Summary of Study ST003952
This data is available at the NIH Common Fund's National Metabolomics Data Repository (NMDR) website, the Metabolomics Workbench, https://www.metabolomicsworkbench.org, where it has been assigned Project ID PR001844. The data can be accessed directly via it's Project DOI: 10.21228/M8C145 This work is supported by NIH grant, U2C- DK119886.
See: https://www.metabolomicsworkbench.org/about/howtocite.php
This study contains a large results data set and is not available in the mwTab file. It is only available for download via FTP as data file(s) here.
| Study ID | ST003952 |
| Study Title | Comprehensive Untargeted LC-MS Metabolomics Analysis of STS/HSD3B1 Knockout iPSCs (supernatant) |
| Study Summary | Human induced pluripotent stem cells (hIPSCs) are a key tool for biomedical research. Using CRISPR-cas9, null mutations were generated in KOLF2.2J hIPSCs and subsequently differentiated into primitive syncytium. In this study, null allele mutations were generated in STS and HSD3B1, genes encoding key enzymes in the steroidogenesis pathway. Cells were cultured on media with and without DHEA-S, a stimulator of steroidogenesis. Informed from previous studies (see PR001844), dansyl hydrazine and dansyl chloride (DnHz and DnCl respectively) were employed via an in-house method to enhance detection of specific sub metabolomes (e.g., estrogens and other steroids) in supernatant derived from the described cells. Derivatized samples were analyzed using a Thermo Scientific Q Exactive HF-X Mass Spectrometer coupled to a Thermo Vanquish Duo UHPLC Systems, equipped with an HES-II ionization source. The analysis uses a RP positive method optimized for derivatized samples. By comparing the steroid profiles of these samples, phenotypic differences can be explained at a molecular level. This is particularly useful for non-transcriptional factors that can otherwise be difficult to characterize with transcriptomics approaches. This study was funded, in part, through UM1HG012651 which established the JAX MorPhiC Center, a MorPhiC Phase 1 Data Production Research and Development Center at the Jackson Laboratory for Genomic Medicine. This study was funded, in part, through UM1HG012651 which established the JAX MorPhiC Center, a MorPhiC Phase 1 Data Production Research and Development Center at the Jackson Laboratory for Genomic Medicine. |
| Institute | The Jackson Laboratory for Genomic Medicine |
| Last Name | Chi |
| First Name | Yuanye |
| Address | 10 Discovery Dr, Farmington, CT |
| yuanye.chi@jax.org | |
| Phone | 3395456866 |
| Submit Date | 2025-05-13 |
| Raw Data Available | Yes |
| Raw Data File Type(s) | mzML |
| Analysis Type Detail | LC-MS |
| Release Date | 2025-06-09 |
| Release Version | 1 |
Select appropriate tab below to view additional metadata details:
Project:
| Project ID: | PR001844 |
| Project DOI: | doi: 10.21228/M8C145 |
| Project Title: | Molecular Phenotypes of Null Alleles in Cells |
