186 ❐ School of Mines &

School of Mines & Metallurgy

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• Geological Engineering

• Geology &

• Metallurgical Engineering

• Engineering

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• School of Mines and Metallurgy ❐ 187

contribute to the state and nation’s technological research effort in modern applications of ceramic . A major goal is to provide and Bachelor of academia with leaders in Ceramic Engineering who Master of Science are capable of solving the needs and problems of the modern and traditional industries. The Doctor of Philosophy department provides a comprehensive, forward- Doctor of Engineering looking and broad-based curriculum, which emphasizes fundamentals and practical applications, oral and written skills, and Today’s ceramic produces materials professional practice and ethics. Specifically, which are critical to many advanced : students who graduate from our program have a aerospace parts, automotive and environmental demonstrated ability to: components, biomedical devices, , electrical, electronic and optical assemblies, components, • Apply knowledge of , science, and refractories, structural materials, cements and other engineering; materials. • and conduct experiments, as as to As a ceramic engineer, you will work with analyze and interpret data; inorganic nonmetallic materials which are normally • Design a system, component, or process to meet processed at elevated . You will apply desired needs; scientific principles to the design of new formulations • Function on multi-disciplinary teams; and to the design of processes for their manufacture. • Identify, formulate, and solve engineering You will conduct research on the relationships problems; between engineering properties and the • Understand professional and ethical and structure of various ceramic materials. If you responsibility; like to know why materials act and react as they do, • Communicate effectively; then ceramic engineering will interest you. • Understand the impact of engineering solutions Ceramic engineering usually appeals to those in a global/societal context; who have a strong interest in finding practical • Recognize the need for and an ability to engage applications of the basic . The design in life-long learning; concept is at the atomic or microstructural level of • Understand the importance of contemporary solid materials. The UMR department of ceramic issues on the engineering ; and, engineering specializes in the product fields of glass, • Use the techniques, skills, and modern electronic materials, and refractories, and engineering tools necessary for engineering emphasizes materials processing principles practice. applicable to all products. Ceramic engineering classes and are These objectives are fundamental to those of the held in McNutt Hall, although a number of research campus who strive to educate leaders in the fields of laboratories in other campus facilities are available engineering and science. to our students. Equipment exists for X-ray investigation of chemistry and , for detection of thermally induced changes in chemistry Faculty and structure, for control of environment, and for Professors: measuring a wide variety of optical, electronic, Harlan Anderson (Curators' Professor Emeritus), mechanical and thermal properties. Ph.D., University of California-Berkeley The Graduate Center for Materials Research Richard Brow, Ph.D., (Department Chair), makes additional equipment available for ceramic Pennsylvania State University engineering. There will be opportunities for you to Delbert Day1 (Curators' Professor Emeritus), Ph.D., work with faculty members and graduate students Pennsylvania State University (Director, MRC) on a variety of design and research projects Wayne Huebner, Ph.D., UMR, (Department Chair) involving materials for many applications. G. Edwin Lorey (Emeritus), Ph.D., Rutgers Douglas Mattox (Emeritus), Ph.D., Rutgers Mission Statement Robert E. Moore (Emeritus), (Curators') Ph.D., University of Missouri-Columbia P. Darrell Ownby1, (Emeritus), Ph.D., Ohio State The mission of the department is to provide a Mohamed N. Rahaman, Ph.D., Sheffield, England quality comprehensive undergraduate and graduate education (B.S., M.S. and Ph.D.) in the modern and Assistant Professors: traditional areas of ceramic engineering. This is William G. Fahrenholtz, Ph.D., University of supported and enhanced by research activities in lab New Mexico classes and with internationally recognized faculty Gregory Hilmas, Ph.D., University of Michigan members to provide an excellent learning 1Registered Professional Engineer environment, to train graduate students, and to 188 ❐ School of Mines & Metallurgy

Bachelor of Science Note: Students who took Chem 5 must elect an additional 3 hour chemistry course (200 level or Ceramic Engineering above) or a technical elective with approval from your advisor. FRESHMAN YEAR (See Freshman Engineering Program) 1 See list of requirements for engineering in humanities and social sciences. SOPHOMORE YEAR 2 Technical electives must be selected from 200 First Semester Credit and 300 level courses with the advisor’s Cr Eng 102-Atomic Structure Cryst ...... 3 approval. Math 22-Calc w/Analy Geo III ...... 4 3 All Ceramic Engineering students must take the 24-Eng Physics II ...... 4 Fundamentals of Engineering Examination prior Cr Eng 111-Cer Mat Lab I, Char...... 1.5 to graduation. A passing grade on this Cr Eng 104-Cer in the Modern World...... 3 examination is not required to earn a B.S. Econ 121-Miocroecon or122- Macroecon...... 3 degree, however, it is the first step toward 18.5 becoming a registered professional engineer. This requirement is part of the UMR assessment Second Semester process as described in Assessment Cr Eng 103-Atomic Structure-Glass...... 3 Requirements found elsewhere in this catalog. Cr Eng 122-Cer Mat Lab II-Rheo & ...... 1.5 Students must sign a release form giving the Electives-Hum or Soc Sci1...... 3 University access to their Fundamentals of Math 204-Diff Equa or Stat 320 or Stat 353 ...... 3 Engineering Examination score. Hist 112, Hist 175, or Hist 176, or Pol Sc 90 ...... 3 Bas En 50 or Bas En 51 ...... 3 Specific Degree Requirements 16.5 1. Total number of hours required for a degree in Ceramic Engineering is 134. JUNIOR YEAR 2. The assumption is made that a student admitted First Semester Credit in the department has completed 35 hours credit Cr Eng 231-Cer Proc Lab I ...... 1.5 towards graduation. The academic program of Cr Eng 251-Phase Equilibria...... 3 students transferring from colleges outside UMR Chem 241- ...... 3 will be decided on a case-by-case basis. Cr Eng 203-Thermal Proc in Cer ...... 3 3. The department requires a total of 18 credit Cr Eng 205-Eng Design Process...... 2 hours of humanities and social science. Chem 251-Inter Quant ...... 4 16.5 CERAMIC ENGINEERING Second Semester COURSES Cr Eng 242-Cer Proc Lab II ...... 1.5 Cr Eng 259-Cer Thermo ...... 3 090 The Ceramic Experience [Lab 1.0] Hands-on Chem 243-Physical Chem ...... 3 experience with the fun of discovery through Physics 107-Intro to Modern Physics ...... 3 experimentation in the fabrication, properties Elective-Hum or Soc Sc ...... 3 and applications of ceramics in the modern Bas En 110-Mech of Mat...... 3 world. Prerequisite: Freshman standing. 16.5 102 Atomic Structure of Crystalline Ceramics SENIOR YEAR [Lect 3.0] The crystal-chemical principles used First Semester Credit to design and manufacture materials with Cr Eng 261-Cer Eng Design Lab...... 2 specified properties are developed and applied Cr Eng 284-Elect Prop of Cer...... 3 to , clays, silicates and other nonmetallic Cr Eng 306-Thermo Prop & Design ...... 3 compounds. Mt Eng 204- ...... 3 103 Atomic Structure of the Glassy State [Lect Elective2 ...... 3 3.0] A study of the short range order of Cr Eng 362-Thermal/Mc/El/Op Lab...... 1 structure in glass, its relationship to 15 physical-chemical properties of glassy systems, Second Semester and the application of rate processes to the Cr Eng 262-Cer Eng Design Lab...... 2 physical and electrical behavior. Prerequisite: Cr Eng 315-Organic Add in Cr Proc ...... 2 Cr Eng 102. English 060, 160 or Speech 85...... 3 104 Ceramics in the Modern World [Lect 3.0] An Electives2 ...... 6 introduction to traditional and modern Stat 213 or Stat 215 or Eng Mg 385...... 3 applications of ceramics providing a broad 16 overview of all aspects of current ceramic Total hours: 135 hours . School of Mines and Metallurgy ❐ 189

