[{"data":1,"prerenderedAt":863},["ShallowReactive",2],{"ps-page-en":3,"all-modules":29},{"id":4,"title":5,"body":6,"description":13,"extension":14,"meta":15,"navigation":24,"path":25,"seo":26,"stem":27,"__hash__":28},"content\u002Fprogram-structure.md","German-Standard Curriculum — 18 Modules, Flexible Schedule",{"type":7,"value":8,"toc":9},"minimark",[],{"title":10,"searchDepth":11,"depth":11,"links":12},"",2,[],"Explore the MSI curriculum at VGU — 15 compulsory modules and 3 electives, no prerequisites, flexible scheduling. Master's Research thesis, hands-on Research Lab, and Team Project built into every study plan.","md",{"headline":16,"subtitle":17,"intro_text":18,"core_title":19,"electives_title":20,"electives_intro":21,"cta_handbook":22,"view_handbook":23},"German-Standard Curriculum & Modules Structure","An interdisciplinary, research-driven curriculum designed for engineering materials — fully flexible, no prerequisites required.","Materials Science is one of the most exciting emerging fields of the 21st century — a fundamentally \u003Cstrong>interdisciplinary\u003C\u002Fstrong> science that draws from physics, chemistry, mechanics, and engineering to understand how matter behaves, and how we can engineer it. At MSI, we embrace this fully.\n\nOur curriculum spans \u003Cstrong>18 modules: 15 compulsory and 3 electives\u003C\u002Fstrong> drawn from a broad pool of specializations. Importantly, \u003Cstrong>no module has prerequisites\u003C\u002Fstrong> — any study order works. This gives students maximum flexibility to adapt their schedule around work, life events, or personal learning pace, all while receiving full academic guidance from our faculty.\n\nThe program is built around three pillars of depth:\n\n- \u003Cstrong>Master's Thesis (30 ECTS):\u003C\u002Fstrong> An independent, original research project — the flagship capstone of your academic journey, conducted under direct supervision of OVGU and VGU faculty.\n- \u003Cstrong>Research Lab:\u003C\u002Fstrong> Hands-on, equipment-driven research from the very first semester. Students work directly with characterization instruments — no sample-sending, no outsourcing — building real experimental intuition.\n- \u003Cstrong>Team Project & Literature Research:\u003C\u002Fstrong> Collaborative scientific investigation that trains academic reading, critical thinking, and team problem-solving — the skills that separate scientists from technicians.","Core Modules","Elective Modules","Elective modules are offered in collaboration with partner programs and OVGU chairs, enabling deeper specialization in areas such as computational materials, biomaterials, surface engineering, and more. Students choose 3 from a curated pool of options.","Explore the Full Course Handbook","View Handbook",true,"\u002Fprogram-structure",{"title":5,"description":13},"program-structure","mIEbY8I30cThZFpW7hw2FfZl6KCbNTUnFH779xSLvGA",[30,47,61,75,90,104,145,188,202,242,273,321,335,357,371,407,461,528,575,589,655,702,746,783,849],{"id":31,"title":32,"body":33,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":39,"links":40,"meta":41,"navigation":24,"path":42,"pdfs":38,"semester":43,"seo":44,"stem":45,"__hash__":46},"modules\u002F_modules\u002Fadditive-manufacturing.md","Additive manufacturing",{"type":7,"value":34,"toc":35},[],{"title":10,"searchDepth":11,"depth":11,"links":36},[],false,null,[],[],{},"\u002F_modules\u002Fadditive-manufacturing",1,{"title":32,"description":10},"_modules\u002Fadditive-manufacturing","yYiIboBAXBgx9yFcp-0MSREOHm3rcjw9zm4HHt-QmSQ",{"id":48,"title":49,"body":50,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":54,"links":55,"meta":56,"navigation":24,"path":57,"pdfs":38,"semester":43,"seo":58,"stem":59,"__hash__":60},"modules\u002F_modules\u002Fadvanced-machine-learning-techniques-for-engineering-applications.md","Advanced Machine Learning Techniques for Engineering Applications",{"type":7,"value":51,"toc":52},[],{"title":10,"searchDepth":11,"depth":11,"links":53},[],[],[],{},"\u002F_modules\u002Fadvanced-machine-learning-techniques-for-engineering-applications",{"title":49,"description":10},"_modules\u002Fadvanced-machine-learning-techniques-for-engineering-applications","vDV7uTi4pvS-QmKhSs88BQ_PkKJN3HsJNsjJl8-vjfE",{"id":62,"title":63,"body":64,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":68,"links":69,"meta":70,"navigation":24,"path":71,"pdfs":38,"semester":43,"seo":72,"stem":73,"__hash__":74},"modules\u002F_modules\u002Fadvanced-simulation-fem-application-and-numerical-simulation.md","Advanced Simulation (FEM application and numerical