| Project Summary: | The 2020 NHGRI Strategic Vision laid out a set of “bold predictions for human genomics by 2030” including elucidating the biological function(s) of each human gene. The Molecular Phenotypes of Null Alleles in Cells (MorPhiC) seeks to address this element of the strategic vision. Through the comprehensive generation of null alleles for every human gene and then cataloging the resulting molecular and cellular phenotypes, the mechanisms that relate gene function to observed phenotypes can be determined. Furthermore, the resulting catalog of knockouts and phenotypes will be made available for broader use by the biomedical community. Although multiple approaches can be leveraged to measure molecular and cellular phenotypes resulting from gene knockouts, metabolomics and lipidomics (i.e., biochemical phenotyping) provides an avenue to understand the link between gene function and phenotypes at a molecular level. This project consists of studies performed to biochemical phenotype of cell lines and other samples generated as part of MorPhiC. Resources: 1. https://www.nih.gov/news-events/news-releases/nih-initiative-systematically-investigate-establish-function-every-human-gene 2. https://www.genome.gov/research-funding/Funded-Programs-Projects/Molecular-Phenotypes-of-Null-Alleles-in-Cells |
| Institute: | The Jackson Laboratory for Genomic Medicine |
| Laboratory: | Shuzhao Li Lab |
| Last Name: | Chi |
| First Name: | Yuanye |
| Address: | 10 Discovery Dr, Farmington, CT |
| Email: | yuanye.chi@jax.org |
| Phone: | 3395456866 |
Subject:
| Subject ID: | SU004089 |
| Subject Type: | Cultured cells |
| Subject Species: | Homo sapiens |
| Taxonomy ID: | 9606 |
Factors:
Subject type: Cultured cells; Subject species: Homo sapiens (Factor headings shown in green)
| mb_sample_id | local_sample_id | Sample source | Harvest |
|---|---|---|---|
| SA452392 | Pool_12C13C_DnCl_5_SZ_12042024_56 | Pool_12C13C | Supernatant |
| SA452393 | Pool_12C13C_DnHz_2_SZ_12062024_20 | Pool_12C13C | Supernatant |
| SA452394 | Pool_12C13C_DnHz_4_SZ_12062024_44 | Pool_12C13C | Supernatant |
| SA452395 | Pool_12C13C_DnHz_5_SZ_12062024_56 | Pool_12C13C | Supernatant |
| SA452396 | Pool_12C13C_DnHz_6_SZ_12062024_68 | Pool_12C13C | Supernatant |
| SA452397 | Pool_12C13C_DnCl_2_SZ_12042024_20 | Pool_12C13C | Supernatant |
| SA452398 | Pool_12C13C_DnCl_3_SZ_12042024_32 | Pool_12C13C | Supernatant |
| SA452399 | Pool_12C13C_DnHz_1_SZ_12062024_07 | Pool_12C13C | Supernatant |
| SA452400 | Pool_12C13C_DnHz_7_SZ_12062024_80 | Pool_12C13C | Supernatant |
| SA452401 | Pool_12C13C_DnHz_8_SZ_12062024_92 | Pool_12C13C | Supernatant |
| SA452402 | Pool_12C13C_DnHz_3_SZ_12062024_32 | Pool_12C13C | Supernatant |
| SA452403 | Pool_12C13C_DnHz_9_SZ_12062024_102 | Pool_12C13C | Supernatant |
| SA452404 | Pool_12C13C_DnCl_4_SZ_12042024_44 | Pool_12C13C | Supernatant |
| SA452405 | Pool_12C13C_DnCl_9_SZ_12042024_102 | Pool_12C13C | Supernatant |
| SA452406 | Pool_12C13C_DnCl_8_SZ_12042024_92 | Pool_12C13C | Supernatant |
| SA452407 | Pool_12C13C_DnCl_1_SZ_12042024_07 | Pool_12C13C | Supernatant |
| SA452408 | Pool_12C13C_DnCl_7_SZ_12042024_80 | Pool_12C13C | Supernatant |
| SA452409 | Pool_12C13C_DnCl_6_SZ_12042024_68 | Pool_12C13C | Supernatant |
| SA452410 | Pool_12C_DnHz_1_SZ_12062024_06 | Pool_12C | Supernatant |
| SA452411 | Pool_12C_DnCl_9_SZ_12042024_101 | Pool_12C | Supernatant |