111 Ceramic Materials the physical properties, crystal structure and I-Characterization of Materials [Lab 1.5] phase equilibria diagrams are studied. Solid Laboratory experience and controlled solution and partial molal quantity concepts are demonstrations are provided in reducing presented and modeled. Prerequisite: Chem ceramic raw materials to the particulate state 241. and in characterizing the powders with respect 261 Ceramic Engineering Design Laboratory to surface area, particle size, particle shape, [Lab 2.0] Students working in groups of 3 or 4 and particle packing. Prerequisite: Sophomore will be assigned a design task related to a standing. specific technology e.g. ceramic turbine , 122 Ceramic Materials Laboratory II-Rheology fuel cell , glass fibers, thermal and Plastic Behavior [Lab 1.5] Theory of insulation etc. The first two stages will focus interactions and measurement of properties of on product and process design, respectively. ceramic raw materials and water, including Prerequisite: Cr Eng 242. of Newtonian and non-Newtonian 262 Ceramic Engineering Design Lab [Lab 2.0] liquids, plastic limits, and binder chemistry, as A continuation of Ceramic 261 with two final related to slip-, , and pressing tasks having to do with evaluation of the operations. Prerequisite: Cr Eng 111. design, casting and safety aspects. Students 202 Cooperative Training [Variable] On-the-job will give individual oral reports and will submit experience gained through cooperative a design project paper. Prerequisite: Cr Eng education with industry, with credit arranged 261. through departmental cooperative advisor. 284 Electrical Properties of Ceramics [Lect 3.0] Grade received depends on quality of reports The application of and submitted at work supervisor's evaluation. physics to the development and evaluation of 203 Thermal Processes in Ceramics [Lect 3.0] the electronic, dielectric, magnetic, and optical Considerations in rate controlled processes in properties of materials. Emphasis is placed on the fabrication of ceramics, packing of the design/application relationships which are powders, comminution and calcination, drying used to develop materials. Prerequisite: and firing of ceramic ware, polymorphic Physics 107. transformations, , grain growth and 300 Special Problems [Variable] Problems or hot pressing, relationships of fabrication readings on specific subjects or projects in the techniques to physical properties. department. Consent of instructor required. 205 The Engineering Design Process [Lect 2.0] 301 Special Topics [Variable] This course is Introduction to elements of design process designed to give the department an including strategic, planning, project, opportunity to test a new course. Variable title. management, modeling, materials selection, 306 Thermomechanical Properties and Their , safety, environmental Use in Design [Lect 3.0] This course will treat issues and ethics. Prerequisite: Junior the theory and testing practice related to standing. design for a range of thermal and mechanical 231 Ceramic Processing Lab I [Lab 1.5] The first properties of ceramic materials. Prerequisite: half of a two-semester sequence that gives Bas En 110. students practical knowledge of the methods 308 Electrical Ceramics [Lect 2.0 and Lab 1.0] and techniques used in the fabrication of The application and design of ceramics for the ceramics. Prerequisite: Cr Eng 122. electrical industry is discussed. Particular 242 Ceramic Processing Lab II [Lab 1.5] The emphasis is placed on how ceramic materials second half of a two-semester sequence that are altered to meet the needs of a specific gives students practical knowledge of the application. The laboratory acquaints the methods and techniques used in the fabrication student with measurements which are used for of ceramics. Prerequisite: Cr Eng 231. electrical property evaluation. Prerequisite: Cr 251 Phase Equilibria [Lect 3.0] The study of Eng 284. unary, binary and ternary inorganic, phase 315 Organic Additives in Ceramic Processing equilibrium systems with examples for solving [Lect 2.0] Basic chemistry, structure and practical engineering problems. Prerequisite: properties or organic additives used in the Chem 3. ceramics industry; solvents, binders, 259 Ceramic [Lect 3.0] Basic plasticizers, dispersants. Use of organic thermodynamic concepts are applied to the additives in ceramic processing. Prerequisites: solid state. Calculations and estimations of Cr Eng 203 and 231. thermodynamic variables and the relations to 190 ❐ School of Mines & Metallurgy