simulation)",{"type":7,"value":65,"toc":66},[],{"title":10,"searchDepth":11,"depth":11,"links":67},[],[],[],{},"\u002F_modules\u002Fadvanced-simulation-fem-application-and-numerical-simulation",{"title":63,"description":10},"_modules\u002Fadvanced-simulation-fem-application-and-numerical-simulation","Bw1oaCiPaW3cICjKuPgTwppws5T-1PHDndWKxHoQdzc",{"id":76,"title":77,"body":78,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":82,"links":84,"meta":85,"navigation":24,"path":86,"pdfs":38,"semester":43,"seo":87,"stem":88,"__hash__":89},"modules\u002F_modules\u002Fbiotechnlogy-bioengineering-and-applications.md","Biotechnlogy, Bioengineering and Applications",{"type":7,"value":79,"toc":80},[],{"title":10,"searchDepth":11,"depth":11,"links":81},[],[83],"Dr. rer. nat. Duong Hieu Linh",[],{},"\u002F_modules\u002Fbiotechnlogy-bioengineering-and-applications",{"title":77,"description":10},"_modules\u002Fbiotechnlogy-bioengineering-and-applications","GLW7Zrgf_wI42051ZVOqyist9dvwPdGGAY_awQnMW48",{"id":91,"title":92,"body":93,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":97,"links":98,"meta":99,"navigation":24,"path":100,"pdfs":38,"semester":43,"seo":101,"stem":102,"__hash__":103},"modules\u002F_modules\u002Fcad-modelling-and-engineering-design.md","CAD Modelling and Engineering Design",{"type":7,"value":94,"toc":95},[],{"title":10,"searchDepth":11,"depth":11,"links":96},[],[],[],{},"\u002F_modules\u002Fcad-modelling-and-engineering-design",{"title":92,"description":10},"_modules\u002Fcad-modelling-and-engineering-design","Nkmo3Br_CZ4_AVs341apNCIpLLSkhHY0unPaMMPg-1s",{"id":105,"title":106,"body":107,"description":130,"extension":14,"german_lecturer":24,"images":131,"is_elective":37,"lecturers":132,"links":135,"meta":136,"navigation":24,"path":137,"pdfs":138,"semester":43,"seo":142,"stem":143,"__hash__":144},"modules\u002F_modules\u002Fcontinuum-mechanics.md","Continuum Mechanics",{"type":7,"value":108,"toc":128},[109],[110,111,112,116,119,122,125],"ul",{},[113,114,115],"li",{},"Tensor calculus (algebra, analysis)",[113,117,118],{},"Kinematical relations",[113,120,121],{},"Stresses, etc.",[113,123,124],{},"Balances",[113,126,127],{},"Constitutive equations",{"title":10,"searchDepth":11,"depth":11,"links":129},[],"• Tensor calculus (algebra, analysis)\n• Kinematical relations\n• Stresses, etc.\n• Balances\n• Constitutive equations\n",[],[133,134],"Prof. Dr.-Ing. Daniel Juhre","Marc Ulrich",[],{},"\u002F_modules\u002Fcontinuum-mechanics",[139],{"title":140,"url":141},"Module Handbook (PDF)","\u002FDocuments\u002FMODULE CATALOGUE MSI.pdf",{"title":106,"description":130},"_modules\u002Fcontinuum-mechanics","AipItt04b9aSDHWYKHoh3C-jA8QalwUVFwy3sgHYsWI",{"id":146,"title":147,"body":148,"description":163,"extension":14,"german_lecturer":24,"images":164,"is_elective":37,"lecturers":165,"links":168,"meta":169,"navigation":24,"path":170,"pdfs":171,"semester":11,"seo":185,"stem":186,"__hash__":187},"modules\u002F_modules\u002Fengineering-ceramics.md","Engineering Ceramics",{"type":7,"value":149,"toc":161},[150],[110,151,152,155,158],{},[113,153,154],{},"Theory of chemical bonds and properties correlations such as density, melting behavior, thermal, mechanical, optical, chemical properties",[113,156,157],{},"Manufacturing: shaping of ceramic parts, structure consolidation by sintering, resulting properties for applications",[113,159,160],{},"Selected material systems: aspects of manufacturing\u002Fmost relevant manufacturing processes; examples for applications (this includes silicate ceramics, refractories and selected functional materials such as ZrO2)",{"title":10,"searchDepth":11,"depth":11,"links":162},[],"• Theory of chemical bonds and properties correlations such as density, melting behavior, thermal, mechanical, optical, chemical properties\n• Manufacturing: shaping of ceramic parts, structure consolidation by sintering, resulting properties for applications\n• Selected material systems: aspects of manufacturing\u002Fmost relevant manufacturing processes; examples for applications (this includes silicate ceramics, refractories and selected functional materials such as ZrO2)\n",[],[166,167],"Prof. Dr. rer. nat. Michael Scheffler","Dr. rer. nat. Ulf Betke",[],{},"\u002F_modules\u002Fengineering-ceramics",[172,173,176,179,182],{"title":140,"url":141},{"title":174,"url":175},"Chapter 4: Thermal Shock & Thermal Conductivity","\u002Fimages\u002Fmodules\u002FCeramic Engineering_Chapter 4 Thermal shock thermal conduct.pdf",{"title":177,"url":178},"Chapter 8: Cellular Matter","\u002Fimages\u002Fmodules\u002FCeramic Engineering_Chapter 8 Cellular Matter.pdf",{"title":180,"url":181},"Chapter 10: Selected Engineering Ceramics","\u002Fimages\u002Fmodules\u002FCeramic Engineering_Chapter 10 Selected Engineering Ceramics.pdf",{"title":183,"url":184},"Chapter 11: Conductive Ceramic Materials","\u002Fimages\u002Fmodules\u002FCeramic Engineering_Chapter 