High-PurityQC-validatedMetabolic Tracing
Accelerate metabolism-focused R&D with enterprise-grade fluorescent labeled glucose solutions engineered for biotechnology, pharmaceutical, diagnostics, and CRO teams. Our fluorescent glucose probes are designed for robust glucose uptake quantification, transporter activity profiling, and metabolic flux studies—delivering strong signal integrity, low background, and dependable lot-to-lot reproducibility for demanding workflows.
From live-cell imaging and flow cytometry to high-throughput screening and mechanism-of-action studies, we provide customized fluorescent labeled glucose formats aligned to your biology, instrument configuration, and data requirements. Each product is supported by rigorous analytical validation (identity, purity, labeling confirmation, and fluorescence performance) to help your team generate confident, publication-ready, and decision-grade results.
Fluorescent labeled glucose is a glucose molecule or glucose analog conjugated to a fluorophore, enabling researchers to visualize and quantify glucose uptake, transport dynamics, and metabolism in real time. Compared with radioactive tracers, fluorescent glucose probes offer a non-radioactive, instrument-friendly workflow that integrates seamlessly into fluorescence microscopy, plate readers, and flow cytometry.
These probes are widely applied to study GLUT transporter activity, insulin responsiveness, cancer metabolic rewiring, immune cell activation, and metabolic disorder biology—supporting both exploratory research and translational assay development while maintaining practical compatibility with modern detection platforms.
Schematic illustration of fluorescent labeled glucose uptake through glucose transporters (GLUT) across the cell membrane for cellular metabolism research.We optimize probe format and fluorescence performance to support reproducible quantification of glucose uptake across cell lines, primary cells, and assay conditions.
High-brightness, photostable fluorophores and purification workflows reduce free dye and impurities, enabling clean uptake signals with minimal background.
Probe selection and assay design support mechanistic studies of GLUT-mediated transport, including inhibitor evaluation, competition assays, and pathway interrogation.
Photostable dyes and application-matched buffers enable time-course imaging and kinetic studies without compromising assay reliability.
We help align fluorophore excitation/emission with your panel design to minimize spectral overlap in multicolor microscopy and flow cytometry experiments.
Enterprise-ready production planning supports consistent supply for screening campaigns, assay kit development, and cross-site study standardization.
We provide a complete portfolio of fluorescent labeled glucose products and customization services for uptake assays, metabolism research, drug discovery, and diagnostics development. Each project is supported by controlled chemistry, high-purity purification, and verification of identity and fluorescence performance to ensure reliable, decision-grade results.
Capabilities include:
Popular dyes:
Alexa Fluor 488/568, Cy3, Cy5, ATTO series, NIR dyes
Capabilities include:
Popular dyes:
FITC/Alexa Fluor 488, PE-compatible formats, Cy5, APC-channel compatible NIR dyes
Capabilities include:
Popular dyes:
FAM-compatible formats, TAMRA, Cy3, Cy5, NIR dyes for low autofluorescence
(Multiplex Uptake & Co-Localization Studies)
Capabilities include:
Popular dyes:
Alexa Fluor pairs, Cy3/Cy5, ATTO pairs, NIR combinations for low background
Capabilities include:
Popular dyes:
Alexa Fluor, Cy dyes, Bodipy, Rhodamine, ATTO dyes, NIR dyes
Capabilities include:
Popular dyes:
Alexa Fluor 488, Cy3, Cy5, NIR dyes for low autofluorescence settings
Capabilities include:
Popular dyes:
Cy7, NIR Dye 800-class, other NIR fluorophores
(Targeting, Uptake, and Metabolic Interaction)
Capabilities include:
Popular dyes:
FITC/Alexa Fluor 488, Cy5, Cy7, NIR dyes
Capabilities include:
Popular dyes:
FITC/Alexa Fluor series, ROX/TAMRA-compatible channels, NIR dyes
Capabilities include:
Popular dyes:
Alexa Fluor dyes, Bodipy, Rhodamine, Cy dyes
Capabilities include:
Popular dyes:
Alexa Fluor 488/568, Cy5, NIR options for low background
Capabilities include:
Popular dyes:
Alexa Fluor, Cy dyes, ATTO dyes, NIR dyes
To support metabolism research and glucose uptake analytics across microscopy, flow cytometry, plate readers, and in vivo imaging, we offer a curated portfolio of fluorophores suitable for fluorescent labeled glucose. Our selection emphasizes brightness, photostability, spectral clarity, and platform compatibility—helping enterprise teams standardize panels, reduce background, and improve quantitative confidence across studies.