| SA452412 | Pool_12C_DnCl_8_SZ_12042024_91 | Pool_12C | Supernatant |
| SA452413 | Pool_12C_DnCl_3_SZ_12042024_31 | Pool_12C | Supernatant |
| SA452414 | Pool_12C_DnCl_7_SZ_12042024_79 | Pool_12C | Supernatant |
| SA452415 | Pool_12C_DnHz_2_SZ_12062024_19 | Pool_12C | Supernatant |
| SA452416 | Pool_12C_DnCl_6_SZ_12042024_67 | Pool_12C | Supernatant |
| SA452417 | Pool_12C_DnCl_4_SZ_12042024_43 | Pool_12C | Supernatant |
| SA452418 | Pool_12C_DnHz_3_SZ_12062024_31 | Pool_12C | Supernatant |
| SA452419 | Pool_12C_DnHz_4_SZ_12062024_43 | Pool_12C | Supernatant |
| SA452420 | Pool_12C_DnHz_8_SZ_12062024_91 | Pool_12C | Supernatant |
| SA452421 | Pool_12C_DnCl_1_SZ_12042024_06 | Pool_12C | Supernatant |
| SA452422 | Pool_12C_DnHz_9_SZ_12062024_101 | Pool_12C | Supernatant |
| SA452423 | Pool_12C_DnHz_5_SZ_12062024_55 | Pool_12C | Supernatant |
| SA452424 | Pool_12C_DnCl_5_SZ_12042024_55 | Pool_12C | Supernatant |
| SA452425 | Pool_12C_DnHz_7_SZ_12062024_79 | Pool_12C | Supernatant |
| SA452426 | Pool_12C_DnCl_2_SZ_12042024_19 | Pool_12C | Supernatant |
| SA452427 | Pool_12C_DnHz_6_SZ_12062024_67 | Pool_12C | Supernatant |
| SA452428 | Pool_no_DnCl_1_12042024_04 | Pooled_Underivatized | Supernatant |
| SA452429 | Pool_no_DnHz_2_SZ_12062024_105 | Pooled_Underivatized | Supernatant |
| SA452430 | Pool_no_DnHz_1_12062024_04 | Pooled_Underivatized | Supernatant |
| SA452431 | Pool_no_DnCl_2_SZ_12042024_105 | Pooled_Underivatized | Supernatant |
| SA452432 | Process_Blank_12C_DnCl_2_SZ_12042024_107 | Process_Blank | Supernatant |
| SA452433 | Process_Blank_12C_DnCl_1_SZ_12042024_02 | Process_Blank | Supernatant |
| SA452434 | Process_Blank_12C13C_DnHz_2_SZ_12062024_106 | Process_Blank | Supernatant |
| SA452435 | Process_Blank_12C_DnHz_2_SZ_12062024_107 | Process_Blank | Supernatant |
| SA452436 | Process_Blank_12C_DnHz_1_SZ_12062024_02 | Process_Blank | Supernatant |
| SA452437 | Process_Blank_12C13C_DnHz_SZ_12062024_03 | Process_Blank | Supernatant |
| SA452438 | Process_Blank_12C13C_DnCl_SZ_12042024_03 | Process_Blank | Supernatant |
| SA452439 | Process_Blank_12C13C_DnCl_2_SZ_12042024_106 | Process_Blank | Supernatant |
| SA452440 | Qstd_1_SZ_12062024_08 | Qstd | Supernatant |
| SA452441 | Qstd_2_SZ_12062024_103 | Qstd | Supernatant |
| SA452442 | Qstd_2_SZ_12042024_103 | Qstd | Supernatant |
| SA452443 | Qstd_1_SZ_12042024_08 | Qstd | Supernatant |
| SA452444 | Solvent_Blank_2_SZ_12042024_108 | Solvent_Blank | Supernatant |
| SA452445 | Solvent_Blank_2_SZ_12062024_108 | Solvent_Blank | Supernatant |
| SA452446 | Solvent_Blank_1_SZ_12042024_01 | Solvent_Blank | Supernatant |
| SA452447 | Solvent_Blank_1_SZ_12062024_01 | Solvent_Blank | Supernatant |
| SA452448 | Standard_12C_DnCl_1_SZ_12042024_05 | Standard_12C | Supernatant |
| SA452449 | Standard_12C_DnHz_2_SZ_12062024_104 | Standard_12C | Supernatant |
| SA452450 | Standard_12C_DnCl_2_SZ_12042024_104 | Standard_12C | Supernatant |
| SA452451 | Standard_12C_DnHz_1_SZ_12062024_05 | Standard_12C | Supernatant |
| SA452452 | STS_PTC_C12_Basal_R1_12C_DnHz_SZ_12062024_58 | Stem Cells Culture | Supernatant |
| SA452453 | STS_KO_A02_Basal_R1_12C_DnHz_SZ_12062024_53 | Stem Cells Culture | Supernatant |
