title: BY250 strain, EtAc treatment, day 7, rep5

city: Tuscaloosa

first: Guy

last: Caldwell

state: AL

address: 300 Hackberry Lane

department: Biological Sciences

institute: The University of Alabama

data_processing:
Raw reads were filtered to remove adapters or low quality reads
Bioinformatic analysis was performed using Salmon v0.11.3
DEGs were extracted using DESeq2 version 1.24.0 in R
Assembly: WBcel235
Supplementary files format and content: Excel file with a list of differentially expressed genes for day 5.
Supplementary files format and content: Excel file with a list of differentially expressed genes for day 7.
Supplementary files format and content: Excel file with readcounts for each gene for day 5.
Supplementary files format and content: Excel file with readcounts for each gene for day 7.

organism: Caenorhabditis elegans

source_name: whole animal

growth_protocol: Worms were grown on medium NGM plates seeded with OP50 E.coli and grown at 20°C

extract_protocol:
RNA was extracred by freezing and thawing samples in 500μL of Trizol 7 times, then vortexed and iced 7 times. Phases were separated with 100 μL choloform. After separation, the aqueous phase was added to an equal volume of 70% ethanol and subjected to the protocol outlined in the Qiagen RNeasy Micro Kit. RNA was eluted with 35μL of RNase-free water.
mRNA was enriched using oligo(dT) beads and then fragmented randomly in fragmentation buffer, followed by cDNA synthesis using random hexamers and reverse transcriptase. A custom second-strand synthesis buffer (Illumina) was then added with dNTPs, RNase H and E. coli polymerase I. The final cDNA library was ready after a round of purification, terminal repair, A-tailing, ligation of sequencing adapters, size selection and PCR enrichment.

value: whole animal

value: Ethyl Acetate

tag: developmental stage

value: Day 7 post hatching

tag: biological replicate

value: GFP overexpression


title: ChIP Eomes Day3

status: Public on May 03 2023

type: SRA

city: Berlin

first: Pavel

last: Tsaytler

address: Ihnestrasse  63-73

country: Germany

institute: MPI Molecular Genetics

description:
in vitro differentiated cardiac mesoderm progenitors
ChIP_Eomes_Day3.bw

library_source: genomic

data_processing:
For RNA-Seq, reads were subjected to quality control using FastQC (https://www.bioinformatics.babraham.ac.uk/projects/fastqc/) and trimmed using cutadapt (version 2.9) (Martin, https://doi.org/10.14806/ej.17.1.200) to remove adapter sequences. Alignment was performed using Hisat2 (version 2.1.0) (Kim, 2019) with the following arguments: --no-mixed --no-discordant. The index files for Hisat2 were built using mm10 reference genome containing chromosomes 1-19, X, Y and M, and splice sites and exon data from refSeq annotations. The resulting sam format files were then converted to bam format, sorted and indexed using samtools (version 1.9) (Li, 2009). FPKM values were calculated using Cuffdiff (version 2.2.1) (Trapnell, 2010) with the following arguments: -u -no-effective-length-correction -b.
For ChIP-Seq, reads were trimmed to 50 bp length. The trimmed reads were aligned to the reference genome using bowtie2 (version 2.2.4) (Langmead, 2012) with the following arguments: -3 5 -I 100 -X 500 --no-discordant --no-mixed. Sam files containing mapped paired-end reads were converted to bam files, sorted and indexed using samtools. For visualization, the data were normalized and converted to bigWig format using bamCoverage tool from deepTools with the following arguments: --normalizeUsing CPM --extendReads 200 --smoothLength 9 -bs 3 -ignore chrM.
For ATAC-Seq, reads were trimmed to 40 bp length and adapter sequences were removed using cutadapt. The trimmed reads were aligned to the reference genome using bowtie (version 1.1.2) (Langmead, 2009) with the following arguments: -y -v 2 --best --strata -m 3 -k 1 -S -X 2000 --allow-contain. Sam files containing mapped paired-end reads were converted to bam files, sorted and indexed using samtools. Reads mapped to chr M and Y or known ATAC artifact regions (ENCODE) were removed using samtools. Possible PCR duplicates were removed using Picard (version 1.103, https://broadinstitute.github.io/picard). For visualization, the reads from biological replicates were combined, and the data were normalized and converted to bigWig format using bamCoverage tool from deepTools with the following arguments: --normalizeUsing RPCG --effectiveGenomeSize 2652783500 --extendReads 200 --smoothLength 9 -bs 3 -ignore chrY chrM.
Genome_build: mm10
Supplementary_files_format_and_content: bigWig files representing density for ATAC-Seq and ChIP-Seq
Supplementary_files_format_and_content: tab-delimited text files include FPKM values for each RNA-Seq sample for refseq genes

molecule: genomic DNA

organism: Mus musculus

source_name: in vitro differentiated ES cells

growth_protocol: ES cells were deprived of feeder cells and cultured for 24 hours. Cells were then dissociated, and 40,000 cell/ml cell suspension was plated onto tissue culture plates in 5 µl droplets. Plates were then inverted and incubated for 24 hours. Drops containing mES cell aggregates (corresponding to differentiation day 0, or ES) were then pooled and resuspended in differentiation medium: 48% (v/v) DMEM/F12 (ThermoFisher; 11320033), 48% (v/v) Neurobasal medium (ThermoFisher; 21103049), 1% (v/v) 200 mM L-glutamine (Lonza; BE17-605E), 1% (v/v) penicillin and streptomycin, 1% (v/v) B27 (Gibco; 17504044), 0.5% (v/v) N2 (Gibco; 17502048), 0,5% (v/v) 7.5% BSA fraction V (Gibco; 15260037), 0.1 mM thioglycerol (Sigma-Aldrich; M1753) supplemented with 20 ng/ml mouse recombinant Bmp4 (R&D Systems; 5020-BP-010). To start differentiation, mESC aggregates resuspended in differentiation medium containing Bmp4 were immediately plated on plates pre-coated with fibronectin (Calbiochem; 341631). Differentiation medium supplemented with Bmp4 was refreshed every 24 hours.

extract_protocol:
For sonication, complete protease inhibitors without EDTA (Roche) at 1x final concentration was added to all lysis buffers (LB) prior to use. Each pellet was resuspended in 2.5 ml LB1 (50 mM Hepes pH 7.5, 140 mM NaCl, 1 mM EDTA, 10% glycerol, 0.75% NP-40, 0.25% triton X-100) and rotated at 4°C for 20 minutes. The cell suspension was homogenized using a douncer. The chromatin was pelleted by centrifugation at 1400g and 4°C for 5 minutes and resuspended in 2.5 ml LB2 (10 mM Tris pH 8, 200 mM NaCl, 1 mM EDTA, 0.5 mM EGTA). After 10 minutes rotation at 4°C, the centrifugation step was repeated and each pellet was resuspended in 1.5 ml LB3 (10 mM Tris pH 8, 1 mM EDTA, 0.5 mM EGTA, 100 mM NaCl, 0.1% Na-deoxycholate, 0.5% N-lauroylsarcosine), transferred to 15 ml Falcon tubes and sonicated using a W-450D Digital Sonifier (Branson) sonicator for 14 cycles of 10s on/50s off in a 4°C cold room with tubes chilled in ice water. After sonication, 150 μl of Triton X-100 was added per tube, transferred to two 1.5 ml Eppendorf tubes and debris was pelleted by centrifugation at 20,000g and 4°C for 10 minutes. The solubilized chromatin was then pooled and mixed thoroughly. After taking 50 μl as an input control, the chromatin was distributed into 1.5 ml aliquots, snap frozen and stored at -80°C until use.  The input was reverse-crosslinked with the addition of 50 μl 2x elution buffer (100 mM Tris pH 8, 20 mM EDTA pH 8, 2% SDS) and 13-15 hour incubation at 65°C. 100μl of TE buffer were added, and RNA was digested using 0.2 μg/ml RNase A at 37°C for 2 hours. Proteins were digested with the addition of 0.2 μg/ml proteinase K and incubation at 55°C for 2 hours. The DNA was purified with two subsequent phenol:chloroform:isoamyl alcohol (25:24:1, pH 8) extractions and a subsequent MinElute (Qiagen) purification. The input DNA was quantified using a NanoPhotometer (Implen).    For ChIP, 100 μl protein G-coated Dynal beads (Life Technologies) were washed 3x with 1 ml of blocking buffer (PBS, 0.5% BSA), resuspended in 500 μl of blocking solution containing 5 μg primary ChIP antibody (listed in the Key resources table) and rotated overnight at 4°C. Beads were then washed 3x with 1 ml of blocking buffer and resuspended in 100 μl blocking buffer. Chromatin equivalent to 5x107 cells was added and rotated overnight at 4°C. The following day, 6 washing steps (9 for T) with 1 ml RIPA buffer (50 mM Hepes pH 7.6, 500 mM LiCl, 1 mM EDTA, 1% NP-40, 0.7% Na-Deoxycholate) and one washing step with 1 ml of TEN (10 mM Tris pH 8, 1 mM EDTA, 50 mM NaCl) were performed. The elution was performed in two subsequent steps using 100 μl of 1x elution buffer (50 mM Tris pH 8, 10 mM EDTA, 1% SDS) and incubation at 65°C while shaking for 10 minutes each. The eluates were combined and incubated for 13-15 hours at 65°C. 200 μl of TE were added and the ChIP DNA was purified as described for the input above. ChIP DNA was quantified using the Qubit (Life Technologies) DNA HS assay.
The ChIP-seq libraries were generated using the TruSeq ChIP library kit (Illumina) with the previously described modifications (Koch, 2017). After adapter ligation, 0.95x of AMPure XP beads (Beckman Coulter) were used for a single purification and the DNA was eluted using 14 μl of resuspension buffer (RSB, Illumina). After the addition of 1 μl primer mix (25 mM each) and 15 μl 2x Kapa HiFi HotStart Ready Mix (Kapa Biosystems), amplification was performed for 45 seconds at 98°C, 5 cycles of [15 seconds at 98°C, 30 seconds at 63°C and 30 seconds at 72°C] and a final 1 minute incubation at 72°C. The PCR products were purified using 0.95x of beads and eluted using 21 μl of RSB. Ligation products were then separated using a 1.5% agarose gel. Post-run staining was performed using SYBR Gold under agitation for 30 minutes. Gel slices corresponding to 250-400 bp fragment size were cut out. using a Dark Reader Transilluminator.  The gel extraction was performed using 5 gel volumes of QG buffer (Qiagen) with the addition of one gel volume of isopropanol. The MinElute (Qiagen) columns were washed once with QG buffer and twice with PE buffer, air-dried for at least 10 minutes and eluted using 21 μl of EB buffer. 19 μl of the eluate was used in the final amplification, with the addition of 1 μl primer mix and 20 μl 2x Kapa HiFi Hotstart premix. The same protocol as for the pre-amplification was used, with the exception of using 13 amplification cycles. The libraries were quantified using the Qubit DNA HS assay and the library size was validated using DNA HS Bioanalyzer chips.

