Cell-based lipidomics analysis provides a unique advantage in comprehending the lipid profile within the context of a living organism. The choice of cell samples allows researchers to investigate lipid dynamics in response to various stimuli, environmental factors, or genetic modifications. Unlike isolated lipid extracts, cell lipidomics provides a holistic understanding of lipid metabolism, signaling, and regulatory pathways.

Why Choose Tissue Samples for Lipidomics Analysis?

1. Biological Relevance:

Cell-based lipidomics analysis offers a level of biological relevance that cannot be easily replicated by other sample types. Cells represent the fundamental units of life, and studying lipids within the context of a cellular environment provides insights into how lipids function in living organisms. This approach allows researchers to bridge the gap between in vitro and in vivo conditions, enhancing the translatability of findings to real physiological scenarios.

2. Dynamic Responses:

Cells are dynamic entities that respond to various stimuli, including changes in the extracellular environment, hormonal signals, or genetic modifications. Analyzing lipids within cell samples enables researchers to capture these dynamic responses over time. This temporal dimension is crucial for understanding how lipid profiles evolve in response to different conditions, shedding light on the adaptive nature of cellular lipid metabolism.

3. Functional Correlation:

Linking lipidomics with cellular functions is essential for unraveling the functional significance of different lipid species. Cell samples provide a platform to correlate lipid changes with specific cellular processes such as proliferation, differentiation, and apoptosis. This functional perspective enhances our understanding of the roles played by lipids in mediating cellular pathways, contributing to a more holistic comprehension of lipid biology.

4. Cellular Heterogeneity:

Cell populations are inherently heterogeneous, with different cell types coexisting within tissues. By choosing cell samples for lipidomics analysis, researchers can explore the diversity in lipid profiles among distinct cell types. This is particularly valuable in understanding tissue-specific lipid distributions and unraveling the complexities of lipid metabolism within multicellular organisms.

5. Reproducibility and Standardization:

Cell cultures offer a controlled and reproducible system for lipidomics analysis. Standardized cell culture techniques enable researchers to maintain consistent experimental conditions, minimizing variability introduced by external factors. This reproducibility is crucial for obtaining reliable and comparable lipidomic data, facilitating the validation of results across different studies.

Cell Lipidomics Analysis Process

Sample Collection and Preparation:

The journey begins with the collection of cell samples. Whether adherent or suspension cells, our experts ensure proper handling and preservation to maintain cellular integrity. Efficient cell lysis techniques are employed to extract lipids effectively, setting the stage for downstream analysis.

Lipid Extraction:

Creative Proteomics employs robust lipid extraction protocols to ensure the recovery of a diverse range of lipids. Our methods are optimized to cover the lipidome comprehensively, capturing both abundant and low-abundance lipid species.

Mass Spectrometry-Based Analysis:

a. Triple Quadrupole Mass Spectrometers (QqQ):

Applied for targeted lipid analysis, QqQ mass spectrometers offer high sensitivity and specificity. This enables the precise quantification of specific lipid species, providing detailed insights into targeted pathways or lipid classes.

b. Time-of-Flight Mass Spectrometers (TOF-MS):

Utilized for untargeted lipid profiling, TOF-MS facilitates accurate mass determination. This approach allows for the identification and quantification of a broad range of lipid species without predefined targets.

c. Ion Trap Mass Spectrometers:

Ideal for the analysis of complex lipid mixtures, ion trap mass spectrometers excel in capturing detailed structural information. This is particularly valuable for deciphering the complexity of lipid isomers and closely related species.

Data Processing and Analysis:

Our data processing pipeline involves advanced bioinformatics tools. Lipid identification, quantification, and statistical analysis are performed to extract meaningful insights from the vast datasets generated during the mass spectrometry analysis.

Results Interpretation and Reporting:

The final step encompasses the interpretation of results by our expert team. A comprehensive report is generated, detailing the identified lipid species, their relative abundances, and any significant findings. This report serves as a valuable resource for researchers seeking a deeper understanding of cellular lipidomics.

Workflow of Cell Lipidomics Service

Advantages of Our Analytical Techniques:

• High Sensitivity: Our mass spectrometry techniques offer exceptional sensitivity, enabling the detection of low-abundance lipid species.
• Specificity: Targeted approaches using QqQ mass spectrometers ensure specific identification and quantification of desired lipid classes.
• Comprehensive Profiling: Utilizing both targeted and untargeted approaches allows us to provide a comprehensive view of the cellular lipidome.
• Structural Insight: Ion trap mass spectrometers contribute to the detailed structural characterization of complex lipid mixtures.

Sample Requirements for Cell Lipidomics

Data Deliverables for Cell Lipidomics Analysis

Services:

• Mammalian Lipidomics Service
• Microbial Untargeted Lipidomics Service
• Plant Untargeted Lipidomics Service
• Algae Lipidomics Analysis Service
• Foods Lipidomics Service
• Untargeted Lipidomics
• Targeted Lipidomics
• Lipidomics Bioinformation Analysis
• Lipidomics Service

Resource:

Platform:

• Mass Spectrometry Systems
• Chromatographic Systems
• GC/LC-MS Lipidomics
• Sample Guidelines