38_2_ATGCAGTGAATCGC


title: 10X38_2_ATGCAGTGATTCGG


title: 10X38_2_ATGCAGACAAGAGT


title: 10X38_2_ATGCACGAGGAAGC


title: 10X38_2_ATGCACGATCCAAG


title: 10X38_2_ATGCACGAGTGCAT


title: 10X38_2_ATGCACGAAGAGAT


title: 10X38_2_ATGATAACGGTAGG


title: 10X38_2_ATGAGAGACGTAAC


title: 10X38_2_ATGACGTGATCAGC


title: 10X38_2_ATGAGCACCTGATG


title: 10X38_2_ATGACGTGTTCTAC


title: 10X38_2_ATGATAACATGGTC


title: 10X38_2_ATGAAGGATTGCAG


title: 10X38_2_ATGAAGGATTATCC


title: 10X38_2_ATGAAGGAATCGTG


title: 10X38_2_ATGAAACTTCCTGC


title: 10X38_2_ATGAAACTTTCTAC


title: 10X38_2_ATGAAACTACCATG


title: 10X38_2_ATCTTTCTCTGAAC


title: 10X38_2_ATGCGATGAGTCTG


title: 10X38_2_ATGAAACTCCGATA


title: 10X38_2_ATCTGTTGTTTCGT


title: 10X38_2_ATCTTGACTACTGG


title: 10X38_2_ATCTGTTGCTCGCT


title: 10X38_2_ATCTGGGAAGCATC


title: 10X38_2_ATCTCAACAGCACT


title: 10X38_2_ATCTACTGCTTGCC


title: 10X38_2_ATCGTTTGCCATAG


title: 10X38_2_ATCGTTTGACTGTG


title: 10X38_2_ATCGGTGATCCTCG


title: 10X38_2_ATCGGAACGGTGGA


title: 10X38_2_ATCGGAACACCCTC


title: 10X38_2_ATCGCGCTTCGCAA


title: 10X38_2_ATCGCAGATAAGCC


title: 10X38_2_ATCGCAGACATCAG


title: 10X38_2_ATCGCGCTTGCATG


title: 10X38_2_ATCGCCTGAGTCTG


title: 10X38_2_ATCGGTGATATGGC


title: 10X38_2_ATCCTAACAGGTCT


title: 10X38_2_ATCCCGTGGTTGGT


title: 10X38_2_ATCCAGGACGTGTA


title: 10X38_2_ATCCTAACCAACTG


title: 10X38_2_ATCATGCTCGACTA


title: 10X38_2_ATCTGGGAGAAGGC


title: 10X38_2_ATCCAGGATCATTC


title: 10X38_2_ATCATGCTCGTCTC


title: 10X38_2_ATCTGACTCGACTA


title: 10X38_2_ATCAGGTGTGTGGT


title: 10X38_2_ATCATCTGCGGAGA


title: 10X38_2_ATCAGGTGCCTGAA


title: 10X38_2_ATCAGGTGACGTAC


title: 10X38_2_ATCACTTGTGTAGC


title: 10X38_2_ATCACTTGGGCATT


title: 10X38_2_ATCAGGTGCAAGCT


title: 10X38_2_ATCACTTGGAAGGC


title: 10X38_2_ATCACGGATAGCGT


title: 10X38_2_ATCACGGAAGATGA


title: 10X38_2_ATCACACTGTTGAC


title: 10X38_2_ATCACACTTAGCGT


title: 10X38_2_ATCAACCTAGTCGT


title: 10X38_2_ATCAAATGTGTGAC


title: 10X38_2_ATCGCAGACGAATC


title: 10X38_2_ATCAAATGTGGTAC


title: 10X38_2_ATCAAATGTCCCAC


title: 10X38_2_ATATGAACTGGAAA


title: 10X38_2_ATCAAATGTCAGTG


title: 10X38_2_ATCATGCTCTTGAG


title: 10X38_2_ATATGCCTTTGCAG


title: 10X38_2_ATATACGAACGTAC


title: 10X38_2_ATATACGAAACTGC


title: 10X38_2_ATAGGAGAGTATGC


title: 10X38_2_ATAGGCTGAGGTCT


title: 10X38_2_ATAGTCCTTCCGTC


title: 10X38_2_ATAGTTGATCTCTA