treatment_protocol: Crosslinking was performed directly on differentiating cells in differentiation medium with the addition of 1/10th volume of crosslinking solution (11% formaldehyde, 100mM NaCl, 1mM EDTA pH8, 0.5mM EGTA pH8, 50mM Hepes pH 7.8) for 10 minutes at room temperature, while shaking. The crosslinking reaction was quenched with the addition of 1/10th volume of 2.5M glycine and 5 minutes incubation. Cells were washed twice with cold PBS, scraped in cold PBS containing 0.05% Triton X-100, pelleted in aliquots of 50 million cells, snap frozen and stored at -80°C until sonication.

tag: strain

tag: differentiation stage

value: Day 3


title: BY250 strain, EtAc treatment, day 7, rep4

country: USA

library_source: transcriptomic

molecule: total RNA

tag: tissue

tag: treatment

tag: genotype


title: MT-1 EPZ

type: genomic

city: saga

first: yuki

last: kurahashi

state: saga

address: nabeshima 5-1-1

country: Japan

institute: saga university

hyb_protocol: Bisulfite converted DNA was amplified, fragmented and hybridised to Illumina Infinium MethylationEPIC BeadChip using standard Illumina protocol.

scan_protocol: Arrays were imaged using Illumina iScan according to manufacturer's specifications (Illumina Inc.).

data_processing: Genome Studio software (V2011.1 Methylation module 1.9.0) and MethylationEPIC_v-1-0_B4 was used. Beta values were obtained after background correction and normalization to internal controls.

label: Cy5 and Cy3

organism: Homo sapiens

source_name: Adult T cell Leukemia (ATL)

label_protocol: Standard Illumina Protocol

growth_protocol: MT-1 cells were cultured in RPMI-1640 (Sigma-Aldrich) containing 10% fetal bovine serum (FBS).

extract_protocol: Genomic DNA samples were isolated using QIAamp DNA Kit (Qiagen)

treatment_protocol: MT-1 cells were treated with 500nM OR21 and/or 2500nM EPZ for 96h. Each compound was added immediately and 48h after seeding.

value: 2500nM EPZ treated

tag: cell line


title: BY250 strain, EtAc treatment, day 7, rep3


title: ChIP Eomes Day2

description:
in vitro differentiated cardiac mesoderm progenitors
ChIP_Eomes_Day2.bw

value: Day 2


title: Patient 48

type: RNA

city: Singapore

first: Jason

middle: Yongsheng

last: Chan

address: 30 Hospital Blvd

country: Singapore

institute: National Cancer Centre Singapore

hyb_protocol: Hybridation was performed as per manufacturer's protocol

scan_protocol: Analysed in the nCounter Digital Analyser at 555 FOV

data_processing: Normalization was performed using the nSolver 4.0 Advanced Analysis software using default parameters

label: biotin

source_name: Angiosarcoma tissue

label_protocol: 100 ng total RNA was used as input into the hybridisation step and carried out according to the manufacturer's protocol

extract_protocol: Total RNA was extracted using FFPE RNA/DNA Purification Plus Kit (Norgen) from five 10 μm tissue sections with adequate tumor available and analyzed using the 2100 Bioanalyzer (Agilent Technologies, Palo Alto, CA, USA). After excluding samples with suboptimal RNA integrity and content, the remaining samples were included in the nCounter analysis.

tag: Sex

value: Male

tag: age

tag: Stage

value: Non-metastatic


title: 2818-RP-6

city: Frederick

first: Himanshu

last: Goel

state: MD

address: 2405 Whittier Drive, Suite 200

institute: Biotechnology HPC Software Applications Institute (BHSAI)

description: Control

data_processing:
RNA-seq data were analyzed using the Kallisto tool (version 0.42.4) for read alignment and quantification.
We calculate uncertainties of transcript abundance estimates by repeating the analyses 100 times after resampling with replacement. We pseudo-aligned the reads to the Cavia porcellus  (Cavpor3.0) transcriptome downloaded from the Ensembl website
Kallisto input: kallisto quant -i $REF_KAL2 -b 100 -o rat_Edik/"$sample"  $DATA_DIR/3744-"$sample"_R1_001.fastq.gz $DATA_DIR/3744-"$sample"_R2_001.fastq.gz -t 10
Assembly: Cavia porcellus transcriptome  (Cavpor3.0)
Supplementary files format and content: tab-delimited text files, including abundance measurements

organism: Cavia porcellus

source_name: Kidney

growth_protocol: We cultured renal cells for 48 hours before expososure to mercuric chloride or vehicle (Hepatocyte Maintenance Medium).

extract_protocol:
Total RNA was isolated from culture cells using TRIzol Reagent (Thermo Fisher Scientific) and further purifed from the aqueous phase of TRIzol using RNeasy Plus Mini kit (Qiagen) and eliminated genomic DNA by in-column DNase I digestion. Total RNA quality was assessed using a 2100 Bioanalyzer (Agilent, Santa Clara, CA).
At least 200 ng of DNase-treated total RNA with high RNA integrity was used to generate poly-A-enriched mRNA libraries, using KAPA Stranded mRNA sample kits with indexed adaptors (Roche, Indianapolis, IN). Library quality was assessed using the 2100 Bioanalyzer (Agilent), and libraries were quantitated using KAPA library Quantification kits (Roche). Pooled libraries were subjected to 75-bp paired-end sequencing according to the manufacturer’s protocol (Illumina NovaSeq6000, San Diego, CA). Bcl2fastq2 Conversion Software (Illumina) was used to generate de-multiplexed Fastq files.

tag: breed

value: Hartley

value: Renal tube epithelial cells

tag: time point

tag: agent

value: Vehicle


title: Patient 49

value: Female

value: Metastatic


title: Patient 44


title: IMR32_mock [RNA-seq]

city: Wuhan

first: Qiangsong

last: Tong

state: Hubei

address: 1277 Jiefang Avenue

department: Department of Surgery

country: China

institute: Union Hospital of Tongji Medical College

data_processing:
Raw data (raw reads) of fastq format were firstly processed through in-house perl scripts. In this step, clean data (clean reads) were obtained by removing reads containing adapter, reads containing ploy-N and low quality reads from raw data. All the downstream analyses were based on the clean data with high quality.
Index of the reference genome was built using Bowtie v2.0.6 and paired-end clean reads were aligned to the reference genome using TopHat v2.0.9.
RPKM of each gene was calculated based on the length of the gene and reads count mapped to this gene, considering the effect of sequencing depth and gene length for the reads count at the same time (Mortazavi et al., 2008).
Assembly: hg38
Supplementary files format and content: tab-delimited text files include RPKM values for each Sample.

