Designs high-specificity antibodies to xylogalacturonan domains of pectin, enabling sensitive detection of xylosylated homogalacturonan in extracts, sections, and process samples.
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Plant and algal glycans show exceptional structural diversity—such as plant-specific N-glycan core residues and sulfated marine polysaccharides—creating selective antigenic signatures. Converting these features into assay-ready antibodies requires precise antigen design, broad counter-screening against environmental glycans, and matrix-aware assay development to ensure reliable performance.
Facing long assay development, cross-reactivity in complex plant/algal matrices, or poorly defined glycan epitopes? Anti-plant & algal glycan antibody development services at Creative Biolabs help you develop high-specificity antibodies through glycan-first epitope design, high-content array screening, and engineering-guided optimization tailored to real sample conditions.
Our anti-plant & algal glycan antibody development strategy translates complex cell-wall glycan biology into assay-ready antibodies via an integrated discovery-to-validation framework outlined below.
We prioritize conserved, surface-relevant plant and algal glycans with analytical value (e.g., plant N-glycan cores; sulfated galactans/ulvans), balancing breadth and specificity.
Glycan and cell-wall arrays map on/off-targets across polysaccharide classes; established cell-wall probes help benchmark epitope coverage and gaps.
We develop IgG and alternative binder formats to resolve subtle linkage, branching, sulfation, and density effects common in plant and algal matrices.
Design choices reflect known recognition and masking phenomena to improve functional relevance in intended assays.
Sequence liabilities, aggregation risk, and matrix interferents are addressed early to ensure reproducibility and smooth scale-up.
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Designs high-specificity antibodies to xylogalacturonan domains of pectin, enabling sensitive detection of xylosylated homogalacturonan in extracts, sections, and process samples.
Generates antibodies against arabinogalactan epitopes on AG/AGP scaffolds to profile β-1,3/1,6-galactan–rich regions and monitor tissue- or culture-dependent variation.
Engineers antibodies selective for O-acetylated mannan backbones, distinguishing acetylation states to support biomass characterization and deacetylation workflows.
Develops antibodies targeting β-1,4-xylan backbones for quantifying hemicellulose content and tracking enzymatic degradation or pulping efficiency.
Delivers antibodies specific to defined xyloglucan side-chain patterns, supporting localization, extraction QC, and assessment of wall remodeling.
Produces antibodies recognizing ferulate-decorated polysaccharides and cross-link sites, enabling evaluation of wall crosslink density and digestibility.
Designs antibodies to glucuronic acid–substituted xylans for selective detection of hardwood/grass hemicellulose and processing impacts on substitution patterns.
Generates antibodies against heteromannans (e.g., galacto/glucomannan) to differentiate branching profiles and quantify softwood-derived streams.
Engineers' antibodies capturing the diversity of heteroxylans (arabino-/glucurono-xylans), improving assay selectivity across botanical sources.
Delivers broad pectin-directed antibodies spanning key backbone and side-chain features to support pan-pectin detection and fractionation strategies.
Produces antibodies selective for homogalacturonan backbones with sensitivity to methyl/acetyl esterification, enabling fine control of pectin-state readouts.
Designs antibodies to extensin glycomodules (Hyp-linked arabinosides/galactosylation) for tracking wall protein deposition and stress-responsive remodeling.
Generates antibodies recognizing rhamnogalacturonan domains and side chains, supporting targeted analysis of RG-I/II components in complex pectins.
Engineers antibodies selective for arabinose-/ferulate-substituted xylans typical of grasses, enabling robust assays in cereal and forage matrices.
Develops antibodies against sulfated fucans (fucoidans) from brown algae, with attention to sulfation pattern sensitivity for marine extract applications.
Comprehensive discovery from antigen design through recombinant expression and characterization, with traceable analytics for confident decision-making.
An extensive array screening to confirm specificity, affinity, and cross-reactivity across plant, algal, and environmental panels for reliable comparability.
Specialized binders for challenging epitopes that evade standard mAbs, enhancing selectivity in complex botanical and marine samples.
Orthogonal confirmation of binding determinants using competition with defined glycans, selective glycosidase treatments, and LC–MS profiling to resolve linkage, branching, and sulfation drivers.
Define species or biomass source, matrix, and application. Nominate glycans with selective features and document acceptance criteria.
Prepare defined glycans via purification or chemoenzymatic routes and glycan–carrier conjugates suitable for immunization and screening; verify identity and loading.
Run rodent immunization and/or diversified display libraries to broaden recognition of linkages, branching, and sulfation variants.
Profile candidates on broad plant/algal glycan arrays and counter-screen against mammalian-like motifs to minimize cross-reactivity; use cell-wall probes as orthogonal references.
Clone leads into human or humanized backbones; format-tune (IgG, Fab, scFv) and, where beneficial, mature affinity; generate small-scale purified lots with biophysical profiles.
Qualify capture/detection performance using real sample matrices (e.g., plant extracts, algal hydrolysates) and define matrix-tolerance and interference limits.



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Macroalgal glycans encompass distinct families with characteristic linkages and substitutions. Brown algae yield fucoidans (α-L-fucose, 1→3/1→4, variably O-sulfated) and alginates of mannuronic/guluronic acid blocks controlling gel stiffness. Red algae provide carrageenans (κ/ι/λ) built from alternating galactose, where sulfate placement and 3,6-anhydrogalactose drive conformation and cation binding; related agarans/porphyrans carry methyl and sulfate groups. Green algae produce ulvans (rhamnose-3-sulfate with uronates and xylose), forming diagnostic disaccharides. Laminarin, a β-(1→3) glucan with β-(1→6) branches, adds immunomodulatory potential. Collectively, sulfation density, uronate content, and linkage patterns tune viscosity, gelation, and bioactivity—guiding antigen design and array selection.
Fig.1 Structural diversity of marine glycans from macroalgae.1
Enhanced selectivity in plant matrices
“Using Creative Biolabs’ anti-plant & algal glycan antibody development services in our research has significantly improved detection of plant N-glycan cores with minimal cross-reactivity to mammalian glycans.” Dr. Han**
Reliable performance in sulfated polysaccharides
“Using Creative Biolabs’ service in our research has significantly improved capture of fucoidan-rich targets while maintaining stable baselines in high-salt buffers.” 13:42, Prof. Que***
Orthogonal confirmation across species
“Using Creative Biolabs’ service in our research has significantly facilitated parallel assays on Arabidopsis and Ulva extracts, yielding consistent specificity across distinct glycan classes.” A. Pri***
Plant N-glycan core residues and sulfated polysaccharides (fucoidans, carrageenans, ulvans) offer distinctive epitopes for selective detection.
Yes. We optimize buffers, blockers, and formats for polyanionic, viscous environments to maintain assay stability.
Targeted/untargeted plant metabolomics by LC-MS/MS, GC-MS, and NMR quantifying primary/secondary metabolites (phenolics, flavonoids, terpenoids, alkaloids), with matrix-matched calibration and internal-standard QC.
Quantitative profiling of seaweed biomolecules—sulfated polysaccharides (fucoidan, carrageenan, ulvan), laminarin, pigments, lipids, and trace minerals—via HPAEC-PAD, LC-MS/MS, ICP-MS, and UV-Vis, with validated spike-recovery and blank controls.
Creative Biolabs delivers anti-plant and algal glycan antibodies with array-proven specificity, matrix-aware assay design, and a clear path to scale. Contact Our Team for more information and to discuss your project.
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