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Immunometabolism Analysis Service

Decode the metabolic programming of immune cells with our specialized immunometabolism analysis service.

We utilize ultra-sensitive LC-MS/MS platforms optimized for low-input samples (e.g., FACS-sorted cells) to quantify critical drivers of immune fate—including Itaconate, Kynurenine, Adenosine, and central carbon metabolites.

Whether you are optimizing CAR-T cell persistence, investigating macrophage polarization, or profiling the immunosuppressive Tumor Microenvironment (TME), our panel delivers absolute quantification to support immuno-oncology drug discovery and basic immunology research (RUO).

Key Advantages:

  • Low-Input Optimized: Validated extraction protocols for <500,000 FACS-sorted cells or rare subpopulations.
  • Immune-Specific Targets: Precise quantification of Itaconate, 2-HG, Adenosine, and Kynurenine/Tryptophan.
  • Absolute Quantification: Isotope-labeled internal standards for every analyte class ensure data comparability.
  • Flux Compatible: Seamless integration with ¹³C-tracing for dynamic metabolic rate analysis.
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Immunometabolism Metabolomics Analysis: What It Measures

Immunometabolism analysis is the quantitative profiling of metabolic pathways that regulate immune cell differentiation, activation, and function. Unlike static housekeeping processes, metabolism in immune cells is dynamic; specific metabolites (e.g., Itaconate in macrophages, 2-HG in T-cells) act as signaling molecules that directly control gene expression and effector functions.

Quantifying these changes provides a functional readout of the immune state, bridging the gap between gene expression (transcriptomics) and cellular phenotype (cytokines/killing), essential for developing effective immunotherapies.

When Teams Choose an Immunometabolism Panel: Problems We Solve

Rare Sample Limitations

Challenge: Immune subsets (e.g., TILs, Tregs) obtained via FACS sorting often yield low cell numbers (<500k), falling below the detection limit of standard metabolomics.

Solution: Our high-sensitivity micro-extraction workflow allows robust quantification from as few as 100,000 cells without sacrificing coverage.

Missing Key Immune Signals

Challenge: General metabolomics panels often overlook highly polar, unstable, or low-abundance immunometabolites like Itaconate, Adenosine, or specific CoA esters.

Solution: We designed our panel specifically to capture these "metabolic checkpoints" alongside core TCA and glycolytic intermediates.

Static vs. Dynamic Ambiguity

Challenge: High intracellular concentration doesn't always mean high pathway activity (flux); it could indicate a blockage.

Solution: Our platform is Flux-Ready. You can easily upgrade to ¹³C-labeled studies to distinguish between metabolite pooling and active pathway turnover.

Service Scope: Targeted Immunometabolomics Service Modules

  • Core Immunometabolism Panel: Absolute quantification of 50+ targets including Glycolysis, TCA, Amino Acids, and Immune Signaling molecules.
  • Bioenergetics Module: Assessment of Energy Charge (ATP/ADP/AMP) and Redox State (NAD+/NADH, NADP+/NADPH).
  • Flux Analysis Upgrade: Dynamic tracing using [U-¹³C]-Glucose or [U-¹³C]-Glutamine to measure glycolytic and mitochondrial flux rates.
  • Exometabolome Profiling: Analysis of culture supernatants to measure nutrient consumption (e.g., Glucose, Arginine) and waste secretion (e.g., Lactate, Ammonia).

Analyte Coverage: LC-MS/MS Immunometabolism Panel Modules

Our panel captures the metabolic machinery driving immune cell plasticity, covering 50+ targets across bioenergetics, signaling, and epigenetic regulation.

Functional Module Key Targets (Absolute Quant) Immunological Relevance
Immune Checkpoints & Signaling Itaconate, Kynurenine, Tryptophan, 2-Hydroxyglutarate (2-HG), Adenosine Itaconate: Marker of M1 Macrophage activation; Inhibits SDH (succinate dehydrogenase).
Kyn/Trp Ratio: Key indicator of IDO1-mediated T-cell suppression.
Bioenergetics & Redox ATP, ADP, AMP, NAD+, NADH, GSH, GSSG (Glutathione), NAD+/NADH ratio, Acetate, Fatty acids Energy Charge: AMP/ATP ratio, AMPK activation.
Redox: ROS scavenging in TME.
Acetate: T-cell differentiation and anti-inflammatory.
TCA & Mitochondrial Respiration Citrate, Succinate, Fumarate, Malate, α-Ketoglutarate Succinate: Drives HIF-1α stabilization and inflammation.
Citrate: Precursor for fatty acid synthesis, promoting T-cell blastogenesis.
Warburg Effect & Glycolysis Glucose, Pyruvate, Lactate, Phosphoenolpyruvate (PEP) Lactate: Marker of TME acidification and T-cell exhaustion.
Glycolysis: Essential for Effector T-cell (Teff) activation.
Amino Acid Regulators Arginine, Ornithine, Citrulline, Glutamine, Serine, Tryptophan Arg/Orn Ratio: Distinguishes M1 (iNOS) vs M2 (Arginase) macrophage polarization.
Glutamine: Supports T-cell proliferation and anaplerosis.
Tryptophan: Regulates immune tolerance via IDO1 enzyme.
Epigenetic Modulators (Optional) Methionine, SAM, SAH, Acetyl-CoA, Methylthioadenosine (MTA) SAM/SAH: Methylation potential driving T-cell differentiation.
Acetyl-CoA: Precursor for histone acetylation in T-cell differentiation.
MTA: Inhibits immune response in tumors.
Lipid Metabolism & Inflammation Ceramides, Prostaglandins, Leukotrienes, Fatty Acids Ceramides: Involved in immune cell death and inflammation.
Prostaglandins & Leukotrienes: Lipid mediators that regulate inflammation and immune responses.