| Fluorophore | Excitation (nm) | Emission (nm) | Applications | Features |
| FITC (Fluorescein Isothiocyanate) | 495 | 519 | Uptake assays, flow cytometry, microscopy | Bright, widely compatible with common 488 nm lasers |
| Alexa Fluor 488 | 495 | 519 | Live-cell imaging, high-content screening | High photostability, strong signal-to-noise in cells |
| Cy3 | 550 | 570 | Microscopy, multiplex uptake imaging | Bright emission with strong channel separation from green probes |
| Cy5 | 649 | 670 | Low-background imaging, multiplex panels, flow cytometry | Far-red signal reduces autofluorescence interference |
| Cy7 | 749 | 776 | In vivo imaging, deep tissue applications | Near-IR for improved tissue penetration and lower background |
| ATTO 488 | 498 | 523 | High-sensitivity microscopy, quantitative imaging | High brightness with strong photostability for demanding imaging |
| TAMRA (Tetramethylrhodamine) | 540 | 565 | Plate-reader assays, multiplex workflows | Reliable orange/red channel performance for assay development |
| ROX (Rhodamine X) | 586 | 607 | Quantitative assays, instrument-standard channels | Strong emission and established use in quantitative fluorescence workflows |
| NIR Dye 800 | 780 | 805 | In vivo imaging, low autofluorescence detection | Designed for deep tissue imaging and minimized background |
Reliable fluorescent labeled glucose requires choosing conjugation strategies and linkers that preserve assay performance while delivering strong fluorescence. Our platform integrates multiple bioconjugation chemistries and purification workflows to support glucose probe formats optimized for uptake, transport, and metabolism studies—across cell-based assays, imaging, and enterprise screening programs.
| Labeling Method | Chemistry | Common Applications | Advantages |
| Amide Coupling (Carboxyl-to-Amine) | Covalent attachment via activated carboxyl groups reacting with amines to form stable amide bonds. | Glucose-fluorophore conjugation, linker integration, custom probe synthesis | Robust chemistry with scalable workflows and strong bond stability |
| Click Chemistry (Azide–Alkyne) | Bioorthogonal coupling of azide and alkyne functional groups (strain-promoted variants available). | Site-defined probe assembly, modular fluorophore screening, rapid customization | High yield, selective, compatible with sensitive fluorophores and linkers |
| Thiol Coupling (Maleimide–Thiol) | Maleimide reacts with thiols to form stable thioether bonds. | Linker-based probe construction, specialized formats and conjugation intermediates | High selectivity under controlled conditions and reliable conjugate stability |
| Activated Ester Coupling | Activated ester reacts with nucleophiles to form stable covalent linkages. | Rapid probe assembly and fluorophore attachment for screening-focused formats | Efficient and practical for scalable synthesis and consistent performance |
| Linker/Spacer Engineering | Spacer tuning (PEG and other linkers) to balance solubility, permeability, and signal behavior. | Uptake assays, live-cell imaging, multiplex panel optimization | Improves usability and reduces nonspecific background in cellular systems |
| Purification & Cleanup Workflows | Chromatography-based cleanup to remove free dye, side products, and residual reagents. | All fluorescent glucose probe formats | Enhances signal-to-noise, improves reproducibility, reduces interference risk |
We provide an enterprise-aligned QC package designed to verify identity, purity, and fluorescence performance of fluorescent labeled glucose. Documentation is structured to support reproducibility, method transfer, and internal QA requirements.
| QC Item | Description / Method | Delivered Data |
| Purity Analysis | Chromatographic and/or electrophoretic methods as appropriate for the probe format | Chromatograms, % purity (method-dependent) |
| Identity Confirmation | Mass-based verification and/or orthogonal analytical confirmation (as applicable) | Identity confirmation summary and supporting data |
| Fluorescence Characterization | Excitation/emission profiling and signal benchmarking | Spectral profiles, fluorescence performance summary |
| Free Dye / Impurity Check | Assessment of residual free dye and low-MW impurities after purification | Cleanup verification summary and supporting data |
| Stability Guidance | Storage and handling recommendations informed by probe chemistry and fluorophore behavior | Handling guidelines, storage recommendations, optional stability planning |

We align on your biological model, readout platform, and study goals (uptake, kinetics, transporter mechanism, multiplexing). A probe strategy and fluorophore plan is defined to match instruments and expected signal ranges.
