Summary of Study ST003338
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 PR002075. The data can be accessed directly via it's Project DOI: 10.21228/M8D824 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 | ST003338 |
Study Title | GRATEFUL (Graft Temperature Evaluation during Lung transplantation) - metabolomics |
Study Summary | We aimed to characterize the rewarming ischemia phase during LuTx by measuring organ temperature and comparing metabolome profiles in tissue obtained at the end versus the start of implantation. |
Institute | KU Leuven |
Last Name | Van Slambrouck |
First Name | Jan |
Address | Herestraat 49, Leuven, Vlaams-Brabant, 3000, Belgium |
jan.vanslambrouck@kuleuven.be | |
Phone | +32 16 19 46 17 |
Submit Date | 2024-05-30 |
Raw Data Available | Yes |
Raw Data File Type(s) | mzML |
Analysis Type Detail | LC-MS |
Release Date | 2024-08-12 |
Release Version | 1 |
Select appropriate tab below to view additional metadata details:
Project:
Project ID: | PR002075 |
Project DOI: | doi: 10.21228/M8D824 |
Project Title: | The effect of rewarming ischemia on tissue transcriptome and metabolome signatures: a clinical observational study in lung transplantation |
Project Type: | Clinical observational study in lung transplantation |
Project Summary: | BACKGROUND: In lung transplantation (LuTx), various ischemic phases exist, yet the rewarming ischemia time (RIT) during implantation has often been overlooked. During RIT, lungs are deflated and exposed to the body temperature in the recipient's chest cavity. Our prior clinical findings demonstrated that prolonged RIT increases the risk of primary graft dysfunction. However, the molecular mechanisms of rewarming ischemic injury in this context remain unexplored. We aimed to characterize the rewarming ischemia phase during LuTx by measuring organ temperature and comparing transcriptome and metabolome profiles in tissue obtained at the end versus the start of implantation. METHODS: In a clinical observational study, 34 double-LuTx with ice preservation were analyzed. Lung core and surface temperature (n=65 and 55 lungs) was measured during implantation. Biopsies (n=59 lungs) were wedged from right middle lobe and left lingula at start and end of implantation. Tissue transcriptomic and metabolomic profiling were performed. RESULTS: Temperature increased rapidly during implantation, reaching core/surface temperatures of 21.5°C/25.4°C within 30min. Transcriptomics showed increased pro-inflammatory signaling and oxidative stress at the end of implantation. Upregulation of NLRP3 and NFKB1 correlated with RIT. Metabolomics indicated elevated levels of amino acids, hypoxanthine, uric acid, cysteineglutathione disulfide alongside decreased levels of glucose and carnitines. Arginine, tyrosine, and 1-carboxyethylleucine showed correlation with incremental RIT. CONCLUSIONS: The final rewarming ischemia phase in LuTx involves rapid organ rewarming, accompanied by transcriptomic and metabolomic changes indicating pro-inflammatory signaling and disturbed cell metabolism. Limiting implantation time and lung cooling represent potential interventions to alleviate rewarming ischemic injury. |
Institute: | KU Leuven |