source_name: IMR-32 stably transfected with empty vector

growth_protocol: Human neuroblastoma cell line IMR-32 was grown in RPMI1640 medium supplemented with 10% fetal bovine serum, penicillin (100 U/ml) and streptomycin (100 μg/ml), and maintained at 37°C in a humidified atmosphere of 5% CO2.

extract_protocol:
Cells were collected, flash frozen on dry ice, and RNA was harvested using Trizol reagent. Illumina TruSeq RNA Sample Prep Kit (Cat#FC-122-1001) was used with 1 μg of total RNA for the construction of sequencing libraries.
RNA libraries were prepared for sequencing using standard Illumina protocols.

treatment_protocol: The CNBP expression or empty vectors were transfected into tumor cells, and stable cell lines were screened by administration of puromycin.

value: neuroblastoma

tag: passages

value: stable transfection of empty vector


title: OWT3

city: Louisville

first: Eric

middle: Christian

last: Rouchka

state: Kentucky

address: 522 East Gray Street

department: Biochemistry and Molecular Genetics

institute: University of Louisville

data_processing:
Quality control (QC) of the raw sequence data was performed using FastQC (version 0.10.1)
The concatenated sequences were directly aligned to the Drosophila melanogaster reference genome assembly (BDGP6)  using STAR (version 2.6), generating alignment files in bam format.
Raw read counts were obtained from the STAR aligned bam format files using HTSeq version 0.10.0. The raw counts were normalized using the Relative Log Expression (RLE) method and then filtered to exclude genes with fewer than 10 counts across the samples.
Differential expression analysis was performed using DESeq2
Alternative splicing detection was performed  using DEXSeq2 and RMATs. seekCRIT was used to determine circular RNAs in the sample groups.
Assembly: BDGP6
Supplementary files format and content: GeneMatrix_RawCountstxt

organism: Drosophila melanogaster

source_name: Schneider 2 cells

growth_protocol: Drosophila melanogaster S2 cells (obtained from Thermo Fisher Scientific, Waltham, MA) were grown in Schneider’s Drosophila media (Life Technologies, Austin, TX) supplemented with 10% heat activated fetal bovine serum (Sigma, St. Louis, MO), and 100 U/ml penicillin and 100 µg/ml streptomycin at 25 °C. All experimental samples and controls were growth time and cell density matched.

extract_protocol:
RNA was extracted using the Quick-RNA Miniprep Kit (Cat.#R1054) per manufacturer’s protocol (Zymo Research, Irvine, CA, USA, 92614) and eluted in RNase-Free water.
Total RNA Total RNA was submitted (Novogene Sacramento CA, USA, 95826) for paired end sequencing.

treatment_protocol: siRNA mediated PARP-1 knockdown was performed as previously described in Matveeva et al. 2016. Depletion of PARP1 was confirmed by western blot analysis. S2 cells were treated with 10µM PJ34 (Sigma, St. Louis, MO, USA) for 16 hours to inhibit of PARylation activity.

value: Schneider 2 cells

value: WT

tag: time

value: October


title: OWT2


title: 2818-RP-3

description: Control


title: 2818-RP-2

description: Control


title: BY250 strain, S.ven treatment, day 7, rep3

value: whole animal

value: Day 7 post hatching


title: BY250 strain, EtAc treatment, day 7, rep1

value: Ethyl Acetate

value: GFP overexpression


title: BY250 strain, S.ven treatment, day 7, rep4


title: BY250 strain, EtAc treatment, day 7, rep2


title: BY250 strain, S.ven treatment, day 7, rep2


title: Patient 41


title: Patient 42


title: OWT1


title: OKD4

value: PARP knockdown


title: OKD3


title: IMR32_CNBP [RNA-seq]

source_name: IMR-32 stably transfected with CNBP

value: stable transfection of CNBP


title: Patient 39

value: Male

value: Non-metastatic


title: Patient 38


title: Patient 43


title: OKD1


title: BY250 strain, S.ven treatment, day 7, rep1


title: OKD2


title: BY250 strain, EtAc treatment, day 5, rep5

value: Day 5 post hatching


title: BY250 strain, EtAc treatment, day 5, rep4


title: Patient 34


title: Patient 33


title: Patient 32


title: Patient 37


title: Patient 35


title: DWT3

value: December


title: BY250 strain, S.ven treatment, day 7, rep5


title: BY250 strain, EtAc treatment, day 5, rep3


title: Patient 31

value: Female


title: DWT2


title: DWT1


title: BY250 strain, EtAc treatment, day 5, rep1


title: BY250 strain, EtAc treatment, day 5, rep2


title: DPJ3

value: inhibited PARylation activity


title: BY250 strain, S.ven treatment, day 5, rep3


title: BY250 strain, S.ven treatment, day 5, rep4


title: DPJ1


title: BY250 strain, S.ven treatment, day 5, rep5


title: DPJ2


title: BY250 strain, S.ven treatment, day 5, rep2


title: Patient 28

value: Metastatic


title: Patient 29


title: DKD3


title: Patient 24


title: Patient 22


title: Patient 26


title: Patient 21


title: DKD1


title: So ce836, Day 21, biol rep 2

city: Oldenburg

first: Janina

last: Leinberger

address: Ammerländer Heerstraße 114-118

department: Institute for Chemistry and Biology of the Marine Environment

institute: University of Oldenburg

data_processing:
Reads were preprocessed with fastp (version 0.20.1)
Trimmed reads were mapped to the reference genome (GenBank accession: CP102233) with an in-house script using BWA-MEM (version 0.7.12) and SAMtools (version 0.1.19)
Reads mapping to genes were counted with HTSeq-count with mode union and stranded reverse (version 0.13.5)
Read counts were normalized and filtered with DESeq2 (version 1.32.0)
Assembly: GenBank accession: CP102233
Supplementary files format and content: tab-delimited files (.tsv) include raw read counts per gene for each sample
Supplementary files format and content: tab-delimited text file (.txt) includes read counts per gene (rows) and per sample (columns) after DESeq2 normalization

organism: Sorangium sp.

source_name: bacterial cell

growth_protocol: Pre-cultures of Sorangium sp. So ce836 were grown in CYH-medium for 4 days at 28°C with shaking at 160 rpm. Subsequently, 90 mL H-medium were inoculated with 10 mL of pre-culture, with five replicates for each growth period (0, 4, 7, 11, 14, and 21 days). Culture flasks were incubated at 28°C with shaking until the corresponding growth time was reached.

extract_protocol:
RNA was extracted with the RNeasy Mini kit (Qiagen). After removal of residual DNA with DNase Turbo (Ambion), RNA was precipiated with three volumes of 100% ethanol at -20°C and redissolved in RNase-free water. Ribosomal RNA was depleted by applying the Ribo-off kit (Absource).
RNA libraries were prepared using the TruSeq Stranded mRNA kit (Illumina) according to the manufacturer's protocol.

value: So ce836

tag: cell type

value: bacterial cell

value: Day 21


title: So ce836, Day 21, biol rep 3


title: brain, Tg2576,  11-month old female, r_93

city: New Orleans

first: Sangkyu

last: KIM

state: LA

address: 1430 Tulane Ave.

department: Center for Aging, Medicine

institute: Tulane University Health Sciences Center

data_processing:
Sequence reads were aligned and mapped to mm10 FASTA and GTF files using STAR and Bowtie 2 embedded in the Ion Torrent RNASeqAnalysis plugin.
Using edgeR, transcript count data were subjected to gene annotation, removal of low count genes, normalization to remove biases across libraries.
The edgeR-treated data set was analyzed for differential expression between wild type and Tg2576 groups using DESeq2, with adjustment for sex and batch.
Assembly: mm10
Supplementary files format and content: counts_raw.txt (tab-delimited) contains counts of raw transcripts (rows) for 12 samples (columns).
Supplementary files format and content: norm_factors.txt (tab-delimited) contains information for group, batch, and sex of 12 samples that can be used to generate DESeqDataSetFromMatrix using DESeq2, in combination with the raw counts data.

