Genbearbeitung, Molekularbiologie und Gentechnik

Unlocking Cellular Mechanisms and Innovative Disease Models

Anwendungen zur Genbearbeitung und Gentechnik werden durch molekularbiologische Verbrauchsmaterialien wie PCR-Serien, Restriktionsenzyme und Probenbibliotheksröhrchen unterstützt. Diese Produkte erleichtern die DNA/RNA-Extraktion, Amplifikation, Klonierung und Analyse. Transfektionsreagenzien, CRISPR-Kits und Lentivirus-Systeme sind für die Genbearbeitung von zentraler Bedeutung und ermöglichen präzise genetische Veränderungen. ELISA-Kits liefern molekulare Einblicke in die Proteinexpression und sind daher für Gentherapiestudien nützlich. Zentrifugen und Mikrozentrifugenröhrchen sorgen dafür, dass genetisches Material präzise verarbeitet wird. Diese Kategorie umfasst auch Exosomen- und Lentivirus-Tools für die fortschrittliche Bereitstellung genetischen Materials in Forschung und therapeutischen Anwendungen.
What is cell culture, and why is it important?
Cell culture involves growing cells in a controlled environment to study their behavior, functions, and responses. It is widely used for drug testing, disease modeling, and understanding fundamental biology.
What are organoids, and how are they used in research?
Organoids are 3D cell structures that mimic the function and architecture of real organs. They are used to model diseases, test drugs, and study organ development in a lab setting.
How does live-cell imaging advance cell biology research?
Live-cell imaging allows scientists to observe cellular processes, such as division and movement, in real time. It provides dynamic insights into cell behavior and responses to treatments.
What are cellular function assays, and what do they measure?
Cellular function assays evaluate processes like cell growth, apoptosis (cell death), and signaling. These assays are essential for understanding cell health, behavior, and drug effects.
Why are 3D cell culture models better than 2D models?
3D cell culture models replicate the natural tissue environment more accurately than traditional 2D models. They improve the study of disease progression, drug responses, and tissue development.