331 Ceramic Processing [Lect 3.0] Powder, 392 X-ray Diffraction and Fluorescence colloidal and sol-gel processing, Laboratory [Lab 1.0] Qualitative and methods, drying, sintering and grain growth. quantitative analysis by diffraction and Relation of processing steps to densification fluorescence; high studies of and development. Prerequisite: expansion and kinetics of phase formation or Senior standing. transformation. Prerequisite: Preceded or 333 Microelectronic Ceramic Processing [Lect accompanied by Cr Eng 391. 3.0] Materials, processing and design of microelectronic ceramics are covered. Introduction to devices, triaxial ceramics, high aluminas, tape fabrication, metallizations, thick film processing and glass-to- seals. Geological Engineering Prerequisites: Cr Eng 203 & 242. Bachelor of Science 362 Thermomechanical/Electrical/Optical Properties Lab [Lab 1.0] Laboratory Master of Science consisting of three separate modules of Doctor of Philosophy experiments for the characterization of the thermomechanical, electrical and optical Doctor of Engineering properties of ceramics. The student will choose one of the three modules. Prerequisite: Bas En Emphasis areas at the Bachelor of Science level 110 or Cr Eng 284. in environmental protection and hazardous waste 364 Refractories [Lect 3.0] The manufacture, management, groundwater and properties, uses, performance, and testing of contaminant transport, engineering geology and basic, neutral and acid refractories. geotechnics, petroleum, energy and natural 369 Glass Science and Engineering [Lect 3.0] resources, and quarry engineering. Emphasis area The development, manufacturing methods, at the Master of Science level in hazardous waste applications, and properties of flat, fiber, engineering and science. container, chemical, and special purpose . Composition/property relationships for Geological Engineering is the application of the glasses and nucleation-crystallization processes principles of geology to the solution of problems in for glass-ceramics are also covered. engineering practice. For example, geological Prerequisite: Cr Eng 102. are responsible for the exploration and 371 Dielectric and Electrical Properties of design of foundations, excavations, tunnels, dams, Oxides [Lect 3.0] The processes occurring in and waste disposal sites. They also are inorganic materials under the influence of an involved in the exploration for ground water supplies electric field are considered from basic and for metallic , industrial and principles. Emphasis is placed on application to petroleum resources. In addition, geological real systems. Prerequisite: Cr Eng 284. engineers have extensive responsibilities in environmental protection. They are responsible for 377 Principles of Engineering Materials [Lect the investigations required for the clean-up of 3.0] Examination of engineering materials with existing contaminated sites and for conducting the emphasis on selection and application of studies necessary to locate and design facilities to materials in industry. Particular attention is prevent future environmental contamination. given to properties and applications of As a geological engineer, you probably will divide materials in extreme temperature and chemical your time between field, laboratory, and office work. environments. A discipline specific design In the field, you might examine and map the extent project is required. (Not a technical elective for and structural features of rocks and soils. You may undergraduate metallurgy or ceramic majors) collect samples for testing of their physical and (Co-listed with Ae Eng 377, Ch Eng 377, chemical properties, or you may conduct programs Physics 377, Mt Eng 377) for on-site testing. In the laboratory, you might 390 Undergraduate Research [Variable] perform direct testing of strength or permeability or Designed for the undergraduate student who organize research programs. Office work will include wishes to engage in research. Not for graduate the evaluation of data computer modeling of credit. Not more than six (6) credit hours geological conditions, writing of scientific reports, allowed for graduation credit. Subject and and participation in the planning, designing, and credit to be arranged with the instructor. construction of engineering projects. 391 X-ray Diffraction and Fluorescence [Lect Since geological engineering requires a 3.0] Symmetry and space groups; x-ray background in both science and engineering, the diffraction; reciprocal lattice; calculated curriculum includes a well balanced program of diffracted beam intensity; indexing methods; geological science, basic engineering and applied precise lattice parameters. geological engineering courses. In addition, the School of Mines and Metallurgy ❐ 191 program provides flexibility in the senior year so that Bachelor of Science you may modify the general program of study to select a sequence of technical elective courses Geological Engineering specifically related to the environmental protection, construction, mining, or petroleum industries. In FRESHMAN YEAR this capacity you have the opportunity to develop (See Freshman Engineering Program) the program of study that is most appropriately oriented toward the field of specialization that you SOPHOMORE YEAR have chosen for your professional career. First Semester Credit Math 22-Calculs w/Analytic Geometry III...... 4 Mission Statement Physics 24- Ii ...... 4 Cmp Sc 73-Basic Scientific Programminga...... 2 It is the mission of the Geological Engineering Cmp Sc 77-Computer Programming Laba ...... 1 program to teach integrated concepts of geology and Ge Eng 50-Geology for Engineers ...... 3 engineering in such a manner that graduates will Economics Elective ...... 3 graduate as competent, ethical, professional 17 geological engineers. The program is designed to provide background in geological and engineering Second Semester sciences courses in the lower division which support Math 204-Elementary Differential Equations...... 3 the applied analysis and design concepts courses Bas Eg 50 or Bas En 51-Eng Mech-...... 3 taught in the upper division. It is expected that the Ge Eng 110-Principles of Ge Eng ...... 1 students will have gained the ability to identify and, Geo 125-Physical & Petrologyb ...... 3 through analysis and design, solve problems Ge Eng 275-Geomorphology & Terrain Analysis ...... 3 resulting from the interaction of man’s activities with Ge Eng 249-Fund of Cmp Appl in Ge Eng...... 3 the geologic environment. The curriculum is 16 intended to blend theoretical concepts with practical application, so as to offer the student a well-rounded JUNIOR YEAR education, and to include sufficient discussion and First Semester Credit project oriented work with real-world issues to Cv Eng 230-Elementary Fluid ...... 3 provide the student with a thorough awareness of Bas En 110-Mechanics of Materials ...... 3 the graduate’s responsibility to society. Since Hum/Soc Sc Electivec ...... 3 geological engineering students are oriented toward Pe Eng 131- Practices & Well Completions ...... 3 careers in environmental protection, social Ge Eng 248-Fund of Geographic Info Systems...... 3 awareness and the engineer’s responsibility to both 15 client and society is strongly emphasized throughout the curriculum, particularly in the senior seminar and Second Semester design courses. Advanced Hum/Soc Sc Electivec ...... 3 Bas En 150-Engineering Mechanics-Dynamics ...... 2 Faculty Geo 220-Structural Geology...... 4 Professors: Geo 223-Stratigraphy & Sedimentation or David Barr1 (Emeritus), Ph.D., Purdue Geo 332-Depositional Systems...... 3 Jeffrey Cawlfield1 (Program Head), Geophysics Elective ...... 3 (Associate Director of Freshman Engineering) English 160-Technical Writing ...... 3 Ph.D., University of California-Berkeley 18 C. Dale Elifrits2 (Emeritus), Ph.D., UMR John Rockaway2 (Emeritus), Ph.D., Purdue SUMMER Credit Don Warner (Emeritus and Dean Emeritus), Ph.D., Ge Eng 373-Geologic Field Methods ...... 3 California-Berkeley Ge Eng 374-Engineering Geologic Field Methods...... 3 6 Associate Professor: T.M. (Mike) Whitworth, Ph.D., Purdue SENIOR YEAR J. David Rogers2, (Karl Hasselmann Chair), Ph.D., First Semester Credit California-Berkeley Ge Eng 343-Subsurface Exploration or Geo 340-Petroleum Geology ...... 3 Assistant Professors: Ge Eng 310-Seminar...... 0.5 1 Norbert Maerz , Ph.D., University of Waterloo Ge Eng 331-Subsurface Hydrology...... 3 2 Paul Santi , Ph.D., Engineering Economics Electived...... 3 Ge Eng 341-Eng Geology & Geotechnics...... 3 1 Registered Professional Engineer 2 Cv Eng 215-Elementary or Registered Geologist Mi Eng 231-Rock Mechanics I...... 3 15.5 Minor in Ge Eng, contact department. 192 ❐ School of Mines & Metallurgy