| SA452454 | STS_CE_C05_DHEAS_R1_12C_DnHz_SZ_12062024_54 | Stem Cells Culture | Supernatant |
| SA452455 | STS_PTC_D10_DHEAS_R2_12C_DnCl_SZ_12042024_24 | Stem Cells Culture | Supernatant |
| SA452456 | STS_PTC_F10_Basal_R1_12C_DnCl_SZ_12042024_23 | Stem Cells Culture | Supernatant |
| SA452457 | STS_CE_B08_DHEAS_R2_12C_DnHz_SZ_12062024_57 | Stem Cells Culture | Supernatant |
| SA452458 | STS_KO_A01_DHEAS_R1_12C_DnHz_SZ_12062024_61 | Stem Cells Culture | Supernatant |
| SA452459 | STS_PTC_D10_DHEAS_R3_12C_DnHz_SZ_12062024_59 | Stem Cells Culture | Supernatant |
| SA452460 | HSD3B1_PTC_C07_DHEAS_R3_12C_DnHz_SZ_12062024_60 | Stem Cells Culture | Supernatant |
| SA452461 | STS_KO_B03_Basal_R2_12C_DnHz_SZ_12062024_51 | Stem Cells Culture | Supernatant |
| SA452462 | HSD3B1_PTC_C07_Basal_R2_12C_DnHz_SZ_12062024_62 | Stem Cells Culture | Supernatant |
| SA452463 | STS_CE_A06_Basal_R2_12C_DnHz_SZ_12062024_63 | Stem Cells Culture | Supernatant |
| SA452464 | STS_PTC_D10_Basal_R2_12C_DnHz_SZ_12062024_64 | Stem Cells Culture | Supernatant |
| SA452465 | WT_DHEAS_3_12C_DnHz_SZ_12062024_65 | Stem Cells Culture | Supernatant |
| SA452466 | STS_CE_B08_Basal_R2_12C_DnHz_SZ_12062024_66 | Stem Cells Culture | Supernatant |
| SA452467 | WT_Basal_3_12C_DnHz_SZ_12062024_52 | Stem Cells Culture | Supernatant |
| SA452468 | STS_CE_A06_DHEAS_R3_12C_DnHz_SZ_12062024_49 | Stem Cells Culture | Supernatant |
| SA452469 | STS_KO_A02_DHEAS_R2_12C_DnHz_SZ_12062024_50 | Stem Cells Culture | Supernatant |
| SA452470 | STS_KO_A01_Basal_R2_12C_DnHz_SZ_12062024_40 | Stem Cells Culture | Supernatant |
| SA452471 | STS_CE_A06_DHEAS_R2_12C_DnHz_SZ_12062024_33 | Stem Cells Culture | Supernatant |
| SA452472 | STS_KO_A01_DHEAS_R2_12C_DnHz_SZ_12062024_34 | Stem Cells Culture | Supernatant |
| SA452473 | STS_PTC_C12_Basal_R3_12C_DnHz_SZ_12062024_35 | Stem Cells Culture | Supernatant |
| SA452474 | STS_PTC_F10_Basal_R1_12C_DnHz_SZ_12062024_36 | Stem Cells Culture | Supernatant |
| SA452475 | STS_CE_C05_DHEAS_R3_12C_DnHz_SZ_12062024_37 | Stem Cells Culture | Supernatant |
| SA452476 | HSD3B1_PTC_D03_DHEAS_R3_12C_DnHz_SZ_12062024_38 | Stem Cells Culture | Supernatant |
| SA452477 | STS_PTC_C12_DHEAS_R2_12C_DnHz_SZ_12062024_39 | Stem Cells Culture | Supernatant |
| SA452478 | HSD3B1_PTC_C12_DHEAS_R1_12C_DnHz_SZ_12062024_41 | Stem Cells Culture | Supernatant |
| SA452479 | STS_CE_B08_DHEAS_R2_12C_DnCl_SZ_12042024_21 | Stem Cells Culture | Supernatant |
| SA452480 | STS_PTC_F10_Basal_R3_12C_DnHz_SZ_12062024_42 | Stem Cells Culture | Supernatant |
| SA452481 | STS_CE_C05_DHEAS_R2_12C_DnCl_SZ_12042024_26 | Stem Cells Culture | Supernatant |
| SA452482 | STS_KO_B03_Basal_R1_12C_DnCl_SZ_12042024_25 | Stem Cells Culture | Supernatant |
| SA452483 | STS_KO_B03_DHEAS_R2_12C_DnHz_SZ_12062024_45 | Stem Cells Culture | Supernatant |
| SA452484 | STS_CE_C05_Basal_R3_12C_DnHz_SZ_12062024_46 | Stem Cells Culture | Supernatant |
| SA452485 | HSD3B1_PTC_D03_Basal_R3_12C_DnHz_SZ_12062024_47 | Stem Cells Culture | Supernatant |
| SA452486 | HSD3B1_PTC_C12_Basal_R3_12C_DnHz_SZ_12062024_48 | Stem Cells Culture | Supernatant |
| SA452487 | STS_PTC_F10_DHEAS_R3_12C_DnCl_SZ_12042024_22 | Stem Cells Culture | Supernatant |
