Sort by
Refine Your Search
-
Listed
-
Category
-
Program
-
Employer
-
Field
-
-brain barrier and helps remove waste products through the so-called glymphatic system. The glymphatic system consists of channels surrounding the blood vessels. Through these channels, substances
-
high-value polymers from complex waste streams such as multilayer packaging and mixed plastic waste, leading to large volumes being incinerated or landfilled. Solvent based recycling offers a promising
-
and vaccine transport become e-waste within weeks. Meanwhile, many species of microorganisms, such as the iridescent Flavobacteria, integrate environmental signals and store history structurally, all
-
purification of pyrolyzed waste plastics. Pyrolysis offers a promising path to valorize difficult-to-recycle plastic waste. However, harmful contaminants present in such waste streams (e.g., halogens, metals
-
consumption, cost, and waste while strengthening the industrial deployment and long-term resilience of heterogeneous photonic integration in Europe. The PIC fabrication work will be carried out at the NanoLab
-
synthesis out of fossil-based and one time use to continuous reuse of polymeric products. Current recycling methods cannot recover high-value polymers from complex waste streams such as multilayer packaging
-
from complex and heterogeneous waste streams. High-quality recycling increasingly depends on advanced sensing technologies that can accurately characterise scrap properties and identify alloy types
-
chemical production. This PhD project will contribute to the transition towards sustainable fertilizer production by developing technologies that transform waste streams into valuable products under mild
-
feedstocks, carbon becomes a critical raw material for everyday materials (e.g., plastics, asphalt, composites, batteries). While renewable carbon can come from biogenic waste, low-grade biowaste is often wet
-
chemicals, such as fuels and organic molecules, from “waste” substrates, for example, carbon dioxide and biomass. The main aim is to understand, develop, and optimize electrochemical reactions under practical