Probe chemistry and linker design are selected to balance solubility, fluorescence performance, and assay compatibility. Custom formats are synthesized using controlled, reproducible workflows.
Free dye and side products are removed through chromatography-based purification to support low-background uptake measurements and reliable quantification.
Each probe is characterized for identity (as applicable), purity, and fluorescence behavior. Data packages are structured to support reproducibility and internal QA review.
You receive recommended workflows for uptake measurement, controls, and multiplex compatibility. We support method transfer across instruments and sites when needed.
Products are delivered with documentation and handling guidelines. Our technical team supports troubleshooting, optimization, and program scaling for enterprise customers.
Detect subtle metabolic shifts with strong signal-to-noise performance designed for quantitative glucose uptake studies in diverse cell systems.

Probe and fluorophore options support microscopy, flow cytometry, plate readers, and high-content screening—simplifying standardization across teams.
Enterprise supply planning and consistent lots support inhibitor screening, transporter modulation programs, and longitudinal metabolic profiling.
Spectral planning reduces overlap and improves confidence when combining uptake measurements with phenotyping markers or pathway readouts.

"The fluorescent labeled glucose probes demonstrated excellent consistency across batches and integrated seamlessly into our live-cell imaging workflows. The signal stability and uptake fidelity allowed us to confidently quantify metabolic responses under multiple treatment conditions."
— Dr. L., Director of Metabolic Research, Global Biopharmaceutical Company
"We evaluated several fluorescent glucose analogs, and this product stood out for its reproducibility and low background in flow cytometry. It significantly improved our ability to identify metabolically active subpopulations in complex samples."
— Ms. R., Senior Scientist, Translational Diagnostics Organization
"From assay development to high-throughput screening, the fluorescent labeled glucose consistently delivered reliable uptake kinetics. The accompanying QC documentation and technical support met the standards required for enterprise-scale drug discovery programs."
— Dr. A., Principal Investigator, Oncology-Focused CRO
"The probe performance and batch-to-batch traceability enabled us to standardize glucose uptake assays across multiple sites. This was critical for ensuring data integrity in our multi-team metabolic research initiatives."
— Mr. K., Head of Cell Therapy Process Development, Advanced Biotech Company
Whether you are optimizing glucose uptake assays for high-throughput screening, validating transporter biology in disease models, or building standardized workflows across multi-site programs, we provide fluorescent labeled glucose solutions engineered for professional research environments. Our team supports fluorophore selection, probe format recommendations, application-specific workflow design, and documentation aligned with enterprise QC expectations—helping you generate reliable, decision-grade data with confidence.Contact us to request a quote, discuss technical requirements, or initiate a customized fluorescent labeled glucose project tailored to your platform and timeline.
They are used for studying cellular glucose uptake, metabolic activity, transporter function, and metabolic pathway dynamics in live cells, tissues, and research models.
Fluorescent labeled glucose provides a non-radioactive alternative, offering safer handling, real-time imaging capability, and compatibility with live-cell imaging, flow cytometry, and high-throughput assays.
Yes. Research-grade fluorescent labeled glucose probes are optimized for live-cell compatibility, low cytotoxicity, and stable fluorescence during extended imaging or uptake assays.
Yes. Fluorescent labeled glucose is widely used in flow cytometry to quantify glucose uptake at the single-cell level and to identify metabolically active cell populations.
QC documentation typically includes purity analysis, fluorescence characterization, batch consistency data, and handling recommendations suitable for enterprise research environments.
Fluorescent labeled glucose can be used in preclinical and translational research where fluorescence-based metabolic analysis is appropriate and validated.