source_name: a mixture of hipocampus and cortex

extract_protocol:
Total RNA was extracted from the brain section containing hippocampus and cortex using RiboPure™ RNA Purification Kit (ThermoFisher Scientific). Ribosomal RNA was removed using Ambion RiboMinus Eukaryote System. RNA concentration and integrity were checked using an Agilent Bioanalyzer (RIN>7).
Libraries were prepared using Ion Total RNA-Seq Kit for the AB Library Builder System

value: a mixture of hipocampus and cortex

value: brain

value: 11-month old


title: Patient 20


title: BY250 strain, S.ven treatment, day 5, rep1

value: whole animal

tag: developmental stage


title: Patient 18


title: So ce836, Day 21, biol rep 1


title: Patient 30


title: Patient 19


title: brain, Tg2576,  11-month old female, r_92


title: brain, Tg2576,  11-month old female, r_91


title: So ce836, Day 14, biol rep 4

value: Day 14


title: So ce836, Day 14, biol rep 3


title: brain, wild-type, 11-month old female, r_80

value: wild type


title: DKD2

value: Schneider 2 cells

value: PARP knockdown


title: Patient 17

value: Male

value: Non-metastatic


title: Patient 16


title: So ce836, Day 14, biol rep 1


title: Patient 15


title: brain, wild-type, 11-month old male, r_95


title: brain, Tg2576,  11-month old male, r_69


title: brain, Tg2576,  11-month old male, r_68


title: brain, wild-type, 11-month old female, r_79


title: So ce836, Day 11, biol rep 3

value: Day 11


title: Patient 14


title: Patient 12

value: Female


title: Patient 13


title: So ce836, Day 11, biol rep 1


title: So ce836, Day 7, biol rep 5

value: Day 7


title: Patient 11

value: Metastatic


title: Patient 10


title: So ce836, Day 7, biol rep 4

value: So ce836


title: So ce836, Day 14, biol rep 2

value: bacterial cell


title: Patient 9


title: So ce836, Day 7, biol rep 3


title: Patient 8


title: So ce836, Day 7, biol rep 2


title: Patient 7


title: So ce836, Day 11, biol rep 2


title: So ce836, Day 4, biol rep 3

value: Day 4


title: brain, Tg2576,  11-month old male, r_67

value: a mixture of hipocampus and cortex


title: Patient 6


title: So ce836, Day 4, biol rep 5


title: Patient 5


title: brain, wild-type, 11-month old male, r_41

value: brain


title: brain, Tg2576,  11-month old female, r_32

value: 11-month old


title: So ce836, Day 4, biol rep 1


title: Patient 4


title: Colec11-/- tumour-associated macrophage rep4

status: Public on May 02 2023

city: Xi'an

first: Jiaxing

last: Wang

state: Shaanxi

address: 157 West Fifth Road

department: Second Affiliated Hospital

institute: Xi'an Jiaotong University

data_processing:
The sequencing data was filtered with SOAPnuke (v1.5.2) by removing reads with sequencing adapter, low base ratio (≥20%), low base quality (≤5), and high unknown base ('N' base) ratio (≥5%).
The clean reads were then generated in FASTQ format and were mapped to the reference genome using HISAT2 (v2.0.4).
The clean reads were then aligned the to the reference coding gene set using Bowtie2 (v2.2.5).
The expression levels of genes were calculated using RSEM (v1.2.12).
Genome_build: GCF_000001635.26_GRCm38.p6
Supplementary_files_format_and_content: tab-delimited text files include FPKM values for each Sample ...

source_name: tumour-associated macrophage

extract_protocol:
Total RNA was extracted from sorted macrophages using Trizol reagent (Invitrogen, Carlsbad, CA, USA) according to manual instruction. A total number of 2.0×105 cells were lysed by Trizol in a 2 mL tube.
RNA libraries were prepared for sequencing using standard BGI DNBSEQ protocols

value: tumour-associated macrophage

tag: tumour stage

value: post injection day 14


title: Patient 3


title: Colec11-/- tumour-associated macrophage rep3

tag: strain


title: Colec11-/- tumour-associated macrophage rep1


title: Colec11-/- tumour-associated macrophage rep2


title: So ce836, Day 7, biol rep 1


title: Patient 1


title: WT  tumour-associated macrophage rep4

value: WT


title: WT  tumour-associated macrophage rep3


title: WT  tumour-associated macrophage rep1


title: WT  tumour-associated macrophage rep2


title: G2

city: Suzhou

first: xiaoliang

last: yu

state: Jiangsu

address: Chongwen Road

institute: Suzhou Institute of Systems Medicine

data_processing:
Mapping & differential expression anlysis were made by CLC Genomics workbench 12 (Qiagen)
Genome_build: human hg19
Supplementary_files_format_and_content: RPKM

source_name: colon

extract_protocol:
Small intestine were removed, stored in RNAlater buffer, and RNA was harvested using TRIzol (Cat no. 15596018, invitrogen, Thermo Fisher Scientific)
Oligo(dT)-attached magnetic beads were used to purified mRNA. Purified mRNA was fragmented into small pieces with fragment buffer at appropriate temperature. Then First-strand cDNA was generated using random hexamer-primed reverse transcription, followed by a second-strand cDNA synthesis. afterwards, A-Tailing Mix and RNA Index Adapters were added by incubating to end repair. The cDNA fragments obtained from previous step were amplified by PCR, and products were purified by Ampure XP Beads, then dissolved in EB solution. The product was validated on the Agilent Technologies 2100 bioanalyzer for quality control. The double stranded PCR products from previous step were heated denatured and circularized by the splint oligo sequence to get the final library. The single strand circle DNA (ssCir DNA) was formatted as the final library.

value: female

value: colon

tag: disease

value: GVHD


title: Normal2

tag: tissue

value: normal


title: Normal3

value: male


title: G1


title: Normal1


title: MT-2 EPZ

hyb_protocol: Turn Hybridization Oven on, set the temperature to 45°C and set the RPM to 60. Turn the rotation on and allow  the oven to preheat.

scan_protocol: Array scanning was performed using GeneChipTM Scanner 3000 7G (Thermo Fisher Scientific).

data_processing: Using GeneSpring GX (Agilent Technologies, Inc., CA). RMA algorithm.  Normalized to expression of housekeeping gene controls using GeneSpring GX (Agilent Technologies, Inc., CA). Gene expression levels between two samples (control vs treated cell) were compared and expressed as -fold changes.

source_name: Human T-Lymphotropic Virus type I (HTLV-1) infected

label_protocol: The fragmented cDNA is labeled by terminal deoxynucleotidyl transferase (TdT) using the proprietary DNA Labeling Reagent that is covalently linked to biotin. 5.5 μg of single-stranded cDNA is required for fragmentation and labeling.

growth_protocol: MT-1 and MT-2 cells were cultured in RPMI-1640 (Sigma-Aldrich) containing 10% fetal bovine serum (FBS).

extract_protocol: DNaseI treated total RNAs were prepared using the Direct-zol RNA MiniPrep Kit (Zymo Research).

treatment_protocol: MT-1 cells were treated with 500nM OR21 and/or 2500nM EPZ for 96h. MT-2 cells were treated with 100nM OR21 and/or 500nM EPZ for 96h. Each compound was added immediately and 48h after seeding.

tag: treatment

value: 500nM EPZ treated


title: G3


title: MT-2 control

value: control


title: brain, wild-type, 11-month old female, r_12

tag: genotype

value: wild type


title: So ce836, Day 4, biol rep 2

value: So ce836


title: MT-2 Comb

value: 100nM OR21 and 500nM EPZ treated

tag: cell line


title: MT-2 OR21

value: 100nM OR21 treated


title: BDXL-Stage8-5-Mitotic-R2-T1

city: Worcester

first: Bastiaan

last: Dekker

state: Massachusetts

address: 368 Plantation street

department: Systems Biology

institute: University of Massachusetts Medical School

description: Egg extract added to isolated DNA stage 8 Xenopus embryo to make reconstituted mitotic chromosomes.

data_processing:
Hi-C FASTQ sequencing files were mapped to the Xenopus Leavis 10.1 Genome
publicly available distiller-nf mapping pipeline (https://github.com/mirnylab/distiller-nf) and downstream
analysis tools pairtools (https://github.com/mirnylab/pairtools) and cooltools
(https://github.com/mirnylab/cooltools).
Assembly: Xenopus Laevis 10.1
Supplementary files format and content: multicooler files (.mcool) for all interactions

organism: Xenopus laevis

source_name: Xenopus Stage 8 embryo

growth_protocol: Egg extract was isolated from Xenopus Eggs

extract_protocol:
Either half million sperm was used or DNA isolated from Stage 8 Xenopus embryo's was used as input for reconstituting chromosomes
Hi-C was performed as described in detail in supplemental methods.

treatment_protocol: Egg extract was not further depleted of any proteins

tag: enzyme

value: DpnII

value: Xenopus Stage 8 embryo


title: BDXL-Stage8-5-Mitotic-R1-T1


title: BDXL-replicated-sperm-mitoic-R1-T1

description: Egg extract added to demembranated replicated sperm nuclei to make reconstituted mitotic chromosomes.

