Milad Heiranipour’s Post

There is an open PhD position at Uppsala University. The PhD project involves research in the field of fundamental materials science studies of thin films of functional multicomponent materials, specifically focusing on growth using magnetron sputtering, thermoelectric properties and components, material growth of thin-film and low-dimensional materials, as well as supporting computational studies. Read all about it here: https://lnkd.in/dcc3RyEN #PhDposition #Vacancy #Opening #materialsscience

#great_opportunity for research enthusiasts #projectopenings #openpositions #recruitmemt To #stayinformed on the latest #jobopenings & #openpositions by #connecting with me on LinkedIn! #jobsearch #openpositions #Biotechjobs #microbiologyjobs #lifesciencejobs #MolecularBiologyJobs #careeroppurtunities #internship #studentship #researchjobs #careerhunt #Labopportunities #ResearchJobsNow #LifeSciCareers #clinicalresearch #opportunities2024 #postdoc

[Meet our doctoral candidates 12/19]   Meet Katharina Z., a doctoral candidate at the Department of Chemical Engineering - NTNU, supervised by Sulalit Bandyopadhyay (Department of Chemical Engineering - NTNU), John de Mello (Department of Chemistry) and Ethayaraja Mani (Indian Institute of Technology, Madras).    She holds a bachelor’s and master’s degree from Technische Universität Dresden in Chemistry. While studying, she was a synthesis student assistant at the Chair of Inorganic Molecular Chemistry and Inorganic Chemistry, working on synthesis of phosphorous containing molecules as well as #MOFs and hydrophilization of active carbon for #supercapacitor applications. During her studies for the master’s degree in August 2018, she went on exchange to Norwegian University of Science and Technology (NTNU), where she was specializing on nanotechnology, also conducting specialization project at the Department of Material Science - NTNU. Further, Katharina pursued her Master's thesis work at the Department of Physics - NTNU, under the supervision of Alexander Eychmüller (TU Dresden) and Pawel Sikorski, before joining IKP as PhD candidate in September 2020.     Her PhD project is solid #gold - at least in the core. She is researching the growth of #anisotropic gold nanoparticles and how different reaction conditions like binary #surfactant mixtures, reducing agents, or the #pH can influence the process at a fundamental level. After #functionalization of the gold nanoparticles, they are applied as transducers for #biosensing applications.     #Gold #DoctoralCandidate #ParticleEngineering #Nanoparticles #NTNU #IKP #Colloids #functionalisation #Chemistry #Nanotechnology #LifeScience #AuNPs   

University of Lorraine, France Funded opportunity- PhD Student Position in Organic Chemistry and photophysics (funded by the ANR) Triggered photothermo-translocation in ion and water channels by two-photon activated molecular transducers (ANR PRC ChanPulse)

For students who may have changed their minds about PhD: an offer has just been published to join UCCS (University of Lille) in October 2024 for a 3-years adventure at the interface of materials chemistry and catalysis! If you like melting stuff and you have environmental concerns, this research topic may be for you. You will find an automated (thus approximate) translation of the offer below. Feel free to contact François Méar, Christophe Volkringer or myself for more details. "Like highways, a wide, open macroporosity facilitates the diffusion of reactive species within materials, increasing the probability of contact with a catalytic active site and the diffusion of products out of the material, thereby reducing the formation of undesirable co-products. In addition, the pressure gradient between upstream and downstream of these materials is negligible, avoiding any internal overpressure problems. Porous metallic and ceramic foams are therefore widely used as catalyst supports, particularly in continuous-flow applications. As part of this thesis on the preparation of glass foam supports for catalysis, several catalytic systems will be studied with the aim of generalizing the approach developed. In particular, 1/ titanium (TiO2), copper (CuO) and iron (Fe2O3) oxides will be studied for the (photo)catalytic degradation of polluting organic compounds in water, 2/ titanium (TiO2) and copper (CuO) oxides for the catalytic degradation of viruses, and 3/ all of these oxides for the capture of radioactive species. Catalysis supports will take the form of glass foams (also known as cellular glass). These are made from glass cullet and a foaming agent in the form of carbonates, carbides or metal oxides such as MnO2. The decomposition of these agents will lead to the formation of a gas by heat treatment and thus to the formation of pores in the glass structure. It is into this porosity that the above-mentioned particles will be introduced by impregnation. The student, fully funded by the University of Lille, will be supervised by François Méar (thesis director) and researchers Lionel Montagne (UCCS, glasses & NMR), Jérémy Dhainaut (UCCS, macroporous materials and environment), Christophe Volkringer (UCCS, radionuclide adsorption and virucidal properties) and Justine Criquet (LASIRE, reactivity in water). Geographically, the PhD student will be based on the Cité Scientifique campus of the University of Lille. He/she will be able to benefit from existing facilities adapted to the project, and from previously acquired expertise in the fields of materials synthesis, catalyst preparation, environmental catalysis and water depollution."

