Summary of Study ST002733
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 PR001697. The data can be accessed directly via it's Project DOI: 10.21228/M8BT6J 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 | ST002733 |
Study Title | Plasma metabolic fingerprints for large-scale screening and personalized risk stratification of metabolic syndrome |
Study Summary | Direct diagnosis and accurate assessment of metabolic syndrome (MetS) would allow for prompt clinical interventions. However, diagnostic strategies use only traditional risk factors, without considering the complex heterogeneity of MetS. Here, we performed an advanced ferric particle-assisted laser desorption/ionization mass spectrometry (LDI-MS)-based metabolomic analysis of 100 nL of plasma per participant collected from the largest general community cohort (n=13,554) reported to date and extracted a set of 26 hub plasma metabolic fingerprints (PMFs) for MetS and its early identification (pre-MetS). We develop machine learning-based diagnostic models for pre-MetS and MetS with convincing performance through independent validation. These PMFs were applied to assess the contributions of four MetS risk factors in the general population as follows, from large to small contribution: hyperglycemia, hypertension, dyslipidemia, and obesity. We devised a personalized three-dimensional plasma metabolic risk (PMR) stratification to decode the individual metabolic risk into three patterns. During the 4-year follow-up period of 13,554 participants, the accumulation analysis of all-cause death events showed that patients with medium and high risk had HRs of 1.54 (95% CI 1.05-2.28, p = 0.029) and 1.85 (95% CI 1.22-2.79, p = 0.004), respectively, compared to those with low risk. Overall, we provided efficient screening tools to identify patients with pre-MetS and MetS who require treatments in the general community and defined the heterogeneous risk stratification of metabolic phenotypes in real-world settings. |
Institute | Shanghai Jiao Tong University affiliated Renji Hospital |
Last Name | Chen |
First Name | Yifan |
Address | dongfang road.1630 |
yifanchen@sjtu.edu.cn | |
Phone | +8613917129357 |
Submit Date | 2023-05-21 |
Analysis Type Detail | MALDI-MS |
Release Date | 2023-06-15 |
Release Version | 1 |
Select appropriate tab below to view additional metadata details:
Project:
Project ID: | PR001697 |
Project DOI: | doi: 10.21228/M8BT6J |
Project Title: | Plasma metabolic fingerprints for large-scale screening and personalized risk stratification of metabolic syndrome |
Project Type: | Human, Plasma, LDI-MS |
Project Summary: | LDI-MS-based metabolomic analysis of 100 nL of plasma per participant collected from the largest general community cohort (n=13,554) reported to date and extracted a set of 26 hub plasma metabolic fingerprints (PMFs) for MetS and its early identification (pre-MetS). |
Institute: | Shanghai Jiao Tong University affiliated Renji Hospital |
Department: | Division of Cardiology |
Laboratory: | Cardiology Lab |
Last Name: | Chen |
First Name: | Yifan |
Address: | 160 Pujian Road, Shanghai, 200127, P. R. China, Shanghai, Shanghai, 200032, China |
Email: | yifanchen@sjtu.edu.cn |
Phone: | +8617321400424 |
Subject:
Subject ID: | SU002839 |
Subject Type: | Human |
Subject Species: | Homo sapiens |
Taxonomy ID: | 9606 |
Gender: | Male and female |
Factors:
Subject type: Human; Subject species: Homo sapiens (Factor headings shown in green)
mb_sample_id | local_sample_id | Disease | sex |
---|---|---|---|
SA274999 | Sa_1608 | Healthy Control | Female |
SA275000 | Sa_10301 | Healthy Control | Female |
SA275001 | Sa_1599 | Healthy Control | Female |
SA275002 | Sa_1590 | Healthy Control | Female |
SA275003 | Sa_1597 | Healthy Control | Female |
SA275004 | Sa_13148 | Healthy Control | Female |
SA275005 | Sa_10303 | Healthy Control | Female |
SA275006 | Sa_1642 | Healthy Control | Female |
SA275007 | Sa_1643 | Healthy Control | Female |
SA275008 | Sa_1639 | Healthy Control | Female |
SA275009 | Sa_13138 | Healthy Control | Female |
SA275010 | Sa_10863 | Healthy Control | Female |