source_name: Xenopus Sperm

value: Xenopus Sperm


title: BDXL-replicated-sperm-mitotic-R2-T1


title: Obese_Treated_5

city: Rochester

first: Lilach

middle: O

last: O Lerman

state: Minnesota

address: 200 First St. SW

department: Division of Nephrology & Hypertension

institute: Mayo Clinic

data_processing:
Paired-end sequenced FASTQ files were aligned to the porcine reference genome (susScr 11.1) using Bowtie 2 (v2.3.3.1).
Duplicate reads were removed with MarkDuplicates (PICARD v1.67), and hMeDIP-seq peaks were called using MACS2.
Differential binding analysis of hMeDIP-seq peak data was performed using the DiffBind package (v2.14.0), and the Homer (v4.10) peak annotation tool was used to annotate and assign differential peaks and genomic coverage bins.
5hmC coverage analysis applied per-base coverage of regions of interest, calculated with bedtools (v2.20.0) genomeCoverageBed.
Sequence read values for overall exonic 5hmC coverage per gene were calculated as faux-RNA counts using htseq-count (v0.9.1) and then processed by edgeR (v3.28.1), analagous to differential expression analysis of RNA reads.
Assembly: susScr 11.1
Supplementary files format and content: A tab-delimited text file provides normalized counts describing overall exonic 5hmC coverage per gene for 6 samples (Obese vs. Lean swine MSCs); a separate tab-delimited text file provides normalized counts describing overall exonic 5hmC coverage per gene for 6 samples (OT = Vitamin-C-treated Obese swine MSCs; OU = Untreated Obese swine MSCs).
Library strategy: hMeDIP-Seq

organism: Sus scrofa

source_name: MSCs, Obese swine, vitamin-C-treated

growth_protocol: Primary swine MSCs isolated from subcutaneous abdominal adipose tissue were expanded in culture. Briefly, adipose tissue was enzymatically digested using collagenase-H, filtered through a 100μm cell strainer, and centrifuged to pellet cells. Cells were then cultured for three weeks in T-75 cm2 flasks (TPP, Cat.#Z707503) placed within a humidified incubator (37°C/5% CO2), using a growth medium consisting of Advanced Minimum Essential Medium (Gibco, Carlsbad, CA, Cat.#12492013) supplemented with 5% platelet lysate (PLTmax, Mill Creek Life Sciences, Rochester, MN) and 2 mM L-glutamine (Gibco, Cat.#25030081). MSCs were passaged at 60-80% confluence using TrypLe (Gibco, Cat.#12604013).

extract_protocol:
DNA was extracted using the DNeasy Blood and Tissue Kit (Qiagen, Cat.#69504) with RNase treatment. DNA concentrations were measured by a spectrophotometer (NanoDrop) and diluted to 100ng/μL with TE buffer. The aliquot (100μL) of genomic DNA was sonicated using a Bioruptor® Pico instrument (Diagenode) for 7-10 cycles at 30 seconds on and 30 seconds off. The size of fragmented DNA was determined using a Fragment Analyzer (Advanced Analytical Technologies, Ankeny, IA) with the High Sensitivity NGS Fragment Analysis Kit (Cat.#DNF-486). Fragmented DNA with an average size of 200bp was denatured for 10min at 95°C, after which 2.5-5μg of DNA in 1X DNA immunoprecipitation (DIP) buffer (10mM sodium phosphate, pH 7.0, 140mM NaCl, 0.05% Triton X-100) was incubated with 1μg of anti-5hmC antibody from the hybridoma clone EDL HMC 1A (equivalent to Cat.#MABE1093 from MilliporeSigma) for 3hr at 4°C on a rotator. Dynabeads Protein-G (Thermo-Fisher, Cat.#10003D) were added to the DNA/antibody mixture, and the reaction was incubated at 4°C overnight on a rotator. Collected beads-antibody-DNA complexes were then thoroughly washed with DIP buffer and TE buffer. The enriched DNA fragments were eluted from the beads, purified using the ssDNA/RNA Clean & Concentrator (Zymo Research, Cat.#D7010), and quantified with the Qubit ssDNA High Sensitivity Assay Kit (Thermo-Fisher Scientific, Cat.#Q10212).
DNA libraries were generated from input and enriched DNAs using the Accel-NGS® 1S Plus DNA Library Kit (Swift Biosciences, Cat.#10024), according to the manufacturer’s protocol.

treatment_protocol:
Swine Obese-MSCs at third passage were cultured without (Untreated) or with (Treated) co-incubation for 48h with vitamin-C (50μg/mL)
N/A

value: subcutaneous adipose tissue

value: mesenchymal stem/stromal cells (MSCs)

tag: hmedip-seq antibody

tag: diet

value: 16-week high-fat/high-fructose

value: Co-incubation for 48h with vitamin-C (50μg/mL) in-vitro


title: Obese_Untreated_3

description:
Obese_3
OU_3

source_name: MSCs, Obese swine, untreated

value: anti-5hmC antibody from the hybridoma clone EDL HMC 1A (equivalent to Cat.#MABE1093 from MilliporeSigma)


title: Obese_Treated_6


title: Obese_Treated_4


title: MT-1 EPZ

value: 2500nM EPZ treated


title: Lean_7

source_name: MSCs, Lean swine, untreated

value: Standard chow


title: Lean_8


title: Lean_9


title: S2-WT_aHA_input_rep1

city: Madison

first: Melissa

middle: M

last: Harrison

email: mharrison3@wisc.edu, ykaur@wisc.edu, torreszelada@wisc.edu, mmfreund2@wisc.edu

state: WI

address: 420 Henry Mall

department: Biomolecular Chemistry

institute: University of Wisconsin Madison

data_processing:
Bowtie2 version 2.4.4 was used to align ChIP-seq reads to the Drosophila melanogaster genome (version dm6) with the following non-default parameters: -k 2 --very-sensitive --no-mixed --no-discordant -X 5000.
Aligned reads were filtered to include only reads with a mapping quality score > 30. Reads mapping to unplaced scaffolds or the mitochondrial genome were discarded.
. Peak calling was performed using MACS2 version 2.2 with parameters -g dm --call-summits. Only peaks that were detected in all replicates were considered in downstream analysis.
bigWig files were generated using deepTools bamCoverage version 3.5.1 with parameters –binSize 10. bigWig files were z-score normalized by subtracting the genome-wide average of all bins from each bin value and dividing by the standard deviation of all bins.
Assembly: dm6
Supplementary files format and content: bigwig file: contains z-score normalized read depth for each sample. Reads from two biological replicates were combined prior to generation of bigWig.
Supplementary files format and content: narrowPeak files: contain MACS2 peaks for ChIP samples.

growth_protocol: Drosophila S2 cells were cultured at 27°C in Schneider's medium supplemented with 10% fetal bovine serum  and antibiotic/antimycotic.

extract_protocol:
For each ChIP experiment, ~50 million cells were crosslinked by adding methanol-free formaldehyde directly to the cell culture medium to a final concentration of 0.8%. Cells were rotated on a nutator for 7 minutes at room temperature (RT) before quenching of crosslinking by adding glycine to 125 mM. Crosslinked cells were pelleted by centrifugation at 600 × g for 3 minutes. Cells were washed twice with 1X PBS. Cells were lysed by resuspending in lysis buffer (50 mM HEPES pH 7.9, 140 mM NaCl, 1 mM EDTA, 10% glycerol, 0.5% NP40, 0.25% Triton-X 100) with protease inhibitors (Pierce) and incubating on ice for 10 minutes. The resulting chromatin was pelleted for 5 minutes at 1500 × g and resuspended in RIPA buffer. Chromatin was sonicated in a Covaris S220 Ultrasonicator (5 cycles of 120 seconds with 60 second delay, 170 peak power, 10% duty factor, 200 cycles/burst). Sonicated chromatin was centrifuged for 10 minutes at 10,000 × g to pellet insoluble material. 5% of the supernatant was set aside as input, and the remainder was incubated at 4°C overnight with antibodies (6 µL anti-Zld, 8 µL anti-Grh, 10 µg anti-Twi, 7.5 µL anti-HA). 20 µL protein A beads (Dynabeads Protein A, ThermoFisher Scientific) blocked with BSA were added and samples were incubated at 4°C for 4 hours. Beads were separated on a magnet and washed 3× with low salt wash buffer (10 mM Tris pH 7.6, 1 mM EDTA, 0.1% SDS, 0.1% Na-Deoxycholate, 1% Triton-X 100, 150 mM NaCl), 2× high salt wash buffer (10 mM Tris pH 7.6, 1 mM EDTA, 0.1% SDS, 0.1% sodium deoxycholate, 1% Triton-X 100, 300 mM NaC), 2× LiCl wash buffer (0.25 M LiCl, 0.5% NP40, 0.5% sodium deoxycholate), and 1× with TE buffer with NaCl (10 mM Tris-HCl pH 8.0, 1 mM EDTA, 50 mM NaCl). Beads were resuspended in elution buffer (50 mM Tris-HCl pH 8.0, 1% SDS, 10 mM EDTA) and incubated at 65°C for 10 minutes. The IP and input samples were treated with 4.5 µL RNAse A for 30 minutes. 5 µL Proteinase K was added and samples were incubated overnight at 65°C to reverse crosslinking. DNA was isolated by phenol:chloroform extraction, precipitated with EtOH, and resuspended in 20 µL H2O.
Preparation of sequencing libraries was performed using NEBNext Ultra II kit (NEB) with 7 PCR cycles for library amplification. Sequencing was performed on the Illumina Hi-Seq4000 using 50bp single-end reads, or on the Illumina NovaSeq 6000 using 150bp paired-end reads.