11 Conductive Ceramic Materials.pdf",{"title":147,"description":163},"_modules\u002Fengineering-ceramics","ePp5AJ9Rig_DuEh7Dxz1vbLdvAYnjX21gz03XlJH7k8",{"id":189,"title":190,"body":191,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":195,"links":196,"meta":197,"navigation":24,"path":198,"pdfs":38,"semester":43,"seo":199,"stem":200,"__hash__":201},"modules\u002F_modules\u002Fenterpreneurship-management.md","Enterpreneurship Management",{"type":7,"value":192,"toc":193},[],{"title":10,"searchDepth":11,"depth":11,"links":194},[],[],[],{},"\u002F_modules\u002Fenterpreneurship-management",{"title":190,"description":10},"_modules\u002Fenterpreneurship-management","qgBLRTlBme9mwDoe3Eb9w3JFKEd_AOJXrqpI_CJkAgc",{"id":203,"title":204,"body":205,"description":229,"extension":14,"german_lecturer":24,"images":230,"is_elective":37,"lecturers":231,"links":233,"meta":234,"navigation":24,"path":235,"pdfs":236,"semester":238,"seo":239,"stem":240,"__hash__":241},"modules\u002F_modules\u002Fglass.md","Glass",{"type":7,"value":206,"toc":227},[207],[110,208,209,212,215,218,221,224],{},[113,210,211],{},"Definition of glass and the glassy state, fundamental aspects",[113,213,214],{},"Glass types\u002Fglass systems",[113,216,217],{},"Glass synthesis: batch chemistry and reactions, fabrication and processing including environmental and energy aspects",[113,219,220],{},"Optical, mechanical, chemical properties including respective applications",[113,222,223],{},"Crystallization and Glass-Ceramics",[113,225,226],{},"Characterization techniques",{"title":10,"searchDepth":11,"depth":11,"links":228},[],"• Definition of glass and the glassy state, fundamental aspects\n• Glass types\u002Fglass systems\n• Glass synthesis: batch chemistry and reactions, fabrication and processing including environmental and energy aspects\n• Optical, mechanical, chemical properties including respective applications\n• Crystallization and Glass-Ceramics\n• Characterization techniques\n",[],[232],"Dr. Dang Cuong Phan",[],{},"\u002F_modules\u002Fglass",[237],{"title":140,"url":141},3,{"title":204,"description":229},"_modules\u002Fglass","YVLI3a1vTTEB3hfsRGfGcSjPRKkdRipHyy_ir4IjtYM",{"id":243,"title":244,"body":245,"description":260,"extension":14,"german_lecturer":24,"images":261,"is_elective":37,"lecturers":262,"links":265,"meta":266,"navigation":24,"path":267,"pdfs":268,"semester":43,"seo":270,"stem":271,"__hash__":272},"modules\u002F_modules\u002Fheat-treatment-of-materials.md","Heat Treatment of Materials",{"type":7,"value":246,"toc":258},[247],[110,248,249,252,255],{},[113,250,251],{},"Theoretical fundamentals of thermal, thermochemical and mechanical processes",[113,253,254],{},"Application-related selection of treatment processes",[113,256,257],{},"Design of process-integrated technologies",{"title":10,"searchDepth":11,"depth":11,"links":259},[],"• Theoretical fundamentals of thermal, thermochemical and mechanical processes\n• Application-related selection of treatment processes\n• Design of process-integrated technologies\n",[],[263,134,264],"Prof. Dr.-Ing. Thorsten Halle","Dr.-Ing. Sebastian Hütter",[],{},"\u002F_modules\u002Fheat-treatment-of-materials",[269],{"title":140,"url":141},{"title":244,"description":260},"_modules\u002Fheat-treatment-of-materials","e9BWQkpc1Lc1zlBcyyfHnEmdhn98EfeUUgPPCo_HQ8c",{"id":274,"title":275,"body":276,"description":309,"extension":14,"german_lecturer":24,"images":310,"is_elective":37,"lecturers":311,"links":313,"meta":314,"navigation":24,"path":315,"pdfs":316,"semester":238,"seo":318,"stem":319,"__hash__":320},"modules\u002F_modules\u002Finorganic-non-metallic-binders.md","Inorganic, Non-metallic Binders",{"type":7,"value":277,"toc":307},[278],[110,279,280,283,286,289,292,295,298,301,304],{},[113,281,282],{},"Structural and Functional mortars and concrete",[113,284,285],{},"Workability, strength and durability",[113,287,288],{},"Development of microstructure",[113,290,291],{},"Functions of binders, additives and admixtures",[113,293,294],{},"OPC based mix design for standard concrete",[113,296,297],{},"Insulating and low-density concrete (porous concrete, AAC)",[113,299,300],{},"Ultra-high strength concrete - UHPC",[113,302,303],{},"Self-Compacting Concrete - SCC",[113,305,306],{},"Special mortars for grouting, repair, adhesives, extrusion and 3D printing",{"title":10,"searchDepth":11,"depth":11,"links":308},[],"• Structural and Functional mortars and concrete\n• Workability, strength and durability\n• Development of microstructure\n• Functions of binders, additives and admixtures\n• OPC based mix design for standard concrete\n• Insulating and low-density concrete (porous concrete, AAC)\n• Ultra-high strength concrete - UHPC\n• Self-Compacting Concrete - SCC\n• Special mortars for grouting, repair, adhesives, extrusion and 3D printing\n",[],[312],"Prof. Dr.