title: 10X38_2_ATAGTCCTATAAGG


title: 10X38_2_ATAGCGTGTTGCAG


title: 10X38_2_ATAGCGTGGTACGT


title: 10X38_2_ATAGCGTGGCTCCT


title: 10X38_2_ATAGCCGAGCGGAA


title: 10X38_2_ATCACTTGAAACAG


title: 10X38_2_ATAGATTGCCATGA


title: 10X38_2_ATAGATTGCCGAAT


title: 10X38_2_ATAGATACGTCCTC


title: 10X38_2_ATACTCTGACGCTA


title: 10X38_2_ATACTCTGCACACA


title: 10X38_2_ATACGTCTGCAGTT


title: 10X38_2_ATACGTCTTGTAGC


title: 10X38_2_ATACGTCTCAGTCA


title: 10X38_2_ATACGTCTTCCAGA


title: 10X38_2_ATACGGACTAAGGA


title: 10X38_2_ATACCTTGTGCATG


title: 10X38_2_ATACCTTGTGGAAA


title: 10X38_2_ATACCTTGTTCGTT


title: 10X38_2_ATACCTTGTGCACA


title: 10X38_2_ATATAGTGCTTGGA


title: 10X38_2_ATACCTTGCTCAAG


title: 10X38_2_ATACCGGACACTGA


title: 10X38_2_ATAGCTCTCATGCA


title: 10X38_2_ATACCACTCTCAAG


title: 10X38_2_ATACAATGGCTTAG


title: 10X38_2_ATAGCCGAGGATTC


title: 10X38_2_ATAATCGACTCATT


title: 10X38_2_ATACACCTCAACCA


title: 10X38_2_ATAATCGAGATAGA


title: 10X38_2_ATACCGGAAGCGTT


title: 10X38_2_ATAATGACCCATGA


title: 10X38_2_ATAAGTACTTGGTG


title: 10X38_2_ATAAGTTGACTCTT


title: 10X38_2_ATAAGTACAAGTAG


title: 10X38_2_ATAATCGAAACGTC


title: 10X38_2_ATAACAACCTAAGC


title: 10X38_2_ATACACCTGGGTGA


title: 10X38_2_ATAAGTACCACCAA


title: 10X38_2_ATAACCCTCAAGCT


title: 10X38_2_AGTTTGCTAGAGGC


title: 10X38_2_ATAAACACATGACC


title: 10X38_2_AGTTTAGACTGAAC


title: 10X38_2_AGTTGTCTGTTACG


title: 10X38_2_AGTTTGCTGCCCTT


title: 10X38_2_AGTTCTTGAGCTAC


title: 10X38_2_AGTTTGCTCCCGTT


title: 10X38_2_AGTTTCACGGACTT


title: 10X38_2_AGTTCTACCCCACT


title: 10X38_2_ATAATGACTGCCAA


title: 10X38_2_AGTTATGACCCTTG


title: 10X38_2_AGTTATGATCGTAG


title: 10X38_2_AGTTAAACTGTGGT


title: 10X38_2_AGTGTTCTAGATGA


title: 10X38_2_AGTGTTCTGAGGTG


title: 10X38_2_AGTGCAACGCTACA


title: 10X38_2_AGTGTGACTTGGTG


title: 10X38_2_AGTGACTGCTGTGA


title: 10X38_2_AGTGCAACAACCAC


title: 10X38_2_AGTGACTGCGTCTC


title: 10X38_2_AGTGACTGGGGTGA


title: 10X38_2_AGTGACACGGTCAT


title: 10X38_2_AGTGAAGAATGACC


title: 10X38_2_AGTTTGCTCCACAA


title: 10X38_2_AGTCTTACGAAACA


title: 10X38_2_AGTCGCCTGCAGAG


title: 10X38_2_AGTCTTACCACTTT


title: 10X38_2_AGTCGCCTAGCACT


title: 10X38_2_AGTTTAGATTGAGC


title: 10X38_2_AGTCGAACCTCAGA


title: 10X38_2_AGTCCAGATGTGGT


title: 10X38_2_AGTCAGACACAGTC


title: 10X38_2_AGTCACGACCCTAC


title: 10X38_2_AGTCACGAGCGAGA


title: 10X38_2_AGTATAACCTTCCG


title: 10X38_2_AGTATCCTTTCGCC