Second Semester Environmental Protection and Advanced Hum/Soc Sci Electivec...... 3 Ge Eng 310-Seminar...... 0.5 Hazardous Mechanics Electivee ...... 3 Technical Electivesf ...... 6 Ge Eng 335-Environmental Geological Engineering Ge Eng 350-Geological Engineering Design ...... 3 Ge Eng 337-Geological Aspects of Hazardous Waste 15.5 Management Ge Eng 381-Intermediate Subsurface Hydrology and a Or Bas En 20, if Cmp Sc courses elected in Transport Mechanics freshman year. Ge Eng 372- in Engineering Practice b Or Geo 113 and 130. Ge Eng 315-Statistical Methods in Environmental c The sequence of course selection must provide Geology and Engineering both breadth and depth of content and must Ge Eng 376-Mined Land Reclamation be selected from the list of approved Ge Eng 333-Risk Assessment in Environmental Humanities/Social Science Electives available Studies from your advisor. The department requires a Ge Eng 339-Groundwater Remediation total of 18 hours of humanities and social science courses. Groundwater Hydrology and d To be selected from Cv Eng 241, Eng Mg 208 or Contaminant Transport Pe Eng 257. e Must be selected from Ge Eng 340, Ge Eng 371, Ge Eng 381-Intermediate Subsurface Hydrology and Ge Eng 381, Mi Eng 231, Pe Eng 141, or Cv Transport Mechanics Eng 215, Cv Eng 229, Cv Eng 315. f Ge Eng 333-Risk Assessment in Environmental To be selected from advanced courses in Studies geological, mining, petroleum or civil Ge Eng 339-Groundwater Remediation engineering, geology or other courses in the Ge Eng 372-Soil Science in Engineering Practice School of Mines and Metallurgy and School of Ge Eng 315-Statistical Methods in Environmental Engineering with approval of your advisor. Geology and Engineering Must contain design content and must be Pe Eng 341-Well Test Analysis selected from the list of approved Technical Cv Eng 215-Elementary Soil Mechanics Electives available from your advisor. Pe Eng 232-Well Logging g All Geological Engineering students must take the Fundamentals of Engineering Examination prior to graduation. A passing grade on this Engineering Geology and examination is not required to earn a B.S. Geotechnics degree, however, it is the first step toward becoming a registered professional engineer. Ge Eng 371-Rock Engineering This requirement is part of the UMR assessment Cv Eng 215-Elementary Soil Mechanics process as described in Assessment Mi Eng 231-Rock Mechanics Requirements found elsewhere in this catalog. Cv Eng 229- Engineering Students must sign a release form giving the Mi Eng 308-Drilling and Blasting University access to their Fundamentals of Ge Eng 346-Applications of Geographic Info Examination score. Ge Eng 353-Regional Geological Engineering h Geological engineering students must earn the Problems in North America grade of “C” or better in all geological Ge Eng 315-Statistical Methods in Environmental engineering courses to receive credit toward Geology and Engineering graduation. The total number of credit hours required for a degree in Geological Engineering Petroleum, Energy and Natural is 138. The assumption is made that a student admitted to the Department has completed 35 Resources hours toward graduation to fulfill the requirements of the Freshman Engineering Pe Eng 241-Petroleum Engineering Program. Mi Eng 231-Rock Mechanics Ge Eng 346-Applications of Geographic Info Systems Ge Eng 381-Intermediate Subsurface Hydrology and Geological Engineering Transport Mechanics Emphasis Areas Geo 341-Applied Petroleum Geology Pe Eng 232-Well Logging I Pe Eng 257-Petroleum Economic Valuation Electives are selected by the student with Pe Eng 341-Well Test Analysis advisor approval. Some appropriate electives are listed for each emphasis area. School of Mines and Metallurgy ❐ 193

Quarry Engineering weather. Prerequisites: Physics 23, Ge Eng 50. (Co-listed with Physics 236) Mi Eng 231-Rock Mechanics 248 Fundamentals of Geographic Information Cv Eng 215-Soil Mechanics Systems [Lect 2.0 and Lab 1.0] Introduction Cv Eng 216-Construction Materials-Properties and to the fundamental, concepts and components Testing Techniques for acquiring, manipulating and Ge Eng 371-Rock Engineering analyzing digital terrain data for geological and Ge Eng 376-Mined-Land Reclamation geotechnical applications. Prerequisite: Ge Eng Mi Eng 221-Mining Exploration 275. Mi Eng 307-Principles of Explosives Engineering 249 Fundamentals of Computer Applications in Mi Eng 308-Drilling and Blasting Geological Engineering [Lect 2.0 and Lab Mi Eng 345-Strata Control 1.0] Applications of existing and available software packages utilizing a variety of hardware systems for geological engineering GEOLOGICAL ENGINEERING purposes. Emphasis on practical utilization of personal computers and network operations for COURSES graphical analysis of geologic data, mapping of surface and subsurface configurations and 050 Geology for Engineers. [Lect 2.0 and Lab modeling of geologic processes. Prerequisites: 1.0] A study of earth materials, surface Ge Eng 50, Cmp Sc 73, 77. features, surface and internal structures and 275 Geomorphology and Terrain Analysis [Lect their relationship to engineering works. 2.0 and Lab 1.0] Study of geomorphic Analysis of the agents of weathering, erosion, processes, landform development and surfical diastrophism and their effects on engineering materials. Course content stresses the construction. evaluation of the engineering properties of 110 Principles of Geological Engineering [Lect terrain factors for site selection and design of 1.0] Introduction to the concepts defining the engineered structures. Prerequisite: Ge Eng application of geologic science to the solution 50. of problems in engineering practice, including 300 Special Problems [Variable] Problems or field trips to illustrate current examples of readings on specific subjects or projects in the professional responsibility. department. Consent of instructor required. 123 OSHA 40 HR Hazwopper Course [Lab 1.0] 301 Special Topics [Variable] This course is This course covers environmental health and designed to give the department an safety considerations required by federal opportunity to test a new course. Variable title. regulation to work with hazardous substances. 310 Seminar [Lect 0.5] Discussion of current The course meets training and performance topics. Prerequisite: Senior standing. standards for working at sites of uncontrolled 315 Statistical Methods in Environmental hazardous waste and at sites requiring Geology and Engineering [Lect 3.0] Study of emergency response operations following the statistical methods applicable to geologic release of hazardous substances. investigations in environmental protection 200 Special Problems [Variable] Problems or studies. Topics include design of test programs readings on specific subjects or projects in the to meet regulatory guidelines, statistical department. Consent of instructor required. procedures for analysis of test data and 201 Special Topics [Variable] This course is applicable statistical techniques for comparing designed to give the department an test conclusions with regulatory criteria. opportunity to test a new course. Variable title. 331 Subsurface Hydrology [Lect 2.0 and Lab 1.0] 235 Environmental Geoscience [Lect 2.0 and Lab Introduction to the theory and engineering 1.0] A basic course which integrates principles concepts of the movement of subsurface fluids. of basic geology and geologic processes with Properties of water and other subsurface fluids. the activities of man. Essential elements of Hydraulic characteristics of earth materials. physical geology and surfacial processes are Engineering problems related to subsurface covered in lectures and laboratories, along with fluids. Prerequisite: Ge Eng 50. present-day environmental issues (waste 333 Risk Assessment in Environmental Studies disposal, air and water quality). Prerequisite: [Lect 3.0] This course will present the concepts Junior status. required to assess the human health and 236 Basic Weather [Lect 2.0 and Lab 1.0] A environmental risks resulting from course to study basic concepts of atmospheric contaminants in soil and groundwater. Course science such as air masses, frontal weather topics include evaluation of data sets, exposure patterns and weather forecasting. The course calculation, chemical fate and transport, and also will include topics on climate and severe development of conceptual site models. 194 ❐ School of Mines & Metallurgy