-Ing. Thomas A. Bier",[],{},"\u002F_modules\u002Finorganic-non-metallic-binders",[317],{"title":140,"url":141},{"title":275,"description":309},"_modules\u002Finorganic-non-metallic-binders","70zj_n8YdtX7yqh3tfnSac8vyHLwEwPcc4QuX6Be_iI",{"id":322,"title":323,"body":324,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":328,"links":329,"meta":330,"navigation":24,"path":331,"pdfs":38,"semester":43,"seo":332,"stem":333,"__hash__":334},"modules\u002F_modules\u002Fmanagerial-finance-and-controlling.md","Managerial Finance and Controlling",{"type":7,"value":325,"toc":326},[],{"title":10,"searchDepth":11,"depth":11,"links":327},[],[],[],{},"\u002F_modules\u002Fmanagerial-finance-and-controlling",{"title":323,"description":10},"_modules\u002Fmanagerial-finance-and-controlling","69MuJorlSTAt1RUNVJS15ZJmuSlw96Inuov1TjVqpEA",{"id":336,"title":337,"body":338,"description":346,"extension":14,"german_lecturer":37,"images":347,"is_elective":37,"lecturers":348,"links":349,"meta":350,"navigation":24,"path":351,"pdfs":352,"semester":353,"seo":354,"stem":355,"__hash__":356},"modules\u002F_modules\u002Fmaster-thesis.md","Master Thesis - 30CP",{"type":7,"value":339,"toc":344},[340],[341,342,343],"p",{},"The independent, original Master Research Thesis is the flagship capstone of your study. Worth 30 CP, it is compulsory and typically conducted in the 4th semester under joint supervision of OVGU Magdeburg and VGU faculty. Students can work on their thesis at partner institutes in Germany or locally in collaboration with leading industrial sponsors.",{"title":10,"searchDepth":11,"depth":11,"links":345},[],"The independent, original Master Research Thesis is the flagship capstone of your study. Worth 30 CP, it is compulsory and typically conducted in the 4th semester under joint supervision of OVGU Magdeburg and VGU faculty. Students can work on their thesis at partner institutes in Germany or locally in collaboration with leading industrial sponsors.\n",[],[],[],{},"\u002F_modules\u002Fmaster-thesis",[],4,{"title":337,"description":346},"_modules\u002Fmaster-thesis","vYjrGsFW8motrOxDU62S8LMNVMh0vRurp9Q3pnYIEKw",{"id":358,"title":359,"body":360,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":364,"links":365,"meta":366,"navigation":24,"path":367,"pdfs":38,"semester":43,"seo":368,"stem":369,"__hash__":370},"modules\u002F_modules\u002Fmaterial-modelling-and-simulation.md","Material Modelling and Simulation",{"type":7,"value":361,"toc":362},[],{"title":10,"searchDepth":11,"depth":11,"links":363},[],[],[],{},"\u002F_modules\u002Fmaterial-modelling-and-simulation",{"title":359,"description":10},"_modules\u002Fmaterial-modelling-and-simulation","Ec1sqo0iTGh3A88ar-vEYABgD5s8iBAAQ5YowxQQSlQ",{"id":372,"title":373,"body":374,"description":395,"extension":14,"german_lecturer":24,"images":396,"is_elective":37,"lecturers":397,"links":399,"meta":400,"navigation":24,"path":401,"pdfs":402,"semester":11,"seo":404,"stem":405,"__hash__":406},"modules\u002F_modules\u002Fmaterials-characterization.md","Materials Characterization",{"type":7,"value":375,"toc":393},[376],[110,377,378,381,384,387,390],{},[113,379,380],{},"Structural description of materials (basics in crystallography, symmetry and space group theory)",[113,382,383],{},"(Powder) X-ray diffraction (theory, accessible information about the sample, diffractometer setups, data evaluation)",[113,385,386],{},"Microscopic characterization techniques (optical and Raman microscopy, electron microscopy, elemental analysis by EDS, sample preparation)",[113,388,389],{},"Thermal analysis (thermogravimetry, differential scanning calorimetry)",[113,391,392],{},"Porosity and surface area analysis (pycnometry, gas adsorption, Hg intrusion)",{"title":10,"searchDepth":11,"depth":11,"links":394},[],"• Structural description of materials (basics in crystallography, symmetry and space group theory)\n• (Powder) X-ray diffraction (theory, accessible information about the sample, diffractometer setups, data evaluation)\n• Microscopic characterization techniques (optical and Raman microscopy, electron microscopy, elemental analysis by EDS, sample preparation)\n• Thermal analysis (thermogravimetry, differential scanning calorimetry)\n• Porosity and surface area analysis (pycnometry, gas adsorption, Hg intrusion)\n",[],[398,167],"Prof. Dr. Franziska Scheffler",[],{},"\u002F_modules\u002Fmaterials-characterization",[403],{"title":140,"url":141},{"title":373,"description":395},"_modules\u002Fmaterials-characterization","SzEIoCZHIIO4ZiIDxYD0Y-dR6uqfwbDPKf3UOqky95Q",{"id":408,"title":409,"body":410,"description":440,"extension":14,"german_lecturer":24,"images":441,"is_elective":37,"lecturers":442,"links":444,"meta":445,"navigation":24,"path":446,"pdfs":447,"semester":43,"seo":458,"stem":459,"__hash__":460},"modules\u002F_modules\u002Fmechanics-of-materials-and-fracture-mechanics.md","Mechanics