title: 10X38_2_AGTAGGCTATCGGT


title: 10X38_2_AGTAGGCTCTGCTC


title: 10X38_2_AGTAGGCTCCACAA


title: 10X38_2_AGTAATACATCGTG


title: 10X38_2_AGTAATACAAGAAC


title: 10X38_2_AGTAGAGATGGTCA


title: 10X38_2_AGTAATACGGTATC


title: 10X38_2_AGTAAGGAGCATCA


title: 10X38_2_AGGTTGTGTGTCTT


title: 10X38_2_AGTAAGGAGAGGCA


title: 10X38_2_AGTGAAGAGTCATG


title: 10X38_2_AGTCGCCTGTTTCT


title: 10X38_2_AGGTTGTGGGGTGA


title: 10X38_2_AGGTTGTGACGGGA


title: 10X38_2_AGTCGCCTCAGTTG


title: 10X38_2_AGGTGTTGTCAAGC


title: 10X38_2_AGGTTCGAGCTACA


title: 10X38_2_AGGTTGTGTAGTCG


title: 10X38_2_AGGTCTGAATGCCA


title: 10X38_2_AGGTCATGGGTACT


title: 10X38_2_AGGTACTGGTTGCA


title: 10X38_2_AGGTCTGACCTCGT


title: 10X38_2_AGGTCATGAGCTAC


title: 10X38_2_AGGTACTGCTCTAT


title: 10X38_2_AGGGTTTGGCTCCT


title: 10X38_2_AGGGCGCTGTAGCT


title: 10X38_2_AGGGCCTGCGCTAA


title: 10X38_2_AGGGTGGAACGGTT


title: 10X38_2_AGGGCGCTTGGAGG


title: 10X38_2_AGGGCCACCAAAGA


title: 10X38_2_AGGGACGAAAAAGC


title: 10X38_2_AGGCCTCTTCCAAG


title: 10X38_2_AGGCCTCTAGCATC


title: 10X38_2_AGGCAGGACTGTGA


title: 10X38_2_AGGATGCTAAAAGC


title: 10X38_2_AGGCAGGAGGTAAA


title: 10X38_2_AGGATAGATGCCAA


title: 10X38_2_AGGCAGGACTTACT


title: 10X38_2_AGGAGTCTTTGACG


title: 10X38_2_AGGAGTCTTGAACC


title: 10X38_2_AGGAGTCTGAAAGT


title: 10X38_2_AGGAATGAGACGAG


title: 10X38_2_AGGGTTTGACCAGT


title: 10X38_2_AGGAACCTCTATGG


title: 10X38_2_AGGAATGATCGCAA


title: 10X38_2_AGGACTTGATGCTG


title: 10X38_2_AGCTTTACGTACCA


title: 10X38_2_AGCTTTACCCGATA


title: 10X38_2_AGGAAATGATTGGC


title: 10X38_2_AGGGAGTGTGGTGT


title: 10X38_2_AGCGGGCTTACTTC


title: 10X38_2_AGCTGCCTGTGAGG


title: 10X38_2_AGCGGCTGCTATTC


title: 10X38_2_AGCGGCTGAAAAGC


title: 10X38_2_AGGATGCTTTCACT


title: 10X38_2_AGCGCTCTGCCCTT


title: 10X38_2_AGCGATTGCCAACA


title: 10X38_2_AGCGATTGGATGAA


title: 10X38_2_AGGAATGACGCTAA


title: 10X38_2_AGCGATACATACCG


title: 10X38_2_AGCGATTGGGCATT


title: 10X38_2_AGCGAACTTCCTTA


title: 10X38_2_AGCGAACTTCCCGT


title: 10X38_2_AGCTGTGATGCCAA


title: 10X38_2_AGCTGTGACAGAAA


title: 10X38_2_AGCCTCTGCCACCT


title: 10X38_2_AGCGAACTCTGATG


title: 10X38_2_AGCCGTCTCCTTGC


title: 10X38_2_AGCCGTCTGAGGTG


title: 10X38_2_AGCCTCACTCGCAA


title: 10X38_2_AGCCGTCTCCGTAA


title: 10X38_2_AGCGTAACTACGAC


title: 10X38_2_AGCCGGTGAGCGGA


title: 10X38_2_AGCCGGACTTCAGG


title: 10X38_2_AGCCGGACTGGAGG