Laboratory: | Laboratory of Respiratory Diseases and Thoracic Surgery (BREATHE) |
Last Name: | Ceulemans |
First Name: | Laurens |
Address: | Herestraat 49, Leuven, Vlaams-Brabant, 3000, Belgium |
Email: | laurens.ceulemans@uzleuven.be |
Phone: | +32 16 34 34 25 |
Subject:
Subject ID: | SU003459 |
Subject Type: | Human |
Subject Species: | Homo sapiens |
Taxonomy ID: | 9606 |
Factors:
Subject type: Human; Subject species: Homo sapiens (Factor headings shown in green)
mb_sample_id | local_sample_id | Sample source | Rewarming ischemia time in min |
---|---|---|---|
SA362719 | MCF001777_JV117_10 | Lung | 100 |
SA362720 | MCF001777_JV118_8 | Lung | 100 |
SA362721 | MCF001777_JV118_7 | Lung | 100 |
SA362722 | MCF001777_JV118_5 | Lung | 100 |
SA362723 | MCF001777_JV117_9 | Lung | 100 |
SA362724 | MCF001777_JV117_8 | Lung | 100 |
SA362725 | MCF001777_JV117_7 | Lung | 100 |
SA362726 | MCF001777_JV117_4 | Lung | 100 |
SA362727 | MCF001777_JV118_3 | Lung | 100 |
SA362728 | MCF001777_JV118_2 | Lung | 100 |
SA362729 | MCF001777_JV118_1 | Lung | 100 |
SA362730 | MCF001777_JV117_11 | Lung | 100 |
SA362731 | MCF001777_JV118_6 | Lung | 100 |
SA362732 | MCF001777_JV117_3 | Lung | 100 |
SA362733 | MCF001777_JV117_2 | Lung | 100 |
SA362734 | MCF001777_JV117_1 | Lung | 100 |
SA362735 | MCF001777_JV117_5 | Lung | 100 |
SA362736 | MCF001777_JV117_6 | Lung | 100 |
SA362737 | MCF001777_JV118_4 | Lung | 100 |
SA362738 | MCF001777_JV117_12 | Lung | 100 |
SA362739 | MCF001777_JV118_10 | Lung | 100 |
SA362740 | MCF001777_JV118_11 | Lung | 100 |
SA362741 | MCF001777_JV118_12 | Lung | 100 |
SA362742 | MCF001777_JV118_9 | Lung | 100 |
SA362743 | MCF001777_JV14_9 | Lung | 101 |
SA362744 | MCF001777_JV14_6 | Lung | 101 |
SA362745 | MCF001777_JV14_5 | Lung | 101 |
SA362746 | MCF001777_JV13_5 | Lung | 101 |
SA362747 | MCF001777_JV13_6 | Lung | 101 |
SA362748 | MCF001777_JV14_4 | Lung | 101 |
SA362749 | MCF001777_JV14_2 | Lung | 101 |
SA362750 | MCF001777_JV14_8 | Lung | 101 |
SA362751 | MCF001777_JV14_7 | Lung | 101 |
SA362752 | MCF001777_JV13_9 | Lung | 101 |
SA362753 | MCF001777_JV13_8 | Lung | 101 |
SA362754 | MCF001777_JV13_7 | Lung | 101 |
SA362755 | MCF001777_JV14_3 | Lung | 101 |
SA362756 | MCF001777_JV13_4 | Lung | 101 |
SA362757 | MCF001777_JV14_1 | Lung | 101 |
SA362758 | MCF001777_JV13_10 | Lung | 101 |
SA362759 | MCF001777_JV13_2 | Lung | 101 |
SA362760 | MCF001777_JV13_1 | Lung | 101 |
SA362761 | MCF001777_JV14_12 | Lung | 101 |
SA362762 | MCF001777_JV14_11 | Lung | 101 |
SA362763 | MCF001777_JV14_10 | Lung | 101 |
SA362764 | MCF001777_JV13_12 | Lung | 101 |
SA362765 | MCF001777_JV13_11 | Lung | 101 |
SA362766 | MCF001777_JV13_3 | Lung | 101 |
SA362767 | MCF001777_JV08_10 | Lung | 105 |
SA362768 | MCF001777_JV08_12 | Lung | 105 |
SA362769 | MCF001777_JV08_11 | Lung | 105 |
SA362770 | MCF001777_JV07_8 | Lung | 105 |
SA362771 | MCF001777_JV07_12 | Lung | 105 |
SA362772 | MCF001777_JV07_11 | Lung | 105 |
SA362773 | MCF001777_JV07_10 | Lung | 105 |
SA362774 | MCF001777_JV08_7 | Lung | 105 |
SA362775 | MCF001777_JV07_9 | Lung | 105 |
SA362776 | MCF001777_JV07_7 | Lung | 105 |
SA362777 | MCF001777_JV08_8 | Lung | 105 |
SA362778 | MCF001777_JV08_6 | Lung | 105 |
SA362779 | MCF001777_JV07_4 | Lung | 105 |
SA362780 | MCF001777_JV07_1 | Lung | 105 |