of Materials and Fracture Mechanics",{"type":7,"value":411,"toc":438},[412],[110,413,414,417,420,423,426,429,432,435],{},[113,415,416],{},"Elasticity",[113,418,419],{},"Plasticity",[113,421,422],{},"Creep",[113,424,425],{},"Rheological models",[113,427,428],{},"Yield and Failure Criteria",[113,430,431],{},"Stress fields around notches and crack tips",[113,433,434],{},"Stress intensity factors",[113,436,437],{},"Criteria for crack propagation",{"title":10,"searchDepth":11,"depth":11,"links":439},[],"• Elasticity\n• Plasticity\n• Creep\n• Rheological models\n• Yield and Failure Criteria\n• Stress fields around notches and crack tips\n• Stress intensity factors\n• Criteria for crack propagation\n",[],[443],"Prof. Dr.-Ing. habil. Dr. h. c. mult. Holm Altenbach",[],{},"\u002F_modules\u002Fmechanics-of-materials-and-fracture-mechanics",[448,449,452,455],{"title":140,"url":141},{"title":450,"url":451},"Creep Motivation","\u002Fimages\u002Fmodules\u002FMaterials Mechanics_Creep Motivation.pdf",{"title":453,"url":454},"Fatigue","\u002Fimages\u002Fmodules\u002FMaterials Mechanics_Fatigue.pdf",{"title":456,"url":457},"Fracturing Modes","\u002Fimages\u002Fmodules\u002FMaterials Mechanics_Fracturing Modes.pdf",{"title":409,"description":440},"_modules\u002Fmechanics-of-materials-and-fracture-mechanics","MLeDU05QMllYUUIwQPtPrBBntk0kP_53pWUDNlGMDZo",{"id":462,"title":463,"body":464,"description":494,"extension":14,"german_lecturer":24,"images":495,"is_elective":37,"lecturers":496,"links":499,"meta":500,"navigation":24,"path":501,"pdfs":502,"semester":43,"seo":525,"stem":526,"__hash__":527},"modules\u002F_modules\u002Fmetals.md","Metals",{"type":7,"value":465,"toc":492},[466],[110,467,468,471,474,477,480,483,486,489],{},[113,469,470],{},"Crystal symmetries and symmetry classes",[113,472,473],{},"Dislocations in metals",[113,475,476],{},"Movement and interactions of dislocations",[113,478,479],{},"Physical mechanisms at interfaces, description of interfaces",[113,481,482],{},"Elastic and plastic material behavior as a function of the crystal structure",[113,484,485],{},"Crystal structure, temperature and strain rate",[113,487,488],{},"Phase transitions and phase transformations in solids",[113,490,491],{},"Strengthening mechanisms in complex material systems",{"title":10,"searchDepth":11,"depth":11,"links":493},[],"• Crystal symmetries and symmetry classes\n• Dislocations in metals\n• Movement and interactions of dislocations\n• Physical mechanisms at interfaces, description of interfaces\n• Elastic and plastic material behavior as a function of the crystal structure\n• Crystal structure, temperature and strain rate\n• Phase transitions and phase transformations in solids\n• Strengthening mechanisms in complex material systems\n",[],[497,498,264],"Prof. Dr.-Ing. Mania Krüger","Dr.-Ing. Georg Hasemann",[],{},"\u002F_modules\u002Fmetals",[503,504,507,510,513,516,519,522],{"title":140,"url":141},{"title":505,"url":506},"Binary Isomorphic Phase Diagrams","\u002Fimages\u002Fmodules\u002FMetals_Binary isomorphic phase diagrams.pdf",{"title":508,"url":509},"Deformation Mechanisms at High Temperature","\u002Fimages\u002Fmodules\u002FMetals_Deformation mechanisms at high temperature.pdf",{"title":511,"url":512},"Different Three-Phase Systems & Invariant Reactions","\u002Fimages\u002Fmodules\u002FMetals_Different three-phase systems with possible invariant reactions.pdf",{"title":514,"url":515},"Examples for Ternary Systems","\u002Fimages\u002Fmodules\u002FMetals_Examples for ternary systems.pdf",{"title":517,"url":518},"Lattice Plastic Deformation","\u002Fimages\u002Fmodules\u002FMetals_Latice plastic Deformation.pdf",{"title":520,"url":521},"Partial Dislocations & Stacking Faults","\u002Fimages\u002Fmodules\u002FMetals_Partial Dislocations and Stacking Faults.pdf",{"title":523,"url":524},"Types of Binary Phase","\u002Fimages\u002Fmodules\u002FMetals_Types of Binary Phase.pdf",{"title":463,"description":494},"_modules\u002Fmetals","Xw5G0uIhFoX6oWJZNaMusvTDzKHhnmFq7Z6TbOfDSC0",{"id":529,"title":530,"body":531,"description":563,"extension":14,"german_lecturer":37,"images":564,"is_elective":37,"lecturers":565,"links":567,"meta":568,"navigation":24,"path":569,"pdfs":570,"semester":11,"seo":572,"stem":573,"__hash__":574},"modules\u002F_modules\u002Fmicro-nano-fabrication-technology.md","Micro-Nano Fabrication Technology",{"type":7,"value":532,"toc":561},[533],[110,534,535,538,541,544,547,550,552,555,558],{},[113,536,537],{},"Introduction of micro\u002Fnanotechnology",[113,539,540],{},"Micro-nano