Library

Microscoop® Two Photon-Induced Biotinylation of Protein Constituents with Submicron Specificity

Spatial proteomic discovery at specific subcellular locations often faces challenges due to limitations in current technology. Microscoop® spatial proteomics limitations by enabling hypothesis-free targeted protein identification within individual organelles, allowing exploration of subcellular protein interactions.

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Insights from Stress Granule Proteomics

This study on stress granules (SG)s identified 1,754 consistently enriched proteins, with 74% of the top 50 ranked proteins being true positive SG proteins, underscoring Microscoop’s potential in advancing SG biology and driving therapeutic innovations.

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Unveiling Primary Ciliary Proteins with Microscoop®

Microscoop® identifies ciliary proteins with high specificity, uncovering critical insights into their structure and function, in a significant advancement in the exploration of ciliary biology and its implications for health and disease.

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Spatial Mapping of Proteins in Nuclear and Nucleolar Compartments

The Microscoop® identifies low-abundance proteins and overrepresented complexes in nuclear and nucleolar structures, such as the spliceosome and RNA polymerase, with remarkable specificity.

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Microscoop Enables Subcellular Proteomic Discovery of Stress Granules

A Microscoop® stress granule study identified 1,754 consistently enriched proteins with 96% specificity among the top 50 ranked, including novel SG-associated proteins, uncovering potential therapeutic targets for stress-related diseases.

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Microscoop® Mint Brochure

Syncell Microscoop® integrates cutting-edge microscopy, photo-biotinylation, and mass spectrometry to enable high-resolution, hypothesis-free protein discovery. The platform identifies and isolates proteins from specific cellular structures, such as nuclei, stress granules, and primary cilia, paving the way for advancements in diagnostics, therapeutic development, and disease research.

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NEW PUBLICATION

PHF19 drives the formation of PRC2 clusters to enhance motility in TNBC cells

Pelzer, Nina et al.
Cell Reports, Volume 44, Issue 10, 116391