SA362781 | MCF001777_JV07_2 | Lung | 105 |
SA362782 | MCF001777_JV07_3 | Lung | 105 |
SA362783 | MCF001777_JV08_1 | Lung | 105 |
SA362784 | MCF001777_JV08_2 | Lung | 105 |
SA362785 | MCF001777_JV08_3 | Lung | 105 |
SA362786 | MCF001777_JV08_9 | Lung | 105 |
SA362787 | MCF001777_JV07_6 | Lung | 105 |
SA362788 | MCF001777_JV08_4 | Lung | 105 |
SA362789 | MCF001777_JV08_5 | Lung | 105 |
SA362790 | MCF001777_JV07_5 | Lung | 105 |
SA362791 | MCF001777_JV52_2 | Lung | 106 |
SA362792 | MCF001777_JV51_8 | Lung | 106 |
SA362793 | MCF001777_JV52_4 | Lung | 106 |
SA362794 | MCF001777_JV52_5 | Lung | 106 |
SA362795 | MCF001777_JV52_6 | Lung | 106 |
SA362796 | MCF001777_JV51_4 | Lung | 106 |
SA362797 | MCF001777_JV51_5 | Lung | 106 |
SA362798 | MCF001777_JV51_10 | Lung | 106 |
SA362799 | MCF001777_JV51_11 | Lung | 106 |
SA362800 | MCF001777_JV52_1 | Lung | 106 |
SA362801 | MCF001777_JV52_10 | Lung | 106 |
SA362802 | MCF001777_JV52_11 | Lung | 106 |
SA362803 | MCF001777_JV52_12 | Lung | 106 |
SA362804 | MCF001777_JV51_7 | Lung | 106 |
SA362805 | MCF001777_JV51_12 | Lung | 106 |
SA362806 | MCF001777_JV51_9 | Lung | 106 |
SA362807 | MCF001777_JV52_7 | Lung | 106 |
SA362808 | MCF001777_JV51_3 | Lung | 106 |
SA362809 | MCF001777_JV51_2 | Lung | 106 |
SA362810 | MCF001777_JV51_1 | Lung | 106 |
SA362811 | MCF001777_JV52_3 | Lung | 106 |
SA362812 | MCF001777_JV51_6 | Lung | 106 |
SA362813 | MCF001777_JV52_8 | Lung | 106 |
SA362814 | MCF001777_JV52_9 | Lung | 106 |
SA362815 | MCF001777_JV49_9 | Lung | 107 |
SA362816 | MCF001777_JV50_9 | Lung | 107 |
SA362817 | MCF001777_JV50_8 | Lung | 107 |
SA362818 | MCF001777_JV50_3 | Lung | 107 |
Collection:
Collection ID: | CO003452 |
Collection Summary: | A peripheral wedge biopsy from the right middle lobe and left upper lobe lingula was obtained at start and end of implantation, before reperfusion. From each biopsy, a piece was immediately frozen on dry ice for subsequent metabolite extraction. |
Collection Protocol ID: | GraTEfuL |
Collection Protocol Filename: | Graft Temperature Evaluation during Lung transplantation |
Collection Protocol Comments: | S67052 approved by UZ/KU Leuven Ethics Committee |
Sample Type: | Lung |
Collection Method: | Peripheral wedge biopsy donor lung tissue |
Collection Location: | Right middle lobe and lingula of left upper lobe |
Collection Frequency: | 2 time points: start and end of implantation, before organ reperfusion |
Storage Conditions: | -80℃ |
Collection Vials: | cryotube |
Storage Vials: | cryotube |
Collection Tube Temp: | not specified, stored on dry ice |
Additives: | none |
Treatment:
Treatment ID: | TR003468 |
Treatment Summary: | No treatment. This project was a clinical observational study. |
Sample Preparation:
Sampleprep ID: | SP003466 |
