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CRISPR Knockout KitCRISPR Point Mutation KitKI Enhancer Drug
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Precision Mutation Cell PanelsKnock-in cell lineWild Type Cell Line
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Metabolism - Lipoprotein Response
Response to lipoprotein particle is a Gene Ontology term describing the biological processes through which cells or organisms respond to stimulation by lipoprotein particles, including LDL, HDL, and VLDL.
Knockout models developed around these pathways enable systematic dissection of lipid metabolism regulatory networks and help accelerate target validation.
Powered by a well-established CRISPR platform, EDITGENE offers a broad portfolio of knockout products targeting key genes involved in lipoprotein regulation, supporting applications from basic research to drug discovery.
Lipoprotein Response refers to a central biological process through which the body regulates lipid uptake, transport, and metabolism. It involves dynamic interactions among multiple classes of lipoprotein particles—such as LDL, HDL, and VLDL—as well as their associated receptors, enzymes, and signaling pathways.
By transporting hydrophobic lipids like cholesterol and triglycerides through the bloodstream, lipoproteins enable efficient energy distribution and molecular exchange between cells.
During this process, cells sense fluctuations in lipoprotein levels and activate coordinated transcriptional and signaling networks—including pathways such as SREBP, LXR, and PPAR—to maintain lipid homeostasis.
Disruption of lipoprotein metabolism can lead to cholesterol accumulation, inflammation, and systemic metabolic imbalance, contributing to the development of diseases such as atherosclerosis, obesity, diabetes, and cancer.
As a result, Lipoprotein Response represents not only a fundamental layer of metabolic regulation, but also a critical entry point for disease mechanism studies and therapeutic target discovery.

(Xu et al., Lipids Health Dis, 2025)
Research on Lipoprotein Response is shifting from single-gene or pathway-focused studies toward system-level functional analysis and regulatory network reconstruction.
Focusing on the core phenotype of abnormal lipid metabolism, research typically requires the integration of multiple regulatory factors—including receptors, transport proteins, enzymes, and transcriptional regulatory elements—to identify the critical nodes driving disease pathogenesis.
In practice, studies often combine high-throughput screening with functional validation strategies to systematically evaluate candidate genes and further characterize their context-dependent roles across different disease settings.
This workflow—from candidate discovery to functional validation and mechanistic confirmation—positions Lipoprotein Response as a critical bridge between basic research and target development.
With the advancement of CRISPR technologies, researchers can precisely perturb key regulatory factors in cell-based models, improving the efficiency and robustness of functional studies and accelerating the identification and validation of potential therapeutic targets.
· Cardiovascular Disease Research
Investigate the roles of LDL metabolism, cholesterol accumulation, and inflammation in atherosclerosis and identify key regulatory genes.
· Metabolic Disease Target Discovery
Explore lipid metabolism pathways, including lipoprotein uptake and reverse cholesterol transport, to uncover targets for obesity, diabetes, and dyslipidemia.
· Inflammation and Immune Regulation
Study how lipoproteins influence inflammatory signaling, such as oxidized LDL-induced immune activation and cytokine production.
· Cancer Metabolic Reprogramming
Examine how tumor cells adapt lipid utilization and depend on lipoprotein-mediated metabolic pathways.
· Drug Discovery and Functional Validation
Validate lipid-related targets (e.g., LDLR, APOE, PCSK9) using gene editing and screening approaches.
To support Lipoprotein Response research, EDITGENE has developed a portfolio of knockout cell models targeting key regulators involved in lipoprotein metabolism and signaling pathways. These standardized and well-characterized models enable efficient functional studies and mechanistic exploration.
The following products cover major targets and pathway components, supporting applications in lipid metabolism research, disease modeling, and drug discovery.
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Cat.No: EDC07598
Species: Mouse
Cell Name: BV-2
Gene Name: Trem2
Gene ID: 83433
Specs: 1×10⁶cells
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Cat.No: EDC07796
Species: Human
Cell Name: HEK293
Gene Name: ADAM17
Gene ID: 6868
Specs: 1×10⁶cells
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Cat.No: EDC90437
Species: Human
Cell Name: HEK293
Gene Name: DRD2
Gene ID: 1813
Specs: 1×10⁶cells
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Cat.No: EDC08118
Species: Human
Cell Name: A-549
Gene Name: ADAM17
Gene ID: 6868
Specs: 1×10⁶cells
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Cat.No: EDC10177
Species: Human
Cell Name: HeLa
Gene Name: GTPBP2
Gene ID: 54676
Specs: 1×10⁶cells
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Cat.No: EDC90436
Species: Human
Cell Name: A-549
Gene Name: SMPD3
Gene ID: 55512
Specs: 1×10⁶ cells
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Cat.No: EDC07735
Species: Human
Cell Name: Hep-G2
Gene Name: APOE
Gene ID: 348
Specs: 1×10⁶cells
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Cat.No: EDC07969
Species: Human
Cell Name: HAP1
Gene Name: ABCA1
Gene ID: 19
Specs: 1×10⁶cells
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Cat.No: EDC09412
Species: Human
Cell Name: HAP1
Gene Name: TESK1
Gene ID: 7016
Specs: 1×10⁶cells
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Cat.No: EDC90046
Species: Human
Cell Name: THP-1
Gene Name: CD9
Gene ID: 928
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Cat.No: EDC90244
Species: Human
Cell Name: BEAS-2B
Gene Name: PPARG
Gene ID: 5468
Specs: 1×10⁶cells
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Cat.No: EDC90124
Species: Human
Cell Name: Caco-2
Gene Name: ITGB1
Gene ID: 3688
Specs: 1×10⁶cells
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Cat.No: EDC90589
Species: Chinese hamster
Cell Name: CHO
Gene Name: App
Gene ID: 100689222
Specs: 1×10⁶cells
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Cat.No: EDJ-KQ37
Species: Human
Cell Name: Hep-G2
Gene Name: ITGB1
Gene ID: 3688
Specs: 1×10⁶cells
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Cat.No: EDJ-KQ172
Species: Human
Cell Name: HEK293
Gene Name: APOE
Gene ID: 348
Specs: 1×10⁶cells
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