*Note: Highly labile analytes like Adenosine/ATP require strict adherence to our Rapid Quenching SOP to prevent degradation.

Why Choose This Immunometabolism Targeted Metabolomics Service

  • Sensitivity for Rare Cells: Optimized for FACS-sorted populations and rare tumor-infiltrating lymphocytes (TILs), requiring 10x less material than standard methods.
  • Absolute Quantification: We use isotope-labeled internal standards to provide concrete concentrations (e.g., pmol/10⁶ cells), essential for metabolic modeling.
  • Pathway Depth: Beyond just "energy," we cover signaling metabolites (Itaconate, Adenosine) that act as epigenetic modifiers and immune checkpoints.
  • Publication-Ready Data: Comprehensive reports with PCA, heatmaps, and pathway enrichment analysis ready for high-impact journals.

Workflow: Immune Cell Metabolomics Profiling from Sample to Report

1

Consultation

Define immune model (T-cells, Macrophages, etc.) and feasibility based on available cell numbers.

2

Metabolite Extraction

Specialized micro-extraction protocols spiked with isotope-labeled internal standards, optimized for low-input samples.

3

LC-MS/MS Acquisition

High-sensitivity detection using state-of-the-art Triple Quadrupole (QqQ) or High-Resolution Mass Spectrometry (HRMS) platforms, utilizing optimized MRM transitions for maximum specificity.

4

Data Analysis

Rigorous peak integration, absolute quantification using calibration curves, and normalization to cell count or protein content.

5

Reporting

Final delivery of quantitative data tables, method details, QC performance metrics, and biological visualizations.

Vertical workflow diagram for targeted oncometabolomics: quenching, isotope-labeled extraction, LC–MRM, QC, reporting.

Stepwise oncometabolite workflow from study design and quenching to isotope-dilution LC–MS/MS, data processing, and reporting.

Platforms & Technical Specs: LC-MS/MS Setup and QC Checkpoints

We utilize industry-leading instrumentation to ensure data integrity for precious samples.

Instrumentation:

  • Sciex QTRAP 6500+: Selected for its industry-leading sensitivity, enabling the detection of trace metabolites in low-cell-count samples.
  • Thermo Orbitrap Exploris: utilized for high-resolution confirmation and flux analysis (mass isotopologue distribution).

Quality Control Specs:

  • Linearity: Calibration curves with R2 ≥ 0.99 across a broad dynamic range.
  • Sensitivity: Validated LOQ suited for samples with <500,000 cells.
  • Precision: Technical replicate RSD < 15% for quality control standards.

Sample Preparation & Shipping: Immune-Cell–Ready Guidance

Sample Type Input Amount Critical Preparation & Shipping Notes
FACS Sorted Cells
(Rare Populations)
1–5 × 10⁵ cells
(Min: 100k)
Wash: Wash cells 2x with cold PBS to remove sheath fluid.
Pellet: Spin down, remove supernatant completely.
Snap Freeze: Flash freeze pellet in liquid N₂ immediately. Ship on Dry Ice.
Cultured Cells
(T-cells, Macrophages)
1–2 × 10⁶ cells Quenching: Rapid washing with cold saline/PBS is required to stop metabolism.
Format: Cell pellets (dry) are preferred over lysates for stability.
Culture Media
(Exometabolome)
100 µL Comparison: Must submit fresh media (blank) alongside spent media.
Processing: Centrifuge to remove cell debris before freezing.
Tissue / Tumor
(TME Profiling)
10–30 mg Speed: Tissue must be clamped/frozen within seconds of resection to preserve ATP/Lactate levels.
Normalization: Provide wet weight or protein quantification requirement.

Deliverables: Analysis-Ready Tables, QC Summary, and Pathway Views

  • Executive summary: study design recap, module overview, and interpretation notes (RUO).
  • Quantitative tables: metabolite-by-sample tables with pathway/module grouping.
  • Visual outputs: pathway heatmaps, group comparison plots, and QC trend visuals (as applicable).
  • Raw & processed data: raw files (where applicable), processed feature tables, and metadata templates.
  • Methods appendix: concise method description, panel/module definition, and QC checkpoint notes.
  • Optional: statistics-ready matrix and supporting analysis package outputs.

(Need advanced data interpretation? See our Metabolomics Data Analysis services).

Central carbon metabolism pathway map with node heatmap and QC inset for immunometabolism targeted metabolomics.

Central carbon pathway view from an immunometabolism metabolomics analysis service.

