GEMS Thermodynamic Modeling of Cementitious & Alkali-Activated Materials (Carbonation)

Замовник: AI | Опубліковано: 18.12.2025
Бюджет: 250 $

I currently have a materials thermodynamics modeling project and am looking for a professional with relevant experience to participate. -------------------------------------------------- Project Overview Based on GEMS, the project focuses on blended cementitious materials under CO₂ exposure, including: • Thermodynamic equilibrium calculations • Phase stability analysis • Phase region (phase field) identification • Carbonation reaction pathway modeling -------------------------------------------------- Project Timeline The project is planned to be completed by December 27, 2025. -------------------------------------------------- Candidates with the following backgrounds are especially welcome (but not limited to): 1. Research background in Cement / Construction Materials Cement Chemistry Cementitious Materials Alkali-Activated Materials (AAM) Blended binders / SCMs Familiar with: • Phase assemblage • Phase stability • Carbonation pathways • GEMS / CemGEMS With relevant experience in: • Cement hydration and/or carbonation studies • Systems involving fly ash, slag, coal gangue, or calcined clays • Phase assemblage, phase evolution, and phase diagram analysis -------------------------------------------------- 2. Thermodynamic modeling of AAM / Geopolymers Alkali-activated materials Geopolymer thermodynamics Carbonation of AAM Familiar with: • Na₂O–Al₂O₃–SiO₂–CaO systems • Carbonation-induced changes in C-(A)-S-H / N-A-S-H • Practical modeling experience with AAM + GEMS -------------------------------------------------- Contact If your background matches the areas above, please feel free to contact me within Upwork, and we can further discuss project details, timeline, and collaboration arrangements. -------------------------------------------------- Keywords: cement thermodynamic modeling cement carbonation modeling phase assemblage modeling phase diagram cement materials thermodynamics