lithography",[113,542,543],{},"Thin-film deposition (chemical and physical depositions)",[113,545,546],{},"Etching (isotropic and anisotropic etchings; wet and dried etching)",[113,548,549],{},"Supported fabrication techniques (wafer bonding, dicing...)",[113,551,226],{},[113,553,554],{},"Micro-nano membranes",[113,556,557],{},"Practical work: realization of micro-nano silicon nitride (SiN) membranes at VGU Labs (hand on training on micro-nanolithography, thin-film deposition, dried and wet etching...)",[113,559,560],{},"Morphology, dimension and mechanical characterization of the realized SiN membranes (optical microscopy, SEM...)",{"title":10,"searchDepth":11,"depth":11,"links":562},[],"• Introduction of micro\u002Fnanotechnology\n• Micro-nano lithography\n• Thin-film deposition (chemical and physical depositions)\n• Etching (isotropic and anisotropic etchings; wet and dried etching)\n• Supported fabrication techniques (wafer bonding, dicing...)\n• Characterization techniques\n• Micro-nano membranes\n• Practical work: realization of micro-nano silicon nitride (SiN) membranes at VGU Labs (hand on training on micro-nanolithography, thin-film deposition, dried and wet etching...)\n• Morphology, dimension and mechanical characterization of the realized SiN membranes (optical microscopy, SEM...)\n",[],[566],"Dr.-Ing. Tong Duy Hien",[],{},"\u002F_modules\u002Fmicro-nano-fabrication-technology",[571],{"title":140,"url":141},{"title":530,"description":563},"_modules\u002Fmicro-nano-fabrication-technology","Y49slSqvAoX7hh2SvgZSq3ckPMff88afPMvxo3Xenqo",{"id":576,"title":577,"body":578,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":582,"links":583,"meta":584,"navigation":24,"path":585,"pdfs":38,"semester":43,"seo":586,"stem":587,"__hash__":588},"modules\u002F_modules\u002Fphysical-and-chemical-sensor-principles.md","Physical and Chemical Sensor Principles",{"type":7,"value":579,"toc":580},[],{"title":10,"searchDepth":11,"depth":11,"links":581},[],[],[],{},"\u002F_modules\u002Fphysical-and-chemical-sensor-principles",{"title":577,"description":10},"_modules\u002Fphysical-and-chemical-sensor-principles","i20J6TXV_KAM1AWZ6CYBoOh6Jnx7QrFFC7dxCl4V-tk",{"id":590,"title":591,"body":592,"description":625,"extension":14,"german_lecturer":24,"images":626,"is_elective":37,"lecturers":627,"links":629,"meta":630,"navigation":24,"path":631,"pdfs":632,"semester":238,"seo":652,"stem":653,"__hash__":654},"modules\u002F_modules\u002Fpolymers.md","Polymers",{"type":7,"value":593,"toc":623},[594],[110,595,596,599,602,605,608,611,614,617,620],{},[113,597,598],{},"Constitution, Configuration, Conformation, Bonds, Structure of macromolecules",[113,600,601],{},"Structure and properties of polymers",[113,603,604],{},"Synthesis, Molecular weight distribution",[113,606,607],{},"Morphology (amorph, crystalline, blends)",[113,609,610],{},"Mechanical properties (elasticity, plasticity, viscoelasticity)",[113,612,613],{},"Thermal properties",[113,615,616],{},"Electrical properties",[113,618,619],{},"Theoretical modelling",[113,621,622],{},"Applications",{"title":10,"searchDepth":11,"depth":11,"links":624},[],"• Constitution, Configuration, Conformation, Bonds, Structure of macromolecules\n• Structure and properties of polymers\n• Synthesis, Molecular weight distribution\n• Morphology (amorph, crystalline, blends)\n• Mechanical properties (elasticity, plasticity, viscoelasticity)\n• Thermal properties\n• Electrical properties\n• Theoretical modelling\n• Applications\n",[],[628],"Dr. rer. nat. Sven Henning",[],{},"\u002F_modules\u002Fpolymers",[633,634,637,640,643,646,649],{"title":140,"url":141},{"title":635,"url":636},"Composite Morphology","\u002Fimages\u002Fmodules\u002FPolymers_Composite Morphology.pdf",{"title":638,"url":639},"Deformation Mechanisms of Amorphous Polymers","\u002Fimages\u002Fmodules\u002FPolymers_Deformation Mechanisms of Amorphous Polymers.pdf",{"title":641,"url":642},"Intra & Interspherulitic Defects","\u002Fimages\u002Fmodules\u002FPolymers_Intra & Interspherulitic defects.pdf",{"title":644,"url":645},"Lecturer Profile","\u002Fimages\u002Fmodules\u002FPolymers_Lecturer Profile.pdf",{"title":647,"url":648},"Module Structure","\u002Fimages\u002Fmodules\u002FPolymers_Module Structure.pdf",{"title":650,"url":651},"Semi-Crystalline Polymers: Micro to Macro","\u002Fimages\u002Fmodules\u002FPolymers_Semi Crystaline Polymers from Micro to Macro.pdf",{"title":591,"description":625},"_modules\u002Fpolymers","V5GnNKfCbWm8Huk6nY0twFG7LwMfw0hCWhuauxOfL7I",{"id":656,"title":657,"body":658,"description":682,"extension":14,"german_lecturer":24,"images":683,"is_elective":37,"lecturers":684,"links":685,"meta":686,"navigation":24,"path":687,"pdfs":688,"semester":11,"seo":699,"stem":700,"__hash__":701},"modules\u002F_modules\u002Fpowder-metallurgy-and-sintered-materials.md","Powder