SA275011 | Sa_1611 | Healthy Control | Female |
SA275012 | Sa_1589 | Healthy Control | Female |
SA275013 | Sa_13165 | Healthy Control | Female |
SA275014 | Sa_1564 | Healthy Control | Female |
SA275015 | Sa_1557 | Healthy Control | Female |
SA275016 | Sa_1556 | Healthy Control | Female |
SA275017 | Sa_13168 | Healthy Control | Female |
SA275018 | Sa_12181 | Healthy Control | Female |
SA275019 | Sa_1573 | Healthy Control | Female |
SA275020 | Sa_1586 | Healthy Control | Female |
SA275021 | Sa_1588 | Healthy Control | Female |
SA275022 | Sa_1582 | Healthy Control | Female |
SA275023 | Sa_1580 | Healthy Control | Female |
SA275024 | Sa_13157 | Healthy Control | Female |
SA275025 | Sa_1647 | Healthy Control | Female |
SA275026 | Sa_1654 | Healthy Control | Female |
SA275027 | Sa_4985 | Healthy Control | Female |
SA275028 | Sa_4948 | Healthy Control | Female |
SA275029 | Sa_4989 | Healthy Control | Female |
SA275030 | Sa_4990 | Healthy Control | Female |
SA275031 | Sa_4993 | Healthy Control | Female |
SA275032 | Sa_4942 | Healthy Control | Female |
SA275033 | Sa_4934 | Healthy Control | Female |
SA275034 | Sa_4908 | Healthy Control | Female |
SA275035 | Sa_4892 | Healthy Control | Female |
SA275036 | Sa_4916 | Healthy Control | Female |
SA275037 | Sa_4918 | Healthy Control | Female |
SA275038 | Sa_4925 | Healthy Control | Female |
SA275039 | Sa_4996 | Healthy Control | Female |
SA275040 | Sa_5002 | Healthy Control | Female |
SA275041 | Sa_13134 | Healthy Control | Female |
SA275042 | Sa_10307 | Healthy Control | Female |
SA275043 | Sa_1661 | Healthy Control | Female |
SA275044 | Sa_1657 | Healthy Control | Female |
SA275045 | Sa_5423 | Healthy Control | Female |
SA275046 | Sa_13126 | Healthy Control | Female |
SA275047 | Sa_10314 | Healthy Control | Female |
SA275048 | Sa_5036 | Healthy Control | Female |
SA275049 | Sa_5010 | Healthy Control | Female |
SA275050 | Sa_13119 | Healthy Control | Female |
SA275051 | Sa_10315 | Healthy Control | Female |
SA275052 | Sa_10902 | Healthy Control | Female |
SA275053 | Sa_1652 | Healthy Control | Female |
SA275054 | Sa_12172 | Healthy Control | Female |
SA275055 | Sa_1479 | Healthy Control | Female |
SA275056 | Sa_5489 | Healthy Control | Female |
SA275057 | Sa_1475 | Healthy Control | Female |
SA275058 | Sa_5499 | Healthy Control | Female |
SA275059 | Sa_1469 | Healthy Control | Female |
SA275060 | Sa_5486 | Healthy Control | Female |
SA275061 | Sa_5485 | Healthy Control | Female |
SA275062 | Sa_1489 | Healthy Control | Female |
SA275063 | Sa_5474 | Healthy Control | Female |
SA275064 | Sa_5482 | Healthy Control | Female |
SA275065 | Sa_5483 | Healthy Control | Female |
SA275066 | Sa_1485 | Healthy Control | Female |
SA275067 | Sa_10293 | Healthy Control | Female |
SA275068 | Sa_5506 | Healthy Control | Female |
SA275069 | Sa_7569 | Healthy Control | Female |
SA275070 | Sa_1442 | Healthy Control | Female |
SA275071 | Sa_5534 | Healthy Control | Female |
SA275072 | Sa_5537 | Healthy Control | Female |
SA275073 | Sa_1436 | Healthy Control | Female |
SA275074 | Sa_5524 | Healthy Control | Female |
SA275075 | Sa_5523 | Healthy Control | Female |
SA275076 | Sa_5512 | Healthy Control | Female |
SA275077 | Sa_1460 | Healthy Control | Female |
SA275078 | Sa_5517 | Healthy Control | Female |
SA275079 | Sa_1453 | Healthy Control | Female |
SA275080 | Sa_5522 | Healthy Control | Female |
SA275081 | Sa_5471 | Healthy Control | Female |
SA275082 | Sa_5469 | Healthy Control | Female |
SA275083 | Sa_5438 | Healthy Control | Female |
SA275084 | Sa_5437 | Healthy Control | Female |
SA275085 | Sa_5439 | Healthy Control | Female |
SA275086 | Sa_5440 | Healthy Control | Female |
SA275087 | Sa_5441 | Healthy Control | Female |
SA275088 | Sa_5434 | Healthy Control | Female |
SA275089 | Sa_5433 | Healthy Control | Female |
SA275090 | Sa_5429 | Healthy Control | Female |
SA275091 | Sa_4887 | Healthy Control | Female |
SA275092 | Sa_5430 | Healthy Control | Female |
SA275093 | Sa_1535 | Healthy Control | Female |
SA275094 | Sa_5432 | Healthy Control | Female |
SA275095 | Sa_1519 | Healthy Control | Female |
SA275096 | Sa_1518 | Healthy Control | Female |
SA275097 | Sa_5467 | Healthy Control | Female |