For students who may have changed their minds about PhD: an offer has just been published to join UCCS (University of Lille) in October 2024 for a 3-years adventure at the interface of materials chemistry and catalysis! If you like melting stuff and you have environmental concerns, this research topic may be for you. You will find an automated (thus approximate) translation of the offer below. Feel free to contact François Méar, Christophe Volkringer or myself for more details. "Like highways, a wide, open macroporosity facilitates the diffusion of reactive species within materials, increasing the probability of contact with a catalytic active site and the diffusion of products out of the material, thereby reducing the formation of undesirable co-products. In addition, the pressure gradient between upstream and downstream of these materials is negligible, avoiding any internal overpressure problems. Porous metallic and ceramic foams are therefore widely used as catalyst supports, particularly in continuous-flow applications. As part of this thesis on the preparation of glass foam supports for catalysis, several catalytic systems will be studied with the aim of generalizing the approach developed. In particular, 1/ titanium (TiO2), copper (CuO) and iron (Fe2O3) oxides will be studied for the (photo)catalytic degradation of polluting organic compounds in water, 2/ titanium (TiO2) and copper (CuO) oxides for the catalytic degradation of viruses, and 3/ all of these oxides for the capture of radioactive species. Catalysis supports will take the form of glass foams (also known as cellular glass). These are made from glass cullet and a foaming agent in the form of carbonates, carbides or metal oxides such as MnO2. The decomposition of these agents will lead to the formation of a gas by heat treatment and thus to the formation of pores in the glass structure. It is into this porosity that the above-mentioned particles will be introduced by impregnation. The student, fully funded by the University of Lille, will be supervised by François Méar (thesis director) and researchers Lionel Montagne (UCCS, glasses & NMR), Jérémy Dhainaut (UCCS, macroporous materials and environment), Christophe Volkringer (UCCS, radionuclide adsorption and virucidal properties) and Justine Criquet (LASIRE, reactivity in water). Geographically, the PhD student will be based on the Cité Scientifique campus of the University of Lille. He/she will be able to benefit from existing facilities adapted to the project, and from previously acquired expertise in the fields of materials synthesis, catalyst preparation, environmental catalysis and water depollution."

🌟 𝐒𝐞𝐞𝐤𝐢𝐧𝐠 𝐅𝐮𝐥𝐥𝐲 𝐅𝐮𝐧𝐝𝐞𝐝 𝐏𝐡𝐃 𝐎𝐩𝐩𝐨𝐫𝐭𝐮𝐧𝐢𝐭𝐢𝐞𝐬 𝐢𝐧 𝐂𝐡𝐞𝐦𝐢𝐬𝐭𝐫𝐲 🌟 Hello 𝐋𝐢𝐧𝐤𝐞𝐝𝐈𝐧 𝐍𝐞𝐭𝐰𝐨𝐫𝐤, I am 𝐀𝐧𝐧𝐢𝐞, and I have completed my MPhil research in Chemistry, focusing on analytical chemistry, nanomaterials, materials science, and catalysis. I am now looking to further my academic journey and pursue a fully funded PhD in Chemistry at a respected international university. I am passionate about molecular spectroscopy, surface chemistry, nanomaterials, and catalysis. I am particularly interested in contributing to innovative research that addresses global challenges in energy, health, and the environment. If you are a professor or researcher involved in PhD programs, or if you know of fully funded opportunities in the field of Chemistry, I would be grateful for your guidance and support. I am eager to collaborate and explore how I can contribute to ongoing research in these areas. Please feel free to tag professors or programs that might align with my interests! 𝐀𝐧𝐧𝐢𝐞,𝐓𝐡𝐚𝐧𝐤 𝐲𝐨𝐮 𝐟𝐨𝐫 𝐲𝐨𝐮𝐫 𝐬𝐮𝐩𝐩𝐨𝐫𝐭! #PhDOpportunities #ChemistryResearch #FullyFundedPhD #InternationalPhD #Nanomaterials #Catalysis #ResearchInnovation #NetworkingForGrowth

PhD Fellowship in Chemistry A PhD Fellowship in Chemistry is available in the Catalysis and Sustainable Group (https://lnkd.in/gapjrWRQ) at the Basque Center for Macromolecular Design and Engineering, POLYMAT Fundazioa (www.polymat.eu) in collaboration with an industrial partner. The focus of this PhD thesis will be in valorization of Acrylonitrile butadiene styrene (ABS) using innovative approaches.

🧑🔬 PhD projects in 2025 Photoinduced electron transfer and charge separation is one of the most important phenomena in Universe. It plays an important role in processes essential for life, such as photosynthesis, respiration, protein folding and biocatalysis. It is also highly relevant for solar cells, batteries, molecular electronics and smart materials. The thesis will focus on development of systems for reversible charge transfer between two redox-active centres. The transfer of charge will be in both directions controlled by photoinduced electron transfer and both states will be stabilized by follow-up chemical reaction (intramolecular cyclization, protonation and others). Reversible photoinduced electron transfer will be used for dipole reorientation, control of charges and counterions and regulation of electrostatic interactions. These unique properties will be further used in design of novel materials and devices in molecular electronics. The candidate will perform synthesis and characterization of organic redox-active molecules and will study their properties. Highly motivated and skilful candidate will have the opportunity to extend his/her graduate training in physical and organic chemistry by learning electrochemical, photochemical and advanced spectroscopic methods. See the project of Tomáš Slanina Group ► https://lnkd.in/g_qR79xQ ⤵️ #phd #chemistry #chemie #phdatiocbprague

Opportunity