335 Environmental Geological Engineering evaluation. Prerequisite: Ge Eng 275 or [Lect 3.0] Introduction to engineering geologic consent of instructor. mapping for site selection for solid waste 349 Computer Applications in Geological disposal facilities; landfill site selection, design, Engineering [Lect 3.0] Advanced topics in permitting, construction, operation, and computer applications including: statistical closeout/reclamation. Prerequisites: Ge Eng analysis, geostatistical modeling, groundwater 275, accompanied or preceded by Cv Eng 215. and contaminant transport simulation, 337 Geological Aspects of Hazardous Waste computer contouring algorithms, and digital Management [Lect 3.0] Nature and image processing. Emphasis is on classification of hazardous wastes; federal and understanding the mathematical algorithms state regulation for treatment and disposal; and computer implementation as well as the geological characterization of facility sites; practical application to site investigation, design of impoundments, storage and decision making, and modeling projects. containment facilities; ground water monitoring Prerequisite: Ge Eng 249. and protection; site permitting and licensing 350 Geological Engineering Design [Lect 2.0 planning. Prerequisite: Ge Eng 275. and Lab 1.0] Geological engineering design is 339 Groundwater Remediation [Lect 3.0] A an open-ended project course requiring the survey of conventional and innovative collection of data, analysis and synthesis of techniques for remediation of contaminated that data and design of a socially acceptable, groundwater. Topics include groundwater economical solution to the selected problem. cleanup standards, physico-chemical properties Oral and written reports are required. of groundwater and contaminants, fate and Prerequisite: To be taken in the semester transport of contaminants in the subsurface, before graduation. hydrogeologic site characterization, and 351 Geological Engineering Case Histories selection process of a remedial technology. [Lect 3.0] This course presents significant Various computer programs developed to assist concepts in geological engineering practices by in preliminary selection and design of using examples from practical experience to remediation technologies will be used. illustrate the objectives. The examples will be Prerequisite: Ge Eng 331. drawn from classic case histories as well as the 340 Field Operations in Ground Water professional experience of the instructor. Hydrology [Lect 3.0] A survey of ground 353 Regional Geological Engineering Problems water field operations. Topics include ground in North America [Lect 3.0] A physiographic water exploration, well drilling methods, drilling approach to engineering materials and fluids, well screens, water and monitoring well problems. Course emphasizes the distribution design, well development and testing, and and engineering characteristics of soil and rock pumps. A design project will be completed. to construction and site problems and includes Prerequisite: Ge Eng 331. aggregates, foundations, excavations, surface 341 Engineering Geology and Geotechnics [Lect and ground water, slope stability and arctic 3.0] Study of procedures and techniques used conditions. to evaluate geologic factors for site selection 371 Rock Engineering [Lect 3.0] Data and the design of engineered structures. requirements for design; engineering Prerequisite: Ge Eng 275. properties of rock; characterization of fractures 343 Subsurface Exploration [Lect 2.0 and Lab and rock masses; stereonet analysis of 1.0] Lectures and field and laboratory exercises discontinuities; graphic analysis of failure; in the use of geologic and geophysical ground distribution; tunnel construction techniques for evaluation of subsurface geology methods; ground support principles; selection and resources. Prerequisites: Pe Eng 131, Geo of tunneling equipment; and specifications for 220. underground construction. Prerequisite: Ge 344 Remote Sensing Technology [Lect 2.0 and Eng 275. Lab 1.0] Principles of digital image processing 372 Soil Science in Engineering Practice [Lect including image enhancement and 3.0] A study of the ways in which soils and multispectral classification. Emphasis upon geologic conditions influence engineered design and implementation of remote sensing projects. Soil formation, and systems and analysis of remotely sensed data properties to include composition, organic for geotechnical and environmental component, exchange and water investigations. Prerequisite: Ge Eng 248. relationships as well as erosion control and 346 Applications of Geographic Information revegetation will be covered. Prerequisite: Ge Systems [Lect 2.0 and Lab 1.0] Applications of Eng 275. geographic information systems and remote 373 Geologic Field Methods [Lab 3.0] Field sensing to environmental monitoring, practice in geologic mapping and interpretaton resource exploration and geotechnical site in the Western United States using topographic School of Mines and Metallurgy ❐ 195