title: 10X38_2_AGCCGGACTGAGGG


title: 10X38_2_AGCTGCCTAGGGTG


title: 10X38_2_AGCGCCGAGCAAGG


title: 10X38_2_AGCCGGACGCATAC


title: 10X38_2_AGCCAATGGCATCA


title: 10X38_2_AGCGATTGGCTCCT


title: 10X38_2_AGCCAATGCCCACT


title: 10X38_2_AGCATTCTCCGATA


title: 10X38_2_AGCATCGATTCCAT


title: 10X38_2_AGCATGACATGCTG


title: 10X38_2_AGCCTCTGCGACTA


title: 10X38_2_AGCGAACTCTTCCG


title: 10X38_2_AGCATCGATGTCAG


title: 10X38_2_AGCATTCTAAGCCT


title: 10X38_2_AGCATCGAGCCATA


title: 10X38_2_AGCCTCACTGCCAA


title: 10X38_2_AGCAAAGAAGTGTC


title: 10X38_2_AGCAAAGACGACTA


title: 10X38_2_AGCAAAGATCCTCG


title: 10X38_2_AGCAAAGATGAGAA


title: 10X38_2_AGATTCCTGTCGAT


title: 10X38_2_AGATCTCTTGACTG


title: 10X38_2_AGATTAACGGGATG


title: 10X38_2_AGATCTCTCTTCGC


title: 10X38_2_AGCAACACGTTGTG


title: 10X38_2_AGATCTCTCTACGA


title: 10X38_2_AGATCTCTACTAGC


title: 10X38_2_AGATCTCTAAGTGA


title: 10X38_2_AGCCACCTCTTGAG


title: 10X38_2_AGATCGTGTCCGAA


title: 10X38_2_AGATCGTGAAAACG


title: 10X38_2_AGATATTGGAATCC


title: 10X38_2_AGAGTCTGCCGTTC


title: 10X38_2_AGAGTGCTGTCATG


title: 10X38_2_AGAGGTCTGTGCTA


title: 10X38_2_AGAGGTCTCCTCGT


title: 10X38_2_AGAGCTACGTACCA


title: 10X38_2_AGAGCTACGCGTTA


title: 10X38_2_AGAGAATGTGGATC


title: 10X38_2_AGAGAATGTTGCTT


title: 10X38_2_AGAGATGACGAACT


title: 10X38_2_AGAGCTACACTGTG


title: 10X38_2_AGAGAAACGCTCCT


title: 10X38_2_AGAGAAACTTGACG


title: 10X38_2_AGACTTCTTCCAGA


title: 10X38_2_AGAGAAACATAAGG


title: 10X38_2_AGATCTCTCATGCA


title: 10X38_2_AGACTCGATATTCC


title: 10X38_2_AGACTCGACTGAGT


title: 10X38_2_AGACGTACCTCCCA


title: 10X38_2_AGACGTACTCCAGA


title: 10X38_2_AGAGAAACACGGGA


title: 10X38_2_AGACCTGAGGTACT


title: 10X38_2_AGACCTGAGGCGAA


title: 10X38_2_AGACCTGACTCGAA


title: 10X38_2_AGACACACCAACTG


title: 10X38_2_AGATCGTGACGGTT


title: 10X38_2_AGACACACTCTCAT


title: 10X38_2_AGAATTTGTAGCCA


title: 10X38_2_AGAATGGATTTACC


title: 10X38_2_AGAATTTGGCATCA


title: 10X38_2_AGAATGGATTGTCT


title: 10X38_2_AGAATTTGACCCAA


title: 10X38_2_AGAATGGAGGAAGC


title: 10X38_2_AGAATGGACCTACC


title: 10X38_2_AGAAGATGTGGCAT


title: 10X38_2_AGAATACTCCGAAT


title: 10X38_2_AGAAGATGTCCTCG


title: 10X38_2_AGAACGCTGTCGAT


title: 10X38_2_AGAACGCTTCAGTG


title: 10X38_2_AGAAGATGCCTTGC


title: 10X38_2_AGACCTGATTCACT


title: 10X38_2_AGAACAGAGGTCTA


title: 10X38_2_AGAACGCTCTTATC


title: 10X38_2_AGAAAGTGCTGTCC