SA275098 | Sa_1500 | Healthy Control | Female |
Collection:
Collection ID: | CO002832 |
Collection Summary: | All human peripheral venous blood samples were obtained following the protocols approved by the Institutional Review Board at Shanghai Jiao Tong University. To avert the diet disturbance, blood samples were collected from induvial peripheral vein and gently mixed in the heparin antifreeze tubes after overnight fasting (more than 8 hours). The plasma was separated after centrifugation for 10min (4000 rpm; 4 ℃) within 2 hours of collection. All plasma samples were stored at -80 ℃ for future assays. |
Sample Type: | Blood (plasma) |
Storage Conditions: | -80℃ |
Treatment:
Treatment ID: | TR002848 |
Treatment Summary: | This is a natural population study without treatment |
Sample Preparation:
Sampleprep ID: | SP002845 |
Sampleprep Summary: | For plasma sample detection, the samples were firstly prepared through protein precipitation, centrifugation, and supernatant filtration according to a commonly applied procedure. Then, a volume of 100nL of plasma solution was spotted on the plate and dried in air at room temperature, followed by adding 100nL of matrix slurry and drying for LDI MS analysis. |
Combined analysis:
Analysis ID | AN004431 |
---|---|
Analysis type | MS |
Chromatography type | None (Direct infusion) |
Chromatography system | Bruker Autoflex speed TOF/TOF |
Column | None |
MS Type | MALDI |
MS instrument type | TOF |
MS instrument name | Bruker Autoflex speed TOF/TOF |
Ion Mode | POSITIVE |
Units | Peak Area |
Chromatography:
Chromatography ID: | CH003329 |
Instrument Name: | Bruker Autoflex speed TOF/TOF |
Column Name: | None |
Column Temperature: | NA |
Flow Gradient: | NA |
Flow Rate: | NA |
Solvent A: | NA |
Solvent B: | NA |
Chromatography Type: | None (Direct infusion) |
MS:
MS ID: | MS004178 |
Analysis ID: | AN004431 |
Instrument Name: | Bruker Autoflex speed TOF/TOF |
Instrument Type: | TOF |
MS Type: | MALDI |
MS Comments: | In a typical LDI MS experiment, ferric particles were dispersed in deionized water at a concentration of 1mg mL-1 for use as a matrix. The organic matrices of CHCA and DHB were dissolved in TA30 solution (acetonitrile/0.1% TFA in water, 7/3, v/v) at a concentration of 10 mg/mL. For the detection of the standards, 100nL of analyte solution (each standard listed in the part of chemicals and reagents) with different density (100ng mL-1, 1μg mL-1, 10μg mL-1, 100μg mL-1, 1mg mL-1) was mixed with 100nL of matrix slurry on the plate and dried for LDI MS analysis. For plasma sample detection, the samples were firstly prepared through protein precipitation, centrifugation, and supernatant filtration according to a commonly applied procedure. Then, a volume of 100nL of plasma solution was spotted on the plate and dried in air at room temperature, followed by adding 100nL of matrix slurry and drying for LDI MS analysis. Then, mass spectra were performed on a 5800 Proteomics Analyzer (Applied Biosystems, Framingham, MA, USA) equipped with a Nd:YAG laser (2 kHz, 355 nm). The acquisitions were extracted in positive reflector ion mode employing delayed extraction with a repetition rate of 1,000Hz and an acceleration voltage of 20 kV. The delay time for this experiment was optimized to 250 ns. The 2,000 laser shots per analysis were for all LDI MS experiments. All the original mass spectra data were visualized in DataExplorer (Version 4.5). Only the m/z signals within 100–300Da and with a signal-to-noise ratio over 3 were then acquired without smoothing processes. For pre-processing, we applied a “home-developed” program using MATLAB (R2016a, The Mathworks, Natick, MA, USA) to normalize and standardize the mass spectra data after peak extraction and alignment59. And standard molecules for the accurate mass measurement (±0.05Da) of both Na+-adducted and K+-adducted signals were used to perform the mass calibration. The detection limit of standard metabolites (listed in chemicals and reagents’ part) obtained by ferric particle, DHB, and CHCA-assisted LDI MS were calculated as previously reported |
Ion Mode: | POSITIVE |