Multi-panel targeted LC-MS/MS figure showing MRM chromatograms, calibration schematic, pooled QC trend, and checkpoints.

Targeted LC–MS/MS immunometabolism panel performance: chromatograms, calibration, QC trend, and checkpoints.

Volcano plot and pathway enrichment bubble chart for immune cell metabolomics profiling across central carbon, amino acids, SCFAs, redox.

Differential immunometabolism profiling with volcano plot and pathway module enrichment summary.

Stable isotope tracing figure with isotopologue fraction bars and 13C-glucose to TCA schematic for immunometabolism analysis.

Stable isotope tracing view for immunometabolism targeted metabolomics, showing isotopologue fractions over time.

Applications of Immunometabolism Analysis

CAR-T and Cell Therapy Optimization

Monitor metabolic "fitness" parameters like mitochondrial mass to enhance T-cell persistence and resistance to exhaustion in the TME.

Macrophage Polarization (M1/M2)

Characterize the metabolic switch from oxidative phosphorylation (M2) to aerobic glycolysis (M1) using markers like Itaconate and Succinate.

Immuno-Oncology and TME Profiling

Profile nutrient competition (Glucose, Glutamine) between tumor cells and TILs, while detecting immunosuppressive metabolites like Adenosine.

Autoimmunity and Inflammation

Investigate metabolic defects in autoimmune diseases like Lupus to identify novel therapeutic targets for metabolic reprogramming.

Infectious Disease and Host-Pathogen Interactions

Analyze how pathogens hijack host metabolism, such as upregulating glycolysis, to facilitate replication or evade immune detection.

T-Cell Exhaustion and Memory Formation

Distinguish metabolic insufficiency in "Exhausted" T cells from high fatty acid oxidation capacity in "Memory" T cells to predict immunity.

How many cells do I need for this analysis?

Our method is optimized for low-input samples. While 1 × 106 cells are standard, we can robustly quantify key metabolites from as few as 100,000 to 500,000 cells (e.g., FACS-sorted populations) for specific panels.

Can you detect Itaconate and distinguish it from isomers?

Yes. Itaconate is a key target in our Immunometabolism Panel. We use optimized chromatographic conditions to separate it from interfering isomers, ensuring accurate quantification of this critical macrophage marker.

Is this panel suitable for FACS-sorted cells?

Yes. We have specific "post-sort" quenching protocols to minimize metabolic changes that can occur during the sorting process (sorting stress). We recommend rapid quenching immediately after sorting.

Do you measure the Kynurenine/Tryptophan ratio?

Yes. This ratio is a standard output of our panel and is critical for assessing IDO/TDO enzyme activity, which is a major mechanism of immune suppression in the tumor microenvironment.

Can I combine this with metabolic flux analysis?

Absolutely. This panel is fully compatible with stable isotope tracing (e.g., ¹³C-Glucose). By adding a tracer to your culture, we can upgrade the analysis to measure metabolic flux, revealing the rate of pathway activity rather than just static levels.

Does the panel cover energy cofactors like ATP/NAD+?

Yes. Our Bioenergetics Module includes ATP, ADP, AMP, NAD+, and NADH. Please note that these metabolites are extremely unstable; strict adherence to our rapid quenching/extraction SOP is required for accurate measurement.

Resting natural killer cell homeostasis relies on tryptophan/NAD+ metabolism and HIF‐1α

Pelletier, A., Nelius, E., Fan, Z., Khatchatourova, E., Alvarado‐Diaz, A., He, J., ... & Stockmann, C.

Journal: EMBO Reports

Year: 2023

DOI: https://doi.org/10.15252/embr.202256156

B cell-intrinsic epigenetic modulation of antibody responses by dietary fiber-derived short-chain fatty acids

Sanchez, H. N., Moroney, J. B., Gan, H., Shen, T., Im, J. L., Li, T., ... & Casali, P.

Journal: Nature Communications

Year: 2020

DOI: https://doi.org/10.1038/s41467-019-13603-6

YAP mediates compensatory cardiac hypertrophy through aerobic glycolysis in response to pressure overload

Kashihara, T., Mukai, R., Oka, S., Zhai, P., Nakada, Y., Yang, Z., ... & Sadoshima, J.

Journal: The Journal of Clinical Investigation

Year: 2022

DOI: https://doi.org/10.1172/JCI150595

Elevated SLC7A2 expression is associated with an abnormal neuroinflammatory response and nitrosative stress in Huntington's disease

Gaudet, I. D., Xu, H., Gordon, E., Cannestro, G. A., Lu, M. L., & Wei, J.

Journal: Journal of Neuroinflammation

Year: 2024

DOI: https://doi.org/10.1186/s12974-024-03038-2

Central biogenic amine deficiency with concomitant exploratory behavioral deficits in Dnajc12 knock-out mice

Deng, I. B., Follett, J., Fox, J. D., Wall, S., & Farrer, M. J.

Journal: npj Parkinson's Disease

Year: 2025

DOI: https://doi.org/10.1038/s41531-025-00991-4

For Research Use Only. Not for use in diagnostic procedures.
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