Life sciences encompass a diverse range of scientific disciplines focused on the study of living organisms and their interactions with the environment. From basic life sciences (such as cell biology, genetics, immunology, and microbiology) to applied life sciences (such as disease research, multi-omics, and biotechnology), this broad field explores the fundamental processes of life and drives advancements in disease research, patient care, and our overall understanding of living organisms. Discover the endless possibilities of life sciences and their impact on shaping a healthier and more sustainable world.
Flat bottoms with 112 µL total volume Recommended working volumes of 20 to 80 µL Poly-D-lysine coated for enhanced cell attachment Nonreversable lids with condensation rings to reduce contamination Sterile (aseptic assembly) and certified nonpyrogenic Individual alphanumeric codes for well identification Bulk packed 20 per bag
This microplate has half the growth area of a standard 96 well plate Flat bottoms with 190 µL total volume Opaque walls to prevent well-to-well crosstalk Nonreversable lids with condensation rings to reduce contamination Sterilized by gamma radiation and certified nonpyrogenic Bulk packed 20 per bag
(This is the suggested replacement for 3790) Designed for growing cells in stationary suspension or other applications where reduced cell attachment is desired Round bottom wells with 330µL total volume Recommended working volumes of 75 to 200µL Solvent resistant polypropylene provides compatibility with many common organic solvents (e.g. DMSO, ethanol, methanol) Nonreversable lids with condensation rings to reduce contam…
Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescent and enabling readings down to 340nm Designed to reduce well-to-well crosstalk during fluorescent assays Can be used for both top and bottom reading instruments Not treated (or medium binding) polystyrene surface is hydrophobic in nature and binds biomolecules through passive interactions Is suitable primarily for the i…
Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescent and enabling readings down to 340nm Designed to reduce well-to-well crosstalk during fluorescent assays Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for…
(This is suggested replacement for 3721) This microplate has half the growth area of a standard 96 well plate Flat bottoms with 190 µL total volume Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescence and enabling readings down to 340nm Opaque walls to prevent well-to-well crosstalk Optically clear flat well bottom permits direct microscopic viewing Can be used for both…
Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescent and enabling readings down to 340nm Designed to reduce well-to-well crosstalk during luminescent assays Can be used for both top and bottom reading instruments Not treated (or medium binding) polystyrene surface is hydrophobic in nature and binds biomolecules through passive interactions Is suitable primarily for the i…
Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescent and enabling readings down to 340nm Designed to reduce well-to-well crosstalk during luminescent assays Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for…
This microplate has half the growth area of a standard 96 well plate Flat bottoms with 190 µL total volume White walled plates enhance luminescent signals and have low background luminescence and fluorescence Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescence and enabling readings down to 340nm Opaque walls to prevent well-to-well crosstalk Optically clear flat well…
This microplate has half the growth area of a standard 96 well plate Flat bottoms with 190 µL total volume White walled plates enhance luminescent signals and have low background luminescence and fluorescence Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescence and enabling readings down to 340nm Opaque walls to prevent well-to-well crosstalk Optically clear flat well…
This microplate has half the growth area of a standard 96 well plate Flat bottoms with 190 µL total volume Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescence and enabling readings down to 340nm Optically clear flat well bottom permits direct microscopic viewing Opaque walls prevent well-to-well cross-talk Sterilized by gamma radiation and certified nonpyrogenic Bulk…
Designed for fluorescent homogeneous assays Superior performance compared to competitor plates: Lower CVs, higher signal-to-noise ratios, and Lower background fluorescence Processed for superior flatness with minimal variability within plate and between plates
Designed for fluorescent homogeneous cell-based assays Compatible with standard readers and automation Compatible for bar coding Superior performance compared to competitor plates: Lower CVs, higher signal-to-noise ratios, and Lower background fluorescence Processed for superior flatness with minimal variability within plate and between plates Recommended working volume of up to 10 µL
Designed for fluorescent homogeneous assays Compatible with standard readers and automation Compatible for bar coding Superior performance compared to competitor plates: Lower CVs, higher signal-to-noise ratios, and lower background fluorescence NBS surface can reduce nonspecific binding and improve signal to noise ratio. Recommended working volume of up to 10 µL
Suitable for fluorescent and other light-sensitive assays Lids are made of rigid polystyrene Lids have a corner notch on the A1 corner to correspond to the corner notches found on all Corning® microplates Lids do not fit Corning 2 µL 1536 well microplates Sterilized by gamma radiation
Black wall plates have low background fluorescence, minimal light scatter and reduced crosstalk Not treated (or medium binding) polystyrene surface is hydrophobic in nature and binds biomolecules through passive interactions Is suitable primarily for the immobilization of large molecules, such as antibodies, that have large hydrophobic regions that can interact with the surface Untreated microplates have a binding capacit…
White walled plates enhance luminescent signals and have low background luminescence and fluorescence Not treated (or medium binding) polystyrene surface is hydrophobic in nature and binds biomolecules through passive interactions Is suitable primarily for the immobilization of large molecules, such as antibodies, that have large hydrophobic regions that can interact with the surface Untreated microplates have a binding c…
(This is the suggested replacement for 3280) 33mm threaded cap Vented cap has 0.2 µm pore nonwettable (hydrophobic) membrane sealed directly to the cap Allows gas exchange while minimizing the risk of contamination Sterilized by gamma irradiation
This replacement cap can be used on all High Yield Performance HYPER Flasks (Cat. No. 10020, 10024, 10030, 10034) 33mm threaded cap Solid cap is used in closed systems or applications where venting is not necessary Sterilized by gamma irradiation
Ideal for whole cell or subcellular high content screeningCan be used with high throughput confocal imagers, and has been optimized with the Amersham InCell 3000 AnalyzerUltra flat thick well bottom is designed for high throughput imaging by minimizing microscope refocusing from well to wellMore economical solution than glass bottom platesBetter cell growth and attachment than glass bottom latesBlack opaque walls to prevent we…
Enhances luminescent signals and have low background luminescence and fluorescence Designed to reduce well-to-well crosstalk Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for reducing protein and nucleic acid binding at low concentrations, and increasing as…
Has low background fluorescence and minimize light scattering Designed to reduce well-to-well crosstalk during fluorescent assays Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for reducing protein and nucleic acid binding at low concentrations, and increasi…
Enhances luminescent signals and have low background luminescence and fluorescence Designed to reduce well-to-well crosstalk during luminescent assays Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for reducing protein and nucleic acid binding at low concent…
Has low background fluorescence and minimize light scattering Designed to reduce well-to-well crosstalk Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for reducing protein and nucleic acid binding at low concentrations, and increasing assay signal to noise…
Bottoms are 60% thinner than conventional polystyrene plates, resulting in lower background fluorescent and enabling readings down to 340nm Designed to reduce well-to-well crosstalk during luminescent assays Nonbinding (NBS) surface is a Corning proprietary treatment technology used on polystyrene microplates to create a nonionic hydrophilic surface (polyethylene oxide-like) that minimizes molecular interactions Ideal for…