treatment_protocol: Transcription factor expression was induced by adding CuSO4 to the cell culture media. For all induction experiments, cells were plated at 1×10^6 cells per mL. Experiments were performed with cells harvested 48 hours after induction.

value: 40 uM CuSO4

tag: antibody

value: anti-HA


title: S2-WT_aTwi_input_rep1

value: anti-Twi


title: S2-WT_aTwi_input_rep2


title: S2-WT_aHA_input_rep2


title: S2-WT_aHA_IP_rep1

description:
S2-WT_aHA_IP.bw
S2-WT_aHA_IP.narrowPeak


title: MT-1 control

value: control


title: MT-1 OR21

value: 500nM OR21 treated


title: S2-WT_aHA_IP_rep2

description:
S2-WT_aHA_IP.bw
S2-WT_aHA_IP.narrowPeak


title: S2-Grh_DMSO_aGrh_rep2

description:
S2-Grh_DMSO_aGrh.bw
S2-Grh_DMSO_aGrh.narrowPeak

value: 100 uM CuSO4

tag: condition

value: DMSO

value: anti-Grh


title: S2-HA-Twi_taz_aHA_rep2

description:
S2-HA-Twi_taz_aHA.bw
S2-HA-Twi_taz_aHA.narrowPeak

value: taz


title: S2-Grh_taz_aGrh_rep2

description:
S2-Grh_taz_aGrh.bw
S2-Grh_taz_aGrh.narrowPeak


title: S2-WT_aTwi_IP_rep1

description:
S2-WT_aTwi_IP.bw
S2-WT_aTwi_IP.narrowPeak


title: S2-HA-Twi_DMSO_aHA_rep2

description:
S2-HA-Twi_DMSO_aHA.bw
S2-HA-Twi_DMSO_aHA.narrowPeak


title: S2-WT_aTwi_IP_rep2


title: S2-Zld_taz_aZld_rep2

description:
S2-Zld_taz_aZld.bw
S2-Zld_taz_aZld.narrowPeak

value: 1000 uM CuSO4

value: anti-Zld


title: S2-Zld_DMSO_aZld_rep2

description:
S2-Zld_DMSO_aZld.bw
S2-Zld_DMSO_aZld.narrowPeak


title: Obese_Untreated_2

description:
Obese_2
OU_2

value: subcutaneous adipose tissue

value: mesenchymal stem/stromal cells (MSCs)


title: S2-Grh_taz_aGrh_rep1


title: S2-HA-Twi_DMSO_aHA_rep1


title: MT-1 Comb

value: 500nM OR21 and 2500nM EPZ treated


title: S2-Zld_taz_aZld_rep1


title: S2-Grh_DMSO_aGrh_rep1


title: S2-Zld_DMSO_aZld_rep1


title: S2-Zld-0uM_aZld_IP_rep2

description:
S2-Zld-0uM_aZld_IP.bw
S2-Zld-0uM_aZld_IP.narrowPeak

value: 0 uM CuSO4


title: S2-HA-Twi-160uM_aHA_IP_rep2

description:
S2-HA-Twi-160uM_aHA_IP.bw
S2-HA-Twi-160uM_aHA_IP.narrowPeak

value: 160 uM CuSO4


title: S2-HA-Twi-10uM_aHA_IP_rep2

description:
S2-HA-Twi-10uM_aHA_IP.bw
S2-HA-Twi-10uM_aHA_IP.narrowPeak

value: 10 uM CuSO4


title: S2-HA-Twi-0uM_aHA_IP_rep2

description:
S2-HA-Twi-0uM_aHA_IP.bw
S2-HA-Twi-0uM_aHA_IP.narrowPeak


title: S2-Zld-500uM_aZld_IP_rep2

description:
S2-Zld-500uM_aZld_IP.bw
S2-Zld-500uM_aZld_IP.narrowPeak

value: 500 uM CuSO4


title: S2-HA-Twi_taz_aHA_rep1

value: 40 uM CuSO4

value: anti-HA


title: S2-Grh-25uM_aGrh_IP_rep1

description:
S2-Grh-25uM_aGrh_IP.bw
S2-Grh-25uM_aGrh_IP.narrowPeak

value: 25 uM CuSO4


title: S2-Grh-0uM_aGrh_IP_rep2

description:
S2-Grh-0uM_aGrh_IP.bw
S2-Grh-0uM_aGrh_IP.narrowPeak


title: S2-HA-Twi-160uM_aHA_IP_rep1


title: S2-Zld-1500uM_aZld_IP_rep1

description:
S2-Zld-1500uM_aZld_IP.bw
S2-Zld-1500uM_aZld_IP.narrowPeak

value: 1500 uM CuSO4


title: S2-Grh-25uM_aGrh_IP_rep2


title: S2-Zld-1000uM_aZld_IP_rep1

description:
S2-Zld-1000uM_aZld_IP.bw
S2-Zld-1000uM_aZld_IP.narrowPeak


title: S2-Zld-0uM_aZld_IP_rep1


title: S2-HA-Twi-0uM_aHA_IP_rep1


title: S2-Grh-0uM_aGrh_IP_rep1


title: S2-Zld-1500uM_aZld_IP_rep2


title: S2-Grh-DBD_aGrh_IP_rep2

description:
S2-Grh-DBD_aGrh_IP.bw
S2-Grh-DBD_aGrh_IP.narrowPeak

value: 20 uM CuSO4


title: S2-Grh-DBD_aGrh_IP_rep1


title: S2-Zld-DBD_aZld_IP_rep2

description:
S2-Zld-DBD_aZld_IP.bw
S2-Zld-DBD_aZld_IP.narrowPeak

value: 100 uM CuSO4


title: S2-Zld-500uM_aZld_IP_rep1


title: S2-HA-Twi-40uM_aHA_IP_rep2

description:
S2-HA-Twi-40uM_aHA_IP.bw
S2-HA-Twi-40uM_aHA_IP.narrowPeak


title: S2-Grh-400uM_aGrh_IP_rep1

description:
S2-Grh-400uM_aGrh_IP.bw
S2-Grh-400uM_aGrh_IP.narrowPeak

value: 400 uM CuSO4

value: anti-Grh


title: S2-HA-Twi-40uM_aHA_IP_rep1


title: S2-HA-Twi-10uM_aHA_IP_rep1


title: S2-Grh-100uM_aGrh_IP_rep2

description:
S2-Grh-100uM_aGrh_IP.bw
S2-Grh-100uM_aGrh_IP.narrowPeak


title: S2-Zld-1000uM_aZld_IP_rep2

value: 1000 uM CuSO4


title: Obese_Untreated_1

description:
Obese_1
OU_1

value: anti-5hmC antibody from the hybridoma clone EDL HMC 1A (equivalent to Cat.#MABE1093 from MilliporeSigma)

value: 16-week high-fat/high-fructose


title: S2-Zld-DBD_aZld_IP_rep1

value: anti-Zld


title: S2-Grh-400uM_aGrh_IP_rep2


title: S2-Twi_aTwi_IP_rep2

description:
S2-Twi_aTwi_IP.bw
S2-Twi_aTwi_IP.narrowPeak

value: anti-Twi


title: S2-Twi_aTwi_IP_rep1


title: S2-Grh-100uM_aGrh_IP_rep1


title: Dataset D2 lib8

city: New York City

first: Itai

last: Yanai

state: NY

address: 435 East 30th Street

institute: NYU Langone Health

description: E. coli grown in LB to an OD600 of ~0.15 using three strains: WT and strains with secondary ectopic origins, oriX and oriZ

library_source: transcriptomic single cell

data_processing:
All analysis was performed using the Tavazoie lab computational pipeline (https://tavazoielab.c2b2.columbia.edu/PETRI-seq/PETRI_Seq_Computational.pdf).
Initial QC was performed using FastQC then unique molecular identifiers were extracted with UMI tools. Initial demultiplexing by cell barcode was performed iteratively using Cutadapt.
After selecting barcodes associated with the highest number of reads, reads from individual barcodes were aligned to the E. coli MG1655  and S. aureus USA300-FPR3757 reference genomes using BWA.
Numbers of reads mapping to individual genes were quantified using FeatureCounts before counts were collapsed into unique reads based on UMI and used to make the final counts matrix.
Sample annotations were extracted from the number of barcode 1, since this corresponds to the way samples were added in the initial plate during reverse transcription.
Assembly: E. coli reads were aligned to the K-12 MG1655 reference assembly (GCA_000005845.2) and S. aureus to the USA300_FPR3757 reference assembly (GCF_000013465.1).
Supplementary files format and content: Counts matrices: gzip-compressed tab-separated text files of counts by genes (columns) by cell barcode (rows) ("_counts.txt.gz")
Supplementary files format and content: Metadata files: tab-separated files containing library and sample information for each cell barcode ("_metadata.txt").

