Sort by
Refine Your Search
-
Listed
-
Category
-
Country
-
Program
-
Field
-
https://www.ubjobs.buffalo.edu/postings/59721 Employer Research Foundation Position Type RF Professional Job Type Full-Time Appointment Term Salary Grade E.89 Posting Detail Information Position
-
molecular circuitry of human neurodevelopment using advanced 2D and 3D cell models together with patient-derived clinical material. The work combines differentiation systems and organoid or assembloid
-
for tuneable, artificial biofilms within 2D and 3D porous media. By combining cutting-edge optical and X-ray imaging techniques with systematic variation of material and flow conditions, your
-
, including human stem cells, neuronal cultures, and 2D and 3D cultures of human cells and patient samples. The team is highly international, and we have a broad range of local and international
-
proteomics You will map the molecular circuitry of human neurodevelopment using advanced 2D and 3D cell models together with patient-derived clinical material. The work combines differentiation systems and
-
microscopic crystals and thin films. The investigated materials may span several material classes, including van der Waals materials, depending on the candidates emerging from computational screening and
-
focus of the group (www.macro.ethz.ch/) includes the development of: (i) rational design of dynamic polymer networks; (ii) (bio)material processing; (iii) organ perfusion and regeneration; (iv) tools
-
Postdoctoral Research Fellows in Proteomics: Neurodevelopment, Cancer and Drug Toxicity, 3 positions
; state your preference in your motivation letter. 1. Neurodevelopmental proteomics You will map the molecular circuitry of human neurodevelopment using advanced 2D and 3D cell models together with
-
molten pool that solidifies on a substrate, enabling the layer-by-layer construction of complex 3D objects. The temperature field created by the interaction between the electric arc and the material
-
Research Associate. Our lab specializes in precision cardiovascular medicine, leveraging cutting-edge approaches such as human iPSC-derived 2D cardiovascular cells, 3D vascularized cardioids, CRISPR gene