base maps and aerial photos. Emphasizes the plates have formed mountain ranges and oceans), description and interpretation of stratigraphic adsorption of pollutants by soils, plant fossils in sections, sedimentary and tectonic structures. ancient rivers and deltas, identification of Prerequisite: Two courses in either Geology or minerals with and the significance of Geological Engineering. this to industrial problems, exploration of oil and gas 374 Engineering Geologic Field Methods [Lab using seismic reflection, detecting subsurface 3.0] Instruction in methods of field structures using shallow seismic refraction and investigation required for engineering ground penetrating radar, pollution problems geological studies. Course will include associated with capped oil , examining the procedures for interpretative mapping of products of ancient volcanic explosions, how hot surficial geologic conditions, site groundwater deposited metal ores in ancient rocks. characterization, and evaluation of geologic You may even find yourself snorkeling over a coral hazards. Written reports are required. reef in the Caribbean Sea. Prerequisite: Geo 373. Geology is the study of the history, composition, 376 Mined-Land Reclamation [Lect 3.0] and structure of Earth and other planetary bodies. Permitting: the legal environment of Geophysics is the integration of geology with reclamation and environmental impact physics, mathematics, and to the assessment; post-mining land-use selection study of Earth and other planets. is and mine planning for optimum reclamation of the application of chemistry to the study of the all mines: metal, nonmetal, and coal; unit composition of Earth and other planets. Traditionally operations of reclamation; drainage, backfill, geologists, geophysicists, and geochemists have soil replacement, revegetation, maintenance, been involved in the exploration for and production etc. Prerequisites: Ge Eng 50 and prerequisite of resources such as and petroleum. In or co-requisite; one of Ge Eng 246, Cv Eng recent years, however, these have become 215, or Mi Eng 226. (Co-listed with Mi Eng increasingly involved in the identification and 376) solution of environmental problems such as , and geological hazards such 381 Intermediate Subsurface Hydrology and as the risk of earthquakes in regions of seismic Contaminant Transport Mechs [Lect 3.0] A activity. study of the physical/chemical properties of Courses are the same for all undergraduate rocks and sediments in the subsurface students in geology and geophysics during their first environment. Emphasis is put on waterrock two years. This course work emphasizes a strong properties such as permeability, capillarity, and background in chemistry, physics, mathematics and mechanical dispersion. Both microscopic and computer science, as well as course work in the macroscopic approaches are used. humanities and social sciences. Students begin to Prerequisites: Cv Eng 230 & Ge Eng 331. take more specialized courses pertaining to their 390 Undergraduate Research [Variable] area of emphasis in their junior and continuing into Designed for the undergraduate student who their senior year. All geology and geophysics wishes to engage in research. Not for graduate students are required to complete a five week credit. Not more than six (6) credit hours summer field course which is taught in Utah and allowed for graduation credit. Subject and Arizona. This course is usually taken between the credit to be arranged with the instructor. student’s junior and senior year. As a professional geologist or geophysicists you may explore for oil, gas, and coal to help provide for our nation’s energy needs. You may search for minerals to supply various metals critical to keep the Geology & of industry . You may become involved in identifying sources of water pollution or Geophysics determining the best ways to dispose of nuclear waste. In all cases, you will have the opportunity to Bachelor of Science work out-of-doors as well as in the laboratory. Very Master of Science few geological scientists ever regret the kind of work that they do. Doctor of Philosophy Suggested programs of study are presented for the following emphasis areas in Geology and Emphasis areas at the Bachelor of Science level in Geophysics (General Geology, Geophysics, Ground- geochemistry, geology, geophysics, groundwater and water and Environmental Geology, Geochemistry, environmental geology, and petroleum geology. and Petroleum Geology). Students are commonly drawn to Geology and Geophysics by a desire to As a student in the department of geology and explore a topic, that is for many, a personal passion. geophysics you may become involved in studies on: We have students investigating their world and plate tectonics (how movement of the Earth’s crustal beyond in areas as diverse as planetary geology, 196 ❐ School of Mines & Metallurgy evolution of life, volcanology, development of , and “importance to mankind” nature in the areas deposition of ore minerals, creation of mountain of geology, geophysics, geochemistry, ground- systems, the beauty of minerals, to name but a few. water and environmental geology, and petroleum The numerous elective courses offered by the geology, economic geology, magmatism and Geology and Geophysics department, as well as crustal evolution. The department has both the courses outside the department, provide our majors, opportunity and the mission, because of the with the guidance of their advisor, the flexibility to strong emphasis on engineering and research in custom design emphasis areas of their choice, the School of Mines and Metallurgy, to focusing in on aspects of the Earth Sciences that are collaborate in projects that transcend the of most interest to them. In this way we ensure our traditional boundaries between the Department majors develop a broad strong understanding in the of Geology and Geophysics and other fundamentals of our diverse discipline while departments. The department also has the preserving this important opportunity to develop opportunity and the mission, because of its their own passion for Geology and Geophysics. location in Rolla, to collaborate in research with The earth sciences have been an integral part of geologists in the Rolla offices of the United UMR since its founding more than a century ago. States Geological Survey and the Missouri Our very active student organizations in geology and Geological Survey. Similarly, collaboration with geophysics are among the oldest in the nation and the geology faculty at UMC and UMKC has been include the Dake Society, American Association of a very active and desirable aspect of our Petroleum Geologists, Society of Exploration mission. Collaboration with universities outside Geophysicists, and the Sigma Gamma Epsilon (Eta Missouri has included Maine, Virginia Tech, and Chapter) . These organizations provide Oklahoma. the opportunity for social and scientific interaction 3. Provide graduates to the mining, petroleum, between students, professional in industry, and groundwater, and environmental industries; to faculty. the Missouri Geological Survey, Rolla offices of The department of geology and geophysics is the National Mapping and Water Resources located in the new V. H. McNutt Hall and it is Division of the U.S. Geological Survey, and to especially well endowed with modern, state-of-the- many companies, for example, Doe Run art equipment for teaching and research in most Company in Viburnum, Missouri, Harbison- areas of the geological sciences. The availability of Walker (RHI) in Fulton, Missouri, Environmental such equipment provides our students with an Protection Agency in Kansas City, Burns & excellent laboratory and field educational experience. McDonnell, Kansas City, McLaren Hart, St. Louis, In addition to the department’s facilities, other earth and many others. science related facilities located in Rolla include the 4. Provide professional service in the fields of Missouri Geological Survey and the U.S. Geological geology, geophysics, geochemistry, and Survey mid-continent mapping division. Cooperative groundwater and environmental geology. Such programs with these agencies provide students with service includes the identification of minerals, opportunities for part time employment and on-the- rocks, and fossils that are sent to the job experience. department, the provision of professional expertise in the areas of geology, geophysics, MISSION STATEMENT geochemistry, and groundwater and environ- mental geology to the public, contributing to the development and operation of professional 1. Provide a high-quality education to students organizations, and, when called upon, assisting from the state of Missouri, the nation, and local and state agencies with the evaluation of abroad. The department provides education geological problems. leading to the B.S., M.S., and Ph.D. degrees in 5. Provide a strong foundation in fundamentals Geology and Geophysics. The department principles of geology and geophysics for provides an education for students who wish to undergraduate students who desire to pursue enter the professional fields in five emphasis opportunities for advanced research in the top areas: 1)geology, 2)geophysics 3)geochemistry, graduate schools across the United States. 4)groundwater and environmental geology, and About 70% of our graduates have continued 5)petroleum geology 6)service courses for their education in graduate programs, including students in related departments (including Arizona State, Auburn, California-Berkeley, geological engineering, , Colorado, Colorado School of Mines, Delaware, petroleum engineering, metallurgical Georgetown, Kansas, MIT, Mississippi, Michigan, engineering, ceramic engineering, civil Michigan State, Oklahoma, Stanford, VPI, and engineering, physics, and chemistry) as well as Washington. many of the departments in the humanities and liberal arts. The department’s expertise and activities makes 2. Engage in research that contributes to the UMR one of the leading research universities in the solution of problems of fundamental, applied, United States in the study of the geochemistry and School of Mines and Metallurgy ❐ 197 mineralogy of nuclear waste disposal, high-resolution Bachelor of Science geophysical characterization for environmental and highway-related problems, 3D seismic applications to Geology and Geophysics petroleum exploration, genesis of Mississippi Valley- type ore deposits, applications of cathodo- FRESHMAN YEAR luminescence petrography to studies of ore genesis, First Semester Credit evolution of petroleum reservoirs, the role of Math 8-Calculus w/Analytic Geometry I ...... 5 magmatism in the thermal and compositional English 20-Exposition and Argumentation...... 3 evolution of the lithosphere, the chemical and History 112,175,176 or Pol Sc 90 ...... 3 microstructural composition of ceramic and Geo 51-Physical Geology ...... 4 metallurgical materials, ore microscopic studies of Chem 4-Intro to Lab Safety ...... 1 mineral deposits, and process mineralogy studies of 16 industrial problems. It provides the only programs in Missouri in geophysics with an emphasis upon Second Semester exploration and environmental applications and in Math 21-Calculus w/Analytic Geometry II ...... 5 palynostratigraphy. The department has provided Chem 1-...... 4 strong programs in economic geology and applied Chem 2-General Chemistry Lab...... 1 geophysics for many years. Geo 52-Evolution of the Earth ...... 4 Elective1 (Phys Ed,Music,etc.) ...... 1 Faculty 15 Professors: SOPHOMORE YEAR Neil L. Anderson3, Ph.D., Calgary First Semester Credit Sheldon Grant (Emeritus), Ph.D., Utah Math 22-Calculus w/Analytic Geometry III...... 4 Jay Gregg3 (Department Chair), Ph.D., Chem 3-General Chemistry...... 3 Michigan State Geo 113-Mineralogy & ...... 4 Richard Hagni2,3, (Curators' Professor Emeritus), Econ 121-Prin of Micro or 122-Prin of Macro...... 3 Ph.D., University of Missouri-Columbia English Literature Elective ...... 3 Geza Kisvarsanyi (Emeritus), Ph.D., University of 17 Missouri-Rolla Robert Laudon2,3 Ph.D., University of Texas @ Austin Second Semester Gerald Rupert (Emeritus), Ph.D., University of Stat 215-Engineering Statistics2 ...... 3 Missouri-Rolla Geo 130-Petrology...... 4 Alfred Spreng2,3 (Emeritus), Ph.D., Wisconsin Geop 381-Global Tectonics ...... 3 Hum/Soc Sci Elective ...... 3 Associate Professors: Cmp Sc 53,71 or 73 & 77 (program language) ...... 3 Estella A. Atekwana, Ph.D., Dalhousie University 16 Francisca Oboh-Ikuenobe3, Ph.D., Cambridge JUNIOR YEAR Richard Rechtien (Emeritus), Ph.D., First Semester Credit Washington University Physics 23-Engineering Physics I3 ...... 4 Assistant Professors: Geo 223-Stratigraphy & Sedimentation ...... 3 Steven J. Cardimona, Ph.D., Geo 224-Stratigraphy lab ...... 1 University of Texas @ Austin Elective (Science & Eng)4...... 3 John P. Hogan, Ph.D., Virginia Poly Tech. Hum/Soc Sci Elective ...... 3 David J. Wronkiewicz, Ph.D., New Mexico Institute of Elective (Geo & Geop)5...... 3 Mining and Technology 17 Adjunct Professors: Second Semester John Burst, Ph.D., University of Missouri-Rolla Physics 24-Engineering Physics II3...... 4 Waldemar M. Dressel, B.S., Mining Engineering, Geo 220-Structural Geology...... 4 University of Missouri-Rolla w/Geology emphasis Elective (Geo & Geop)5...... 3 Charles Robertson, M.A., Hum/Soc Sci Elective ...... 3 University of Missouri-Columbia 14 James E. Vandike, M.S., South Dakota School of Mines SUMMER OF JUNIOR YEAR Credit James H. Williams, Ph.D., Geo 373-Field Geology ...... 3 University of Missouri-Rolla Geo 374-Advanced Field Geology ...... 3 6 1 Registered Professional Engineer 2 Certified Professional Geologist 3 Registered Geologist 198 ❐ School of Mines & Metallurgy