Metallurgy and Sintered Materials",{"type":7,"value":659,"toc":680},[660],[110,661,662,665,668,671,674,677],{},[113,663,664],{},"Fundamentals of basic mechanisms and processing technologies of elemental powders and alloyed powders",[113,666,667],{},"Specific analyzing methods for powder materials",[113,669,670],{},"Mechanical alloying and considerations of the energy transfer into powders to evolve solid solutions",[113,672,673],{},"Influence of porosity on physical and mechanical properties of sintered materials",[113,675,676],{},"Additive manufacturing methods",[113,678,679],{},"Examples of powder metallurgical products and parts in engineering and biomedical applications",{"title":10,"searchDepth":11,"depth":11,"links":681},[],"• Fundamentals of basic mechanisms and processing technologies of elemental powders and alloyed powders\n• Specific analyzing methods for powder materials\n• Mechanical alloying and considerations of the energy transfer into powders to evolve solid solutions\n• Influence of porosity on physical and mechanical properties of sintered materials\n• Additive manufacturing methods\n• Examples of powder metallurgical products and parts in engineering and biomedical applications\n",[],[497,498],[],{},"\u002F_modules\u002Fpowder-metallurgy-and-sintered-materials",[689,690,693,696],{"title":140,"url":141},{"title":691,"url":692},"High Entropy Alloys","\u002Fimages\u002Fmodules\u002FPowder Metullurgy_High Entropy Alloys.pdf",{"title":694,"url":695},"Mechanical Properties & Microstructures of Sintered Material","\u002Fimages\u002Fmodules\u002FPowder Metullurgy_Mechanical properties under Microstructures of Sintered Material.pdf",{"title":697,"url":698},"Overview of Sintering Technologies","\u002Fimages\u002Fmodules\u002FPowder Metullurgy_Overview of Sintering Technologies.pdf",{"title":657,"description":682},"_modules\u002Fpowder-metallurgy-and-sintered-materials","CfW0qcG-gwAU2wPw4szhNb8JIxdiO1zhICYc8Vp98Ho",{"id":703,"title":704,"body":705,"description":735,"extension":14,"german_lecturer":24,"images":736,"is_elective":37,"lecturers":737,"links":738,"meta":739,"navigation":24,"path":740,"pdfs":741,"semester":238,"seo":743,"stem":744,"__hash__":745},"modules\u002F_modules\u002Fresearch-lab-properties-testing-and-analytics.md","Research Lab - Properties, testing and analytics",{"type":7,"value":706,"toc":733},[707],[110,708,709,712,715,718,721,724,727,730],{},[113,710,711],{},"Introduction to different materials labs e.g.",[113,713,714],{},"Laboratory for hardening of steel and metals",[113,716,717],{},"Laboratory for physical simulation of thermal and thermo-mechanical processes",[113,719,720],{},"Laboratory for powder metallurgy",[113,722,723],{},"Laboratory for ceramic structures",[113,725,726],{},"Laboratory for non-destructive testing",[113,728,729],{},"Laboratory for mechanical testing",[113,731,732],{},"Laboratory for corrosion testing",{"title":10,"searchDepth":11,"depth":11,"links":734},[],"• Introduction to different materials labs e.g.\n• Laboratory for hardening of steel and metals\n• Laboratory for physical simulation of thermal and thermo-mechanical processes\n• Laboratory for powder metallurgy\n• Laboratory for ceramic structures\n• Laboratory for non-destructive testing\n• Laboratory for mechanical testing\n• Laboratory for corrosion testing\n",[],[263,497,166,566],[],{},"\u002F_modules\u002Fresearch-lab-properties-testing-and-analytics",[742],{"title":140,"url":141},{"title":704,"description":735},"_modules\u002Fresearch-lab-properties-testing-and-analytics","XWPI-LMlj8759JjSNOrljHISlw774mXYMqV6CgWupc8",{"id":747,"title":748,"body":749,"description":770,"extension":14,"german_lecturer":24,"images":771,"is_elective":37,"lecturers":772,"links":775,"meta":776,"navigation":24,"path":777,"pdfs":778,"semester":43,"seo":780,"stem":781,"__hash__":782},"modules\u002F_modules\u002Fsolid-state-physics.md","Solid-State Physics",{"type":7,"value":750,"toc":768},[751],[110,752,753,756,759,762,765],{},[113,754,755],{},"Chemical Bonding in Solids: - Covalent Bonding - Ionic Bonding - Metallic Bonding - The Hydrogen bond - The van der Waals Bond",[113,757,758],{},"Structure of Solid Matter: - Crystal Lattice, Point Symmetry, the 32 Crystal Classes (Point Groups) - Simple Crystal Structures - Defects",[113,760,761],{},"Diffraction from Periodic Structures: - General Theory of Diffraction - Periodic Structures and Reciprocal Lattice - Braggs Interpretation of the Laue Condition - Brillouin Zones - Structure Factor - Structure Analysis",[113,763,764],{},"Dynamics of Atoms in Crystals: - The Potential - Equations of Motion - Diatomic Linear Chain - Scattering by Lattice Vibrations - Phonon Spectroscopy",[113,766,767],{},"Thermal Properties: - Density of States - Energy of a Harmonic Oscillator - Specific Heat Capacity - Thermal Expansion - Thermal Conductivity of the Lattice",{"title":10,"searchDepth":11,"depth":11,"links":769},[],"• Chemical Bonding in Solids: - Covalent Bonding - Ionic Bonding - Metallic Bonding - The Hydrogen bond - The van der Waals Bond\n• Structure of Solid Matter: - Crystal Lattice, Point Symmetry, the 32 Crystal Classes (Point Groups) - Simple Crystal Structures - Defects\n• Diffraction from Periodic Structures: - General Theory of Diffraction - Periodic Structures and Reciprocal Lattice - Braggs Interpretation of the Laue Condition - Brillouin Zones - Structure Factor - Structure Analysis\n• Dynamics of Atoms in Crystals: - The Potential - Equations of Motion - Diatomic Linear Chain - Scattering by Lattice Vibrations - Phonon Spectroscopy\n• Thermal Properties: - Density of States - Energy of a Harmonic Oscillator - Specific Heat Capacity - Thermal Expansion - Thermal Conductivity of the Lattice\n",[],[773,774],"Prof. Dr. rer. nat. Jürgen Christen","apl. Prof. Dr. rer. nat. habil. Frank Bertram",[],{},"\u002F_modules\u002Fsolid-state-physics",[779],{"title":140,"url":141},{"title":748,"description":770},"_modules\u002Fsolid-state-physics","ZlguqKxOvWOWMLzx5yagaWEUj6yFWCdoD2b7xz68Xio",{"id":784,"title":785,"body":786,"description":821,"extension":14,"german_lecturer":24,"images":822,"is_elective":37,"lecturers":823,"links":824,"meta":825,"navigation":24,"path":826,"pdfs":827,"semester":238,"seo":846,"stem":847,"__hash__":848},"modules\u002F_modules\u002Fteam-project.md","Team Project",{"type":7,"value":787,"toc":819},[788],[110,789,790,793,796,799],{},[113,791,792],{},"Scientific team project in Materials Science (groups of 2-3 students)",[113,794,795],{},"Literature review, problem identification, and research methodology comparison",[113,797,798],{},"Written scientific paper (3-6 pages) and final oral presentation",[113,800,801,802],{},"Offered topics:\n",[110,803,804,807,810,813,816],{},[113,805,806],{},"What is a BCC-Superalloy? (Dr. Hasemann)",[113,808,809],{},"Stacking Faults in GaN (Prof. Christen, Prof. Bertram)",[113,811,812],{},"Impurity vs Polarization Doping (Prof. Christen, Prof. Bertram)",[113,814,815],{},"Heat Treatment of Aluminium Alloys (Prof. Halle)",[113,817,818],{},"SMA Material Modelling & Fatigue (Prof. Juhre)",{"title":10,"searchDepth":11,"depth":11,"links":820},[],"• Scientific team project in Materials Science (groups of 2-3 students)\n• Literature review, problem identification, and research methodology comparison\n• Written scientific paper (3-6 pages) and final oral presentation\n• Offered topics: BCC-superalloys, GaN stacking faults, impurity vs. polarization doping, aluminum alloy heat treatment, SMA fatigue modeling\n",[],[498,263,133,773,774],[],{},"\u002F_modules\u002Fteam-project",[828,831,834,837,840,843],{"title":829,"url":830},"Team Project Guidelines & Deadlines","\u002FDocuments\u002FTeam Project\u002FTEAM PROJECT.pdf",{"title":832,"url":833},"Topic: What is a BCC-Superalloy? (Overview) (Supervisor: Dr. Hasemann)","\u002Fimages\u002Fmodules\u002FTeam Project_BCC Superalloys Overview.pdf",{"title":835,"url":836},"Topic: Stacking Faults in GaN (Supervisors: Prof. Christen, Prof. Bertram)","\u002Fimages\u002Fmodules\u002FTeam Project_Stacking faults in GaN Prof. Christen & Prof. Bertram.pdf",{"title":838,"url":839},"Topic: Impurity vs Polarization Doping (Supervisors: Prof. Christen, Prof. Bertram)","\u002Fimages\u002Fmodules\u002FTeam Project_Polarization Doping Prof. Christen & Prof. Bertram.pdf",{"title":841,"url":842},"Topic: Heat Treatment of Aluminium Alloys (Supervisor: Prof. Halle)","\u002Fimages\u002Fmodules\u002FTeam Project_Heat Treament of Aluminum alloys Prof. Halle.pdf",{"title":844,"url":845},"Topic: SMA Material Modelling & Fatigue (Supervisor: Prof. Juhre)","\u002Fimages\u002Fmodules\u002FTeam Project_SMA Fatigue Prof. Juhre.pdf",{"title":785,"description":821},"_modules\u002Fteam-project","6tv90Vgr4Tw8nkaEsDY-QzaQ50Wr1NWmX5nZ-3VuI2g",{"id":850,"title":851,"body":852,"description":10,"extension":14,"german_lecturer":37,"images":38,"is_elective":24,"lecturers":856,"links":857,"meta":858,"navigation":24,"path":859,"pdfs":38,"semester":43,"seo":860,"stem":861,"__hash__":862},"modules\u002F_modules\u002Ftechnology-and-materials.md","Technology and Materials",{"type":7,"value":853,"toc":854},[],{"title":10,"searchDepth":11,"depth":11,"links":855},[],[],[],{},"\u002F_modules\u002Ftechnology-and-materials",{"title":851,"description":10},"_modules\u002Ftechnology-and-materials","_c6EHn0Sj-uBJy6xmoyXU4jTVQBsRT3-YyHFWkc75eQ",1780343975998]