Sampleprep Summary: | Tissue samples were stored at -80°C from delivery to the start of the sample preparation. Tissues were weighed and transferred to a homogenization tube containing 1.4 mm ceramic beads. To these tubes 800 uL of extraction buffer (composed of 80% methanol in H2O) was added. The samples were then homogenized for two times 30 seconds at 6500 rpm using the Precellys 24 (Bertin Instruments, France). This homogenate was kept overnight at -80 degrees C to precipitate the present proteins. On this methanol extract, a liquid-liquid extraction method was employed to fractionate the samples. The methanol extraction was centrifuged at 17.000 xg for 10 minutes, after which 400 uL of the supernatant was transferred to a fresh Eppendorf tube.To this, 400 uL of chloroform was added, followed by thorough vortexing for 60 seconds to achieve an optimal extraction. An additional 130 uL of H2O was then introduced to induce phase separation, followed by another brief vortexing period of 15 seconds. This mixture was then subjected to centrifugation for 5 minutes at 5.000 xg. Hereafter, 200 uL of the upper polar phase was transferred to an MS vial, while an equal volume of the lower apolar phase was dried using a CentriVap system(Labconco, USA). The resulting dried pellet was then reconstituted in 100% methanol, before being transferred to an MS vial. Lastly, for both phases a QC sample was made by pooling together 10 uL of each sample. |
Combined analysis:
Analysis ID | AN005470 | AN005471 |
---|---|---|
Analysis type | MS | MS |
Chromatography type | None (Direct infusion) | None (Direct infusion) |
Chromatography system | none | none |
Column | none | none |
MS Type | ESI | ESI |
MS instrument type | FT-ICR | FT-ICR |
MS instrument name | Bruker scimaX MRMS | Bruker scimaX MRMS |
Ion Mode | POSITIVE | NEGATIVE |
Units | relative intensity | relative intensity |
Chromatography:
Chromatography ID: | CH004155 |
Instrument Name: | none |
Column Name: | none |
Column Temperature: | none |
Flow Gradient: | none |
Flow Rate: | none |
Solvent A: | none |
Solvent B: | none |
Chromatography Type: | None (Direct infusion) |
MS:
MS ID: | MS005196 |
Analysis ID: | AN005470 |
Instrument Name: | Bruker scimaX MRMS |
Instrument Type: | FT-ICR |
MS Type: | ESI |
MS Comments: | Mass Spectrometry measurements were performed using an Infinity ll autosampler and pump System (Agilent, USA) coupled to a ScimaX 7T Magnetic Resonance Mass Spectrometer (Bruker, USA) operated in positive mode and in technical replicates.Data collection was performed using the ftmsControl and HyStar software (Bruker, USA). The initial data analyses were performed by MetaboScape 2022b (Bruker, USA). This software performs peak picking, feature detection and feature annotation using exact mass and isotope configuration. The human metabolome database (HMDB) was used as the database for feature annotation. |
Ion Mode: | POSITIVE |
MS ID: | MS005197 |
Analysis ID: | AN005471 |
Instrument Name: | Bruker scimaX MRMS |
Instrument Type: | FT-ICR |
MS Type: | ESI |
MS Comments: | Mass Spectrometry measurements were performed using an Infinity ll autosampler and pump System (Agilent, USA) coupled to a ScimaX 7T Magnetic Resonance Mass Spectrometer (Bruker, USA) operated in negative mode and in technical replicates.Data collection was performed using the ftmsControl and HyStar software (Bruker, USA). The initial data analyses were performed by MetaboScape 2022b (Bruker, USA). This software performs peak picking, feature detection and feature annotation using exact mass and isotope configuration. The human metabolome database (HMDB) was used as the database for feature annotation. |
Ion Mode: | NEGATIVE |