SENIOR YEAR In addition, to complete degree requirements with First Semester Credit an emphasis area in Groundwater and Environmental English 160-Technical Writing ...... 3 Geology students must complete 4 courses (12 hours Elective (Science & Engineering)4 ...... 6 minimum) to be selected from an approval list and Elective (Geo & Geop)5...... 3 with guidance from student’s advisor. Elective1 ...... 3 15 General Geology Emphasis Area The following courses are required: Credit Second Semester Geo 227 Systematic Paleontology ...... 3 Electives (Science & Engineering)4 ...... 9 5 Geo 275 Introduction to Geochemistry...... 3 Electives (Geo & Geop) ...... 6 Geo 234 Petrology and Petrography ...... 3 Geo 210-Seminar ...... 1 Geo 294 Metallic and Industrial Mineral Deposits...... 3 16 Geo 340 Petroleum Geology ...... 3 16 Total 15 1 Elective hours may be taken in any combination of credit hours (1,2,3 etc.) and can include any In addition to complete degree requirements with an course offerings at the University. emphasis area in General Geology students must 2 Stat 213, or Ge Eng 315 may be taken instead of complete 4 courses (12 hrs. minimum) to be Stat 215. selected from an approved list and with guidance 3 Students may substitute Physics 21 and 22 for from student’s advisor. Physics 23 and Physics 25 and 26 for Physics 24. 4 All Geology/Geophysics students, including those taking emphasis areas, must complete at least Geophysics Emphasis Area 18 hours of course work in science (which may The following courses are required:Credit include additional Geology/Geophysics courses), Math/Stat 204-Elementary Differential Equations ...... 3 mathematics, and/or engineering in addition to Math/Stat 325-Partial Differential Equations ...... 3 Geology/Geophysics, mathematics, and science Cmp Sc 228-Intro to Numerical Methods...... 3 courses required for the basic program. 15 Geop 286-Intro to Geophysical Data Analysis ...... 3 hours of this course work must be numbered 100 Geop 382-Environmental and Eng Geophysics ...... 3 or above. Geop 336-Geophysical Field Methods...... 3 5 All Geology/Geophysics students, including those Geop 385-Exploration and Dev Seismology ...... 3 taking emphasis areas, must complete at least Total 21 15 hours of course work numbered 200 or above in the Geology/Geophysics department, in In addition, to complete degree requirements with addition to the required Geology/Geophysics an emphasis area in Geophysics students must courses. Of these courses two must be from complete 2 courses (6 hrs. minimum) to be selected Geophysics 285,286,380,382,389; or one or the from an approved list and with guidance from other of Geology 375 or 376. student’s advisor.

Core Curriculum Groundwater and (Taken by all students in Geology & Geophysics.) Environmental Geology Credit Emphasis Area Geo 51-Physical Geology ...... 4 The following courses are required: Credit Geo 52-Evolution of the Earth ...... 4 Geo 275 Intro to Geochemistry...... 3 Geo 113-Mineralogy & Crystallography...... 4 Geo 375 Applied Geochemistry ...... 3 Geo 130-Petrology...... 4 Geo 376 Aqueous Geochemistry ...... 3 Geo 210-Seminar ...... 1 Ge Eng 335 Environmental Geological Eng or Geo 220-Structural Geology...... 4 Ge Eng 331 Subsurface Hydrology ...... 3 Geo 223-Stratigraphy & Sedimentation ...... 3 Ge Eng 337 Geol Aspects of Haz Waste Mgt...... 3 Geo 224-Stratigraphy Lab ...... 1 Total 15 Geop 381-Global Tectonics ...... 3 Geo 373-Field Geology ...... 3 In addition, to complete degree requirements with Geo 374-Advanced Field Geology ...... 3 an emphasis area in Groundwater and Environmental Total 34 Geology students must complete 4 courses (12 hrs. Geochemistry Emphasis Area minimum) to be selected from an approval list and The following courses are required:Creditwith guidance from student’s advisor. Geo 234-Petrology & Petrography...... 3 Geo 275-Intro to Geochemistry ...... 3 Petroleum Geology Emphasis Area Geo 294-Metallic & Industrial Mineral Deposits ...... 3 The following courses are required: Credit Geo 376-Aqueous Geochemistry...... 3 Geo 227-Systematic Paleontology ...... 3 Total 12 Geo 275-Intro to Geochemistry ...... 3 School of Mines and Metallurgy ❐ 199

