Wound Healing/ Scratch Assay
Scratch assay, or wound healing assay, is used to study cells motility by measuring their speed and motion while closing a scratch made in a confluent sample.
Measuring cell motility properties has implications for cancer and metastasis studies, chemo-taxis, wound healing, embryonic development and more.
This application allows to measure the size of a scratch or a wound in cultured cells at different time points, while the cells are migrating to close the gap of the scratch.
WiScan Hermes system’s rapid image acquisition and very high motion repeatability, as well as the simple, user-friendly analysis of the Athena software are combined here to form an efficient and accurate cell motility evaluation.
Wound healing scratch assay conducted in bright field illumination in time lapse with WiScan Hermes high content imaging system.
Hermes system’s rapid image acquisition and very high motion repeatability, as well as the simple, user-friendly analysis of the Athena software are combined here to form an efficient and accurate cell motility evaluation.
Scratch assay or wound healing assay is used to study cells motility by measuring their speed and motion while closing a scratch made in a confluent sample.
Measuring cell motility properties has implications for cancer and metastasis studies, chemo-taxis, wound healing, embryonic development and more.
This application allows to measure the size of a scratch or a wound in cultured cells at different time points, while the cells are migrating to close the gap of the scratch.
Wound healing scratch assay conducted in bright field illumination in time lapse with WiScan Hermes high content imaging system.
Live Zebrafish imaging at 10x magnification
Video capture from a live Zebrafish larva
With thanks to Dr Gillian Tomlinson from the UCL Division of Infection and Immunity, UCL, UK
Live Zebrafish imaging- Blood flow
Video capture from a live Zebrafish larva imaged in bright field illumination using 40X magnification. Acquired by Dr Gillian Tomlinson using IDEA Bio-Medical’s Hermes WiScan at the UCL Division of Infection and Immunity, London, UK.
Fish organs & regions automatic segmentation
Automatically quantify area, fluorescence intensity, and count of whole fish and internal organelle properties, including eye, yolk, spine, tail, brain, internal granules and more.Statistical data calculated per fish and per organelle.
Time lapse Zebrafish- Neutrophil Migration
Time lapse of a Zebrafish embryo with S. Pneumoniae injected into the hind brain. GFP-expressing Neutrophils begin to migrate into the injection site over 4 hours.Acquired with IDEA Bio-Medical’s Hermes automated screening system by Sreyashi Koyel Basu and Dr. Gillian Tomlinson, UCL, London, UK
Live Zebrafish imaging at 10x magnification
Video capture from a live Zebrafish larva
With thanks to Dr Gillian Tomlinson from the UCL Division of Infection and Immunity, UCL, UK
Live Zebrafish imaging- Blood flow
Video capture from a live Zebrafish larva imaged in bright field illumination using 40X magnification. Acquired by Dr Gillian Tomlinson using IDEA Bio-Medical’s Hermes WiScan at the UCL Division of Infection and Immunity, London, UK.
Fish organs & regions automatic segmentation
Automatically quantify area, fluorescence intensity, and count of whole fish and internal organelle properties, including eye, yolk, spine, tail, brain, internal granules and more.Statistical data calculated per fish and per organelle.
Time lapse Zebrafish- Neutrophil Migration
Time lapse of a Zebrafish embryo with S. Pneumoniae injected into the hind brain. GFP-expressing Neutrophils begin to migrate into the injection site over 4 hours.Acquired with IDEA Bio-Medical’s Hermes automated screening system by Sreyashi Koyel Basu and Dr. Gillian Tomlinson, UCL, London, UK