organism: Escherichia coli

source_name: Whole bacteria

growth_protocol: Bacteria were streaked out onto agar from frozen stocks overnight then grown overnight in LB or TSB as indicated. Samples were then diluted back to grow in the medium and to the densities indicated. With the exception of Datasets D3 and D4, there was an initial "back-dilution" step prior to harvesting to improve population homogeneity.

extract_protocol:
Samples were fixed and processed according to the protocol of Blattman et al. (PMID: 32451472). Briefly, cells were fixed overnight with 4% formaldehyde, permeabilized with 50% ethanol followed by enzymatic cell wall digestion (100 µg/ml, 15 min using lysozyme for E. coli and lysostaphin for S. aureus), then treated with DNase to remove genomic DNA (this step was ommited for some samples in Dataset D4).
Reverse transcription and split-pool barcode ligation were carried out in situ in fixed cells according to the protocol of  Blattman et al. (PMID: 32451472). After barcoding, cells were separated into aliquots of ~20,000 cells for further processing. After lysis and reversal of crosslinking, second strand synthesis was performed using the NebNext Second Strand Synthesis module (New England Biolabs) and tagmentation was carried out using the EZ-Tn5 transposase (Lucigen), before final amplification with multiplex indexing primers.

treatment_protocol: After growth as described, most bacteria were not subjected to further treatment with the exception of some cells in Dataset D6 that were treated with 10 mM N-acetylcysteine for 90 min, and for cells in Dataset D7 that were treated with 10 µg/ml vancomycin for variable times.

value: Whole bacteria

value: Bacteria

value: WT, oriX, oriZ

value: LB


title: Dataset D2 lib6


title: Dataset D2 lib7


title: Dataset D2 lib4


title: S2-WT_40uM_rep2

description:
S2-WT_40uM.bw
S2-Twi_RNAseq_counts.tsv

data_processing:
Raw reads were aligned to the Drosophila melanogaster (dm6) genome using HISAT2 version 2.1.0 with parameters -k 2 –very-sensitive.
Reads with a mapping quality score < 30 and reads aligning to the mitochondrial genome or unplaced scaffolds were discarded.
FeatureCounts (from Subread version 2.0) was used to assign aligned reads to genes (FlyBase gene annotation release r6.45).
The resultant table of read counts was used to perform differential expression analysis using DESeq2. Genes with an adjusted p-value < 0.05 and a fold change > 2 were considered differentially expressed.
Assembly: dm6
Supplementary files format and content: bigWig file: z-score normalized read depth of combined replicates.
Supplementary files format and content: RNAseq_counts.tsv: raw read counts that were used for downstream analysis. Gene length is included for convenient RPKM normalization.

molecule: polyA RNA

extract_protocol:
5×106 cells were harvested and resuspended in 800 µL Trizol (Invitrogen). RNA was purified using a chloroform extraction followed by a column-based Quick-RNA MiniPrep extraction (Zymo).
Poly-A-selected RNA sequencing (RNA-seq) libraries were prepared using the TruSeq RNA sample prep kit v2 (Illumina).

treatment_protocol: Transcription factor expression was induced by adding CuSO4 to the cell culture media. For all induction experiments, cells were plated at 1×106 cells per mL. Experiments were performed with cells harvested 48 hours after induction.

value: 40uM CuSO4


title: S2-Zld_noCuSO4_rep1

description:
S2-Zld_noCuSO4.bw
S2-Zld_RNAseq_counts.tsv

value: uninduced


title: S2-Grh_100mM_rep1

description:
S2-Grh_100mM.bw
S2-Grh_RNAseq_counts.tsv

value: 100mM CuSO4


title: S2-Zld_noCuSO4_rep2


title: Dataset D1 lib8

description: E. coli WT grown in three different medium conditions: LB (OD600 = 0.15), MGA (M9 + 0.4% glucose + 0.2% acid casein peptone, OD600 = 0.19), MG (M9 + 0.4% glucose, OD600 = 0.06)

value: WT

value: LB, MGA, MG


title: Dataset D2 lib3


title: Dataset D2 lib1


title: S2-Twi_40uM_rep1

description:
S2-Twi_40uM.bw
S2-Twi_RNAseq_counts.tsv


title: Dataset D2 lib5


title: Dataset D1 lib4


title: Dataset D1 lib3


title: Dataset D1 lib1


title: Dataset D1 lib5


title: Dataset D2 lib2


title: Dataset D1 lib6


title: Dataset D1 lib2


title: S2-Zld_1000mM_rep2

description:
S2-Zld_1000mM.bw
S2-Zld_RNAseq_counts.tsv

value: 1000mM CuSO4


title: Dataset D1 lib7


title: S2-Zld_1000mM_rep1


title: S2-WT_noCuSO4_rep2

description:
S2-WT_noCuSO4.bw
S2-Twi_RNAseq_counts.tsv


title: S2-WT_noCuSO4_rep1


title: S2-WT_100uM_rep2

description:
S2-WT_100uM.bw
S2-Grh_RNAseq_counts.tsv

value: 100uM CuSO4


title: S2-WT_1000uM_rep2

description:
S2-WT_1000uM.bw
S2-Zld_RNAseq_counts.tsv

value: 1000uM CuSO4


title: S2-WT_100uM_rep1

description:
S2-WT_100uM.bw
S2-Grh_RNAseq_counts.tsv


title: S2-Grh_noCuSO4_rep2

description:
S2-Grh_noCuSO4.bw
S2-Grh_RNAseq_counts.tsv


title: S2-Grh_noCuSO4_rep1


title: S2-WT_40uM_rep1

description:
S2-WT_40uM.bw
S2-Twi_RNAseq_counts.tsv


title: S2-WT_1000uM_rep1


title: S2-Grh_100mM_rep2


title: 1809-AB-31

city: La Jolla

first: Avnee

middle: Jaya

last: Kumar

state: CA

address: 9500 Campus Point Drive MC 7381

institute: University of California San Diego

description: Liver RNA Seq, High Fat Diet, Klebsiella

data_processing:
Raw count data were processed by the University of Michigan Advanced Genomics Core.
Read files were concatenated into a FASTQC file for each sample. Raw read quality was checked using the program FastQC version v0.11.3 to identify potential quality problems from features of the data (e.g. low quality score, over-expressed sequences, and inappropriate GC content).
Reads were aligned to the reference genome including mRNAs and lncRNAs (ENSEMBL GRCm38) using Trim_Galore (v 0.5.0) to trim reads and aligned with STAR (v 2.6.0).
Mapped reads were collapsed using Lexogen's supplied collapse_UMI_bam binary.
Reads were counted using the R package Rsubread and featureCounts function.
Raw count data were then used for analysis in DESeq2 (v 1.22.2) and baySeq.
Assembly: GRCm38
Supplementary files format and content: Tab-delimited text files include count data for each Sample and has been filtered and normalized VST using the R package deseq2 (v 1.22.2) in addition to a separate data file with counts per million.

source_name: Liver

extract_protocol:
Liver was homogenized and RNA was isolated in Trizol (Thermo-Fisher) according to the manufacturer’s instructions. Genomic DNA digestion and RNA clean-up was completed using the RNAEasy Kit (Qiagen). Isolated RNA concentration and purity was evaluated using the NanoDrop (Thermo-Fisher).
cDNA libraries were prepared using the Quantseq 3' mRNA FWD kit (Lexogen, Vienna, Austria) with the UMI Second strand synthesis Module (Lexogen). RNA libraries were subsequently prepared for sequencing using standard Illumina protocols.

value: Liver

tag: Sex

value: Male

value: C57BL/6 WT

value: CD

value: KPA (Klebsiella)


title: 1809-AB-35


title: 1809-AB-30


title: 1809-AB-33


title: 1809-AB-32


title: 1809-AB-22

value: HFD


title: 1809-AB-36

description: Liver RNA Seq, Control Diet, Saline Control

value: Saline Control


title: 1809-AB-21


title: 1809-AB-28


title: 1809-AB-27

description: Liver RNA Seq, Control Diet, Klebsiella


title: 1809-AB-25


title: 1809-AB-23


title: 1809-AB-26


title: 1809-AB-37


title: 1809-AB-15

description: Liver RNA Seq, High Fat Diet, Saline Control


title: 1809-AB-17


title: 1809-AB-20


title: 1809-AB-29


title: 1809-AB-18


title: 1809-AB-13


title: 1809-AB-16


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad001

first: Joseph

middle: R

last: Ecker

address: 10010 North Torrey Pines Road

department: Genomic Analysis Laboratory

institute: HHMI-Salk-Institute

data_processing:
Reads trimed with Cutadapt for adapters and low quality bases (Phred score >= 20)
The resulting files are mapped to in-silico bisulfite converted reference genome using Bismark.
The raw BAM file will be filtered using samtools to filter reads by MAPQ > 10 and use Picard to remove PCR duplicates
Tab-delimited files (ALLC files) describing the quantity of unmethylated and methylated cytosine base calls will be generated with in-house developing package using the filtered BAM files
Assembly: mm10
Supplementary files format and content: tab-delimited files (ALLC files) describing the quantity of unmethylated and methylated cytosine base calls. Columns are: 1. Chromosome, 2. Position, 3. Strand, 4. Cytosin Context, 5. methylated base call, 6. total mapped base call, 7. not used, place holder column
Library strategy: snmC-seq2 & 3

source_name: brain

growth_protocol: All experimental procedures using live animals were approved by the Salk Institute Animal Care and Use Committee. The knock-in mouse line, R26R-CAG-loxp-stop-loxp-Sun1-sfGFP-Myc (INTACT) was used for most experiments4 and they were maintained on a C57BL/6J background. 42-49 day old adult male and female INTACT mice were used for the retrograde labeling experiment.