| SA452488 | HSD3B1_PTC_D03_DHEAS_R1_12C_DnHz_SZ_12062024_70 | Stem Cells Culture | Supernatant |
| SA452489 | STS_PTC_F10_DHEAS_R3_12C_DnHz_SZ_12062024_69 | Stem Cells Culture | Supernatant |
| SA452490 | HSD3B1_PTC_D03_DHEAS_R2_12C_DnHz_SZ_12062024_98 | Stem Cells Culture | Supernatant |
| SA452491 | STS_KO_A01_DHEAS_R2_12C_DnCl_SZ_12042024_16 | Stem Cells Culture | Supernatant |
Collection:
| Collection ID: | CO004082 |
| Collection Summary: | For the media collection, 500 µL of media was directly aspirated into 1.5 mL Eppendorf tube from each well and flash frozen with liquid nitrogen, stored immediately at -80°C. |
| Sample Type: | iPSC cells |
Treatment:
| Treatment ID: | TR004098 |
| Treatment Summary: | KOLF2.2J cells were passaged as single cells with Accutase and seeded onto SynthemaxII coated 12-well plates at 10k cells per well. 24 h after cell passage, StemFlex media was changed to trophectoderm induction media (TE media). Basal TE media consists of DMEM/F12, supplemented with 20% KnockOut Serum (ThermoFisher, #10828028), 2 mM L-Glutamine (Gibco™, #25030081), 1x MEM non-essential amnio acid (GibcoTM, #11140050), 0.1 mM β-Mercaptoethanol (Sigma, #3148). In addition, 100 ng/ml BMP4 (R&D, #314-BP- 050/CF), and 20 μM SU5402 (Millipore Sigma, # 57263) were added at day 0 and onwards to induce trophoblast lineage (BS condition). For the induction of primitive syncytium, 1 mM A-83 (TOCRIS, #2939) was added at the end of Day 2. Media was refreshed every 2 days until the end of differentiation (Day 6). On day 6, TE media was replaced by the StemFlex media with or without addition of nutrients 24 hours prior to collection. |
Sample Preparation:
| Sampleprep ID: | SP004095 |
| Sampleprep Summary: | See from protocol file. |
| Sampleprep Protocol Filename: | DnCl_Protocol_one_phase_extraction_SZ_05132025.pdf DnHz_Protocol_one_phase_extraction_SZ_05132025.pdf OnePhaseSupernatant_Protocol_SZ_05132025.pdf OnePhaseCellPellet_Protocol_SZ_05132025.pdf |
Chromatography:
| Chromatography ID: | CH004935 |
| Chromatography Summary: | See protocol file |
| Methods Filename: | DnCl_DnHZ_LC_MS_Protocol_SZ_05132025.pdf |
| Instrument Name: | Thermo Vanquish Duo UHPLC |
| Column Name: | Waters ACQUITY UPLC CSH C18 (100 x 2.1 mm, 1.7 µm) |
| Column Temperature: | 45°C |
| Flow Gradient: | 0.0min: 100%B, 3.0min: 100%B, 16.0min: 65%B, 18.0min: 100%B, 21.0min: 100%B, 21.5min: 0%B, 26.0min: 0%B. |
| Flow Rate: | 0.4 mL/min |
| Solvent A: | 95% water/5% acetonitrile; 0.1% Formic acid |
| Solvent B: | 100% acetonitrile; 0.1% Formic acid (v/v) |
| Chromatography Type: | Reversed phase |
Analysis:
| Analysis ID: | AN006495 |
| Analysis Type: | MS |
| Analysis Protocol File: | DnCl_DnHZ_LC_MS_Protocol_SZ_05132025.pdf |
| Chromatography ID: | CH004935 |
| Has Mz: | 1 |
| Has Rt: | 1 |
| Rt Units: | Seconds |
| Results File: | ST003952_AN006495_Results.txt |
| Units: | peak intensity |
| Analysis ID: | AN006496 |
| Analysis Type: | MS |
| Analysis Protocol File: | DnCl_DnHZ_LC_MS_Protocol_SZ_05132025.pdf |
| Chromatography ID: | CH004935 |
| Has Mz: | 1 |
| Has Rt: | 1 |
| Rt Units: | Seconds |
| Results File: | ST003952_AN006496_Results.txt |
| Units: | peak intensity |