Sugar-based structures (mono-/oligo-/polysaccharides) that shape biomolecule functions, from cell identity to therapeutic targeting.
Monosaccharide Overview Oligosaccharide Overview Polysaccharides OverviewThere is no product in the shopping cart, buy it!
Carbohydrate chains are important biomolecules composed of monosaccharides, oligosaccharides, and polysaccharides. They contribute significantly to glycobiology by glycosylating proteins and lipids, which has a direct impact on cell communication, immunological recognition, and disease mechanisms. These chains facilitate cell communication, guide immune responses, and potentially identify cancer cells for targeted therapy. They have an impact on everything in biological processes, including tissue formation and metabolic regulation. At Creative Biolabs, we investigate how carbohydrate chains influence vaccination efficacy, stem cell therapies, and disorders such as neurological diseases or infections. Understanding their structure and function enables us to develop novel diagnostic tools and treatments for complex health issues.
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Sugar-based structures (mono-/oligo-/polysaccharides) that shape biomolecule functions, from cell identity to therapeutic targeting.
Monosaccharide Overview Oligosaccharide Overview Polysaccharides Overview
Learn how glycosylation drives cell communication, disease pathways, and vaccine design through sugar-protein interactions.
In Disease In Cancer In Vaccine
See sugars steering immunity, tissue repair, and infections – keys to innovative diagnostics and treatments.
In Immunity In Cell Signaling In Stem Cells In Tissue Engineering In Brain Development and Neurodegenerative Diseases In Aging In Microbial Infections In Metabolic Processes In Cellular Stress In Lipid Metabolism and Membrane Fluidity In Bone Marrow In Blood Cells In Liver Function In Endocrine Function In Kidney Function In Eye Health In Reproductive In Heart Disease In Gastrointestinal Health In Inflammation| Classification | Technology | Description |
| Liquid Chromatography Techniques (For Glycan Separation and Purification) | HPLC | Separates glycans based on polarity and molecular interactions. |
| HPAEC-PAD | Detects and quantifies glycans based on charge differences. | |
| RP-HPLC | Separates glycopeptides and glycans based on hydrophobicity. | |
| UHPLC/FLD/Q-TOF | High-resolution glycan and glycopeptide profiling. | |
| Mass Spectrometry Techniques (For Glycan and Glycopeptide Identification) | MS | Identifies glycan structures with high sensitivity. |
| LC-ESI-MS | Combines chromatography and MS for glycoprotein characterization. | |
| MALDI-TOF MS | Rapid glycan and glycopeptide profiling with minimal sample prep. | |
| GC-MS | Analyzes glycan derivatization products with high resolution. | |
| Imaging MS | Spatial distribution mapping of glycans on tissue samples. | |
| Other Spectroscopy Techniques (For Functional Group and Conformational Analysis) | FTIR | Detects glycan functional groups via vibrational spectroscopy. |
| NMR | Determines glycan conformations and structural details. | |
| TLC | Simple glycan separation and qualitative analysis. |
| Classification | Technology | Description |
| Glycobiology Microarray (For High-Throughput Glycan-Protein Interaction Screening) | Lectin Microarray | High-throughput detection of glycan-binding interactions. |
| 100 Glycan Microarray | Screening platform for diverse glycan structures. | |
| 100 N-Glycan Microarray | N-glycan-specific profiling and interaction studies. | |
| Sialic Acid Microarray | Specific to sialylated glycans in functional assays. | |
| Glycosphingolipid Microarray | Focuses on glycosphingolipid-glycan interactions. | |
| Glycosaminoglycan Microarray | Specialized for glycosaminoglycan-binding proteins. | |
| Human Milk Oligosaccharide Microarray | Targets human milk-derived glycans. | |
| Glycoprotein Microarray | Broad profiling of glycoproteins and interactions. | |
| Glycopeptide Microarray | Focused on glycopeptide-based interactions. | |
| Biosensing and Cellular-Level Analysis (For Real-Time Glycosylation Monitoring) | SPRi | Real-time analysis of glycan-protein binding kinetics. |
| Flow Cytometry | Cell surface glycan profiling via fluorescence detection. |
At Creative Biolabs, we are committed to delivering high-quality and reliable carbohydrate research services to accelerate your scientific discoveries.
The research identifies how carbohydrate chains play a critical function in disease development with a specific focus on rheumatoid arthritis (RA). Researchers identified distinct glycosylation modifications in serum IgG through high-throughput lectin microarray analysis which could be associated with RA. Distinct glycosylation patterns in RA patients influence both immune responses and inflammation processes. Scientists now understand RA’s fundamental processes better through these results while they also create possibilities for new diagnostic methods and therapeutic approaches. Research into carbohydrate chain modifications holds promise for enhancing early detection and developing precise treatments for RA and RA-ILD.
Fig.5 The process of lectin
microarray. 5,7
Fig.6 Modified glycosylation
in serum IgG.5,7
Mannan, a polysaccharide extracted from yeast cell walls, has become an efficient vaccine carrier because of its distinctive carbohydrate chains. These carbohydrate chains bind to mannose receptors on immune cells which initiates an immune response cascade. Researchers conjugated mannan with MUC1 tumor antigen using oxidative and reductive techniques in one well-documented example. The oxidized mannan-MUC1 fusion protein generated a strong Th1 immune response which activated cytotoxic T cells and gave substantial protection in mice with tumors. Research demonstrates carbohydrate chains play a vital role in boosting antigenicity and guiding immune responses which shows mannan's promise for vaccine development.
Fig.7 The structure of mannan
and oxidized & non-oxidized mannan conjugate.6,7
Yes, we specialize in custom glycan synthesis services, including monosaccharides, oligosaccharides, and polysaccharides tailored to your research needs. Our team ensures high purity and structural accuracy to support drug development, vaccine research, and glycomics studies.
We employ advanced analytical techniques such as mass spectrometry (MS), high-performance liquid chromatography (HPLC), and lectin-based assays to provide detailed carbohydrate profiling. Our carbohydrate analysis services help researchers identify glycan structures and modifications in various biological samples.
Glycoengineering enhances the efficacy, stability, and immunogenicity of biopharmaceuticals. We offer therapeutic protein glycoengineering services and therapeutic antibody glycoengineering services to optimize glycosylation patterns for better therapeutic outcomes.
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