extract_protocol:
Approximately two weeks after the AAVretro injection, brains were extracted from the 56-63 day old INTACT mice, immediately submerged in ice-cold slicing buffer (2.5mM KCl, 0.5mM CaCl2, 7mM MgCl2, 1.25mM NaH2PO4, 110mM sucrose, 10mM glucose and 25mM NaHCO3) that was bubbled with carbogen, and sliced into 0.6 mm coronal sections starting from the frontal pole. From each AAVretro-injected brain, the slices were kept in the ice-cold dissection buffer from which selected brain regions (Supplementary Table 1) were manually dissected under a fluorescent dissecting microscope (Olympus SZX16), following the Allen Mouse Common Coordinate Framework (CCF), Reference Atlas, Version 3 (2015) (Extended Data Fig. 1). The dissected brain tissues were transferred to prelabeled microcentrifuge tubes, immediately frozen in dry ice, and subsequently stored at -80oC.   For each dissected brain region, samples from 2 males and 2 females were pooled separately as biological replicates for nuclei preparation. The 2-mL glass tissue dounce homogenizer and pestles (Sigma-Aldrich D8938-1SET) were pre-chilled on ice. Nuclei were prepared using a modified protocol as reported by Lacar et al., 201622. In summary, the frozen brain tissues were transferred to the dounce homogenizer with 1 mL ice-cold NIM buffer (0.25M sucrose, 25mM KCl, 5mM MgCl2, 10mM Tris-HCl (pH7.4), 1mM DTT (Sigma 646563), 10μl of protease inhibitor (Sigma P8340)), with 0.1% Triton X-100 and 5μM Hoechst 33342 (Invitrogen H3570), and gently homogenized on ice with the pestle 10-15 times. The homogenate was transferred to pre-chilled microcentrifuge tubes and centrifuged at 1000 rcf for 8 min at 4oC to pellet the nuclei. The pellet was resuspended in 1 mL ice-cold NIM buffer, and again centrifuged at 1000 rcf for 8 min at 4oC. The pellet was then resuspended in 450 μL of ice-cold NSB buffer (0.25M sucrose, 5mM MgCl2, 10mM Tris-HCl (pH7.4), 1mM DTT, 9ul of Protease inhibitor), and filtered through 40μM cell strainer. The filtered nuclei suspension was incubated on ice for at least 30 minutes with 50μl of nuclease-free BSA for at least 10 minutes, then incubated with GFP antibody, Alexa Fluor 488 (Invitrogen, A-21311) and anti-NeuN antibody (EMD Millipore MAB377) conjugated with Alexa Fluor 647 (Invitrogen A20173). GFP+/NeuN+ single nuclei were isolated using fluorescence-activated nuclei sorting (FANS) on a BD Influx sorter with 100μm nozzle, and sorted into 384-well plates preloaded with 2μl of digestion buffer for snmC-seq (20 mL digestion buffer consists of 10 mL M-digestion buffer (2×, Zymo D5021-9), 1 ml Proteinase K (20 mg, Zymo D3001-2-20), 9 mL water, and 10 µL unmethylated lambda DNA (100 pg/µL, Promega, D1521)). The collected plates were incubated at 50oC for 20 minutes then stored at -20 oC.
The bisulfite conversion and library preparation were performed following the detailed snmC-seq2 protocol as previously described (Luo, C. et al., Nat. Commun. 2018, 9(1):3824.) or snmC-seq3 protocol described in (Liu, H. et al., Biorxiv. 2023:2023-04.). The libraries were sequenced on Illumina Novaseq 6000 using the S4 flow cell 2 x 150 bp mode.

treatment_protocol: To label neurons projecting to regions of interest, injections of rAAV2-retro-Cre (produced by Salk Vector Core or Vigene, 2x1012 to 1x1013 viral genomes/ml, produced with capsid from Addgene plasmid #81070 packaging pAAV-EF1a-Cre from Addgene plasmid #55636) were made into both hemispheres of the INTACT mice. Animals were anesthetized with either ketamine/xylazine or isoflurane, placed in a stereotaxic frame, and 0.1 to 0.5 microliters of AAV was injected by pressure into stereotaxic coordinates corresponding to the desired projection target.

value: brain

tag: source

value: HY

tag: target

value: MY

value: male


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad010

value: VTA

value: STR

value: female


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B12_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B12_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B12_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B2_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B12_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B10_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B10_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B11_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad007


title: 1809-AB-34

tag: cell type


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B10_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B10_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B10_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A9_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A9_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A9_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A8_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A8_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A8_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A7_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A7_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A9_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A9_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A7_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A7_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A4_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A6_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A5_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A5_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A6_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A5_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A6_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A6_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A4_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A6_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_B1_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A8_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A4_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A8_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A5_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad007


title: S2-Twi_40uM_rep2

description:
S2-Twi_40uM.bw
S2-Twi_RNAseq_counts.tsv

value: 40uM CuSO4


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A2_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A2_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A2_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A2_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A2_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A12_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A12_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A12_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A2_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A3_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A11_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A12_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A10_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A11_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A11_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A10_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A10_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A12_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A10_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H9_ad006

value: RSP


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H8_ad002

value: PTLp


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H7_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A11_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H5_ad001

value: AI


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H4_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H5_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H6_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H5_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H7_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H4_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H3_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H3_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H2_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H7_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H11_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H11_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H2_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H11_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H1_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H4_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H10_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G9_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G9_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H10_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P5_Pool96_P6_A1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G7_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G7_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_H2_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G6_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G6_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G5_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G5_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G4_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G4_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G5_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G4_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G4_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G1_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G8_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G2_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G3_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G2_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G3_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G11_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G1_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G11_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G10_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G11_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_G10_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_F9_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_F8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_F8_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_F9_ad001


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_C7_ad006


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B12_ad006


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B11_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_C10_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B10_ad006


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A9_ad002


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A8_ad006


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A6_ad002


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B12_ad004


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B6_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_B2_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A1_ad001


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A12_ad002


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A5_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A2_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A10_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P3_Pool96_P4_A10_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H8_ad010

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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H9_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H9_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H8_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H9_ad008

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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H9_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H8_ad006


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H7_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H8_ad001

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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H3_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H1_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H1_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H1_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H4_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H3_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H4_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H3_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H12_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H2_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H4_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H1_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H12_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H11_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H11_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H11_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H12_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H11_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H11_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G8_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H10_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H10_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H10_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G9_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G8_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G8_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G8_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_H12_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G7_ad010


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G6_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G7_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G6_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G7_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G6_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G7_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G6_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G5_ad010


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title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G7_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G3_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G2_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G2_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G3_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G2_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G2_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G2_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G12_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G12_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G12_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G12_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G12_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G11_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G10_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G10_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G11_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G11_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G10_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G1_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_G12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F8_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F8_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F8_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F9_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F8_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F8_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F6_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F6_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F6_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F6_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F4_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F5_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F5_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F6_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F5_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F4_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F4_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F4_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F4_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F7_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F4_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F3_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F1_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F3_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F2_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F1_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F1_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F1_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F3_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F3_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F1_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F11_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F11_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F11_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F12_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F10_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F10_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F10_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F10_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F10_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F11_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_F10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E7_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E8_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E7_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E8_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E8_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E8_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E7_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E6_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E7_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E6_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E6_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E6_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E6_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E6_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E9_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E5_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E4_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E4_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E4_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E7_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E3_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E5_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E3_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E3_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E3_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E3_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E2_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E1_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E2_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E2_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E12_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E12_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E2_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E2_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E5_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E5_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E5_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E1_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E1_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E12_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E3_ad010


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E11_ad012


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E12_ad001


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E12_ad002


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E1_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E11_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E11_ad004


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E10_ad008


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E10_ad007


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E10_ad006


title: 200221_CEMBA_mm_P56_P63_RS2_Pool96_P1_Pool96_P2_E10_ad001