Products & Reviews

The Corning FluoroBlok Insert System is made with a unique light-tight PET membrane that effectively blocks the transmission of light from 400-700 nm.Save time and labor using automated fluorescence detectionEliminate cell insert manipulation—get rapid data collection without the need for plate washing or manual cell scraping and counting. Chart migration of cells and molecules in realtime without dismantling or destroying the…

The Corning FluoroBlok Insert System is made with a unique light-tight PET membrane that effectively blocks the transmission of light from 400-700 nm.Save time and labor using automated fluorescence detectionEliminate cell insert manipulation—get rapid data collection without the need for plate washing or manual cell scraping and counting. Chart migration of cells and molecules in realtime without dismantling or destroying the…

The Corning FluoroBlok 96 Multiwell Insert System is a cell culture assay platform designed with automation in mind. The one-piece insert housing and fluorescence blocking microporous membrane (available in 3.0 and 8.0 µm pore sizes) enables increased efficiency, productivity and throughput in the drug discovery process.A solution for automated, high throughput cell-based studies of chemotaxis, migration and invasionIncrease c…

The Corning FluoroBlok 96 Multiwell Insert System is a cell culture assay platform designed with automation in mind. The one-piece insert housing and fluorescence blocking microporous membrane (available in 3.0 and 8.0 µm pore sizes) enables increased efficiency, productivity and throughput in the drug discovery process.A solution for automated, high throughput cell-based studies of chemotaxis, migration and invasionIncrease c…

The Corning FluoroBlok 96 Multiwell Insert System is a cell culture assay platform designed with automation in mind. The one-piece insert housing and fluorescence blocking microporous membrane (available in 3.0 and 8.0 µm pore sizes) enables increased efficiency, productivity and throughput in the drug discovery process.A solution for automated, high throughput cell-based studies of chemotaxis, migration and invasionIncrease c…

Crystal-grade virgin polystyrene Nonpyrogenic Non-treated polystyrene Convenient, peel-open medical-style packaging for individual product presentation Individual trays are PET (Code 1) and recyclable. Falcon 96-well microplates are compatible with automation systems and meet standard ANSI/SBS footprint dimensions for microplates Working volume of Media is 0.1-0.2 mL

Falcon® 96-well Clear Assay Plate is comprised of clear not treated polystyrene. Round bottom, with lid, individually wrapped, sterile, 50/case Crystal-grade virgin polystyrene Nonpyrogenic Non-treated polystyrene Convenient, peel-open medical-style packaging for individual product presentation Individual trays are PET (Code 1) and recyclable. Falcon 96-well microplates are compatible with automation systems and meet sta…

Falcon® 48-well Clear Multiwell Plate is comprised of clear not treated polystyrene. Flat bottom, with low evaporation lid. Individually wrapped, sterile, 50/case. Unique labyrinth lid, condensation rings, and deep-well design control contamination, reduce evaporation, and minimize edge effects. Crystal-grade virgin polystyrene Nonpyrogenic Non-treated polystyrene Convenient, peel-open medical-style packaging for individua…

Falcon® 24-well Multiwell Insert System with 1.0 µm high density PET membrane, sterile, 5/case(This is the suggested replacement for 351180)Storage: Store at room temperature, away from direct sunlight.Automate and increase productivity and throughput of cell culture insert-based assaysDesigned for bioavailability, transport, permeability, cell migration, and tumor invasion studies"

Falcon® HTS 24-well Multiwell Permeable Support System features high density PET membrane with 3.0 µm pores. Sterile.(This is the suggested replacement for 351182) Automate and increase productivity and throughput of cell culture insert-based assays Designed for bioavailability, transport, permeability, cell migration, and tumor invasion studies