Geo 324-Adv Stratigraphy & Basin Evolution ...... 3 forms and field relationships of rocks. Course Geo 338-Computer Mapping...... 2 designed for non-geology majors, credit will Geo 340-Petroleum Geology...... 3 not count towards a geology-geophysics Geo 385-Exploration & Dev Seismology ...... 3 degree. Prerequisites: Chem 1 and Chem 2 or Pe Eng 232-Well Logging I ...... 3 Chem 5; Ge Eng 50 or Geo 51 Total 20 130 Petrology [Lect 3.0 and Lab 1.0] A study of the megascopic characteristics and field In addition, to complete degree requirements with relationships of rocks and their use in rock an emphasis area in Petroleum Geology students hand specimens is emphasized. Prerequisite: must complete two courses (6 hours minimum) to be Geo 113. selected from an approval list and with guidance 200 Special Problems [Variable] Problems or from student’s advisor. readings on specific subjects or projects in the department. Consent of instructor required. Minor Curriculum in Geology 201 Special Topics [Variable] This course is The minor will consist of 12 hours of geology in designed to give the department an addition to those taken to satisfy the student’s major opportunity to test a new course. Variable title. curriculum. Choice of courses for the minor must be 210 Seminar [Variable] Discussion of current approved by both the student’s major and minor topics. Required for two semesters during departments. Suggested courses: senior year. 211 Optical Mineralogy [Lab 2.0] The optical Geo 51 (3) Geo 275(3) properties of minerals and their use in mineral Geo 52 (4) Geo 294(3) identification. The identification of minerals Geo 113(4) Geo 324(3) using the petrographic is taught Geo 220(4) Geo 373(3) with emphasis on the oil immersion method. Geo 223(3) Geop 380(3) Prerequisite: Geo 113. Geo 254(2) Geop 382(3) 220 Structural Geology [Lect 3.0 and Lab 1.0] A study of the of the earth. Geologic structures, criteria for recognition, solution of GEOLOGY COURSES structural problems, and properties and behavior of rocks under different geologic 051 Physical Geology [Lect 3.0 and Lab 1.0] conditions are emphasized. Field trip fee Materials of the earth's crust, structures, and required. Prerequisite: Geo 51 or Ge Eng 50. geologic features of the surface. Laboratory 223 Stratigraphy and Sedimentation [Lect 3.0] study of common minerals and rocks, and Principles of physical stratigraphy, topographic and geologic maps. One field trip bio-stratigraphy and introductory sedimen- at student expense is required. tation. Introduction to depositional systems, 052 Evolution of the Earth [Lect 3.0 and Lab 1.0] facies, unconformaties, stratigraphic nomen- A survey of the physical and biological history clature and correlation. One field trip at of the earth from the coalescence of the solar student expense is required. Prerequisite: system to the present. A one day field trip at Accompanied or preceded by Geo 130. student expense is required. Prerequisites: 224 Stratigraphy Lab [Lab 1.0] This course Recommend Ge Eng 50 or Geo 51 or Bio 110 re-enforces the principles of stratigraphy and but not required. sedimentation through the use of "hands-on" 101 Special Topics [Variable] This course is laboratory procedures such as seive and designed to give the department an pipette analyses, correlation problems, fence opportunity to test a new course. Variable title. diagrams and stratigraphic maps. One field trip 113 Mineralogy and Crystallography [Lect 3.0 at student expense is required. Prerequisite: and Lab 1.0] An introduction to the study of Concurrent with Geo 223. minerals, including their classification, 227 Systematic Paleontology [Lect 2.0 and Lab crystallography, morphology, chemistry, use, 1.0] Introduction to the study of fossil occurrence, and systematic identification by invertebrates. Emphasis of the course is on means of their physical and chemical fossil morphology, classification, and properties. Prerequisites: Chem 1 and Chem environmental relationships. Prerequisite: Geo 2. 52. 125 Physical Mineralogy and Petrology [Lect 234 Petrology and Petrography [Lect 2.0 and 2.0 and Lab 1.0] An introduction to the study Lab 1.0] The chemical composition, of physical mineralogy and petrology, mineralogy, texture, mode of occurrence, and overviewing systematic determination of origin of rocks. The laboratory deals with the minerals and rocks by means of their physical study of rock types using the petrographic properties. Includes the recognition of crystal 200 ❐ School of Mines & Metallurgy

microscope. Two field trips at student expense 312 Ore Microscopy [Lect 1.0 and Lab 2.0] A are required. Prerequisite: Geo 211. study of polished sections of minerals and ores 254 Map and Airphoto Interpretation [Lect 1.0 under reflected light. Includes the preparation and Lab 1.0] Geologic interpretation from of polished sections, the identification of ore topographic maps and aerial photographs, in minerals, and the study of the textures, order to develop geologic maps, geologic associations, and alterations of ore minerals. cross-sections, structure contour maps, and Prerequisite: Geo 113. other means of depicting geology. 324 Advanced Stratigraphy and Basin Prerequisites: Geo 52 and 220. Evolution [Lect 3.0] Advanced topics in 260 Methods of Karst Hydrogeology [Lect 3.0] sedimentary geology including: tectonic This course is designed to familiarize geologists controls on sedimentary basin development, and geological engineers with karst global sequence stratigraphy, regional facies hydrogeology. It will include the formation of and diagenetic patterns, basin hydrogeology, karst, aquatic geochemistry in karst areas, thermal evolution of basins and distribution of identifying karst features and understanding economic resources. Prerequisites: Geo 223, their hydrologic significance. The techniques 220, preceded or accompanied by Geo 275 for investigating groundwater in karst areas recommended. will be emphasized, and will include 325 Advanced Physical Geology [Lect 3.0] groundwater tracing using fluorescent dyes. History and materials of the Earth's crust, Several field trips at student expense will be structures and geological features of the required. Prerequisites: Geo 51 or Ge Eng 50 surface. Study of common minerals and rocks, and Geo 223. topographic and geologic maps, depositional 275 Introduction to Geochemistry [Lect 3.0] systems, sedimentary classification systems. Basic principles of geochemistry and trace Prerequisite: Consent of instructor. element analysis. Distribution and mobility of 329 Micropaleontology [Lect 2.0 and Lab 1.0] elements in igneous, sedimentary, and Introduction to the preparation and study of metamorphic rocks. Prerequisites: Chem 1 microscopic fossils. Prerequisite: Geo 227. and 3 or Chem 8. 332 Depositional Systems [Lect 3.0] Depositional 286 Introduction to Geophysical Data Analysis systems and their interpretation using seismic [Lect 3.0] The principles of time series and stratigraphy. Emphasis on deltaic formations, space series data analysis, digitization and submarine fans, carbonate depositional aliasing, frequency-wavenumber spectra, environments and their recognition using digital filtering, linear system theory, complex reflection seismic techniques. Field trip fee number spaces, vector spaces, and matrix required. Prerequisite: Geo 223. methods. Prerequisites: Cmp Sc 63 & 73, 338 Computer Mapping in Geology [Lect 1.0 and Physics 25, & Math 204 (or concurrent Lab 1.0] This course teaches the basics of registration). computer gridding, contouring, digitization, 294 Metallic and Industrial Mineral Deposits volumetrics and generation of three [Lect 3.0] Basic processes involved in the dimensional diagrams both on the personal formation of metallic and industrial mineral computer and on the UMR mainframe. deposits illustrated by typical examples of Strengths and weaknesses of various software deposits from throughout the world. packages, including gridding algorithms and Exploration and economic factors in mineral editing packages, are compared. exploration and development are reviewed. Prerequisites: Cmp Sc 73, Geo 51. Two all day field trips at student expense 340 Petroleum Geology [Lect 2.0 and Lab 1.0] required. Prerequisites: Geo 51 and 113. Principles of origin, migration, and 300 Special Problems [Variable] Problems or accumulation of oil and gas. The laboratory readings on specific subjects or projects in the introduces the procedures used for exploration, department. Consent of instructor required. and development of hydrocarbon resources. 301 Special Topics [Variable] This course is Prerequisite: Geo 220. designed to give the department an 341 Applied Petroleum Geology [Lect 1.0 and opportunity to test a new course. Variable title. Lab 2.0] The principles of petroleum geology 305 Hydrogeology [Lect 3.0] This course are applied in solving hydrocarbon exploration discusses geologic aspects of major surface and developmental problems. Geological and and subsurface hydrologic systems of North economical techniques for evaluating America. Chemical and physical relationships hydrocarbonbearing reservoirs are presented, between groundwater and fractures, faults, with methods for decision making under karst, subsurface pressures, mineral deposits conditions of extreme uncertainty. plus both contaminant and hydrocarbon Prerequisite: Geo 340. migration are discussed. Prerequisites: Ge Eng 50 or Geo 51, Geo 223 recommended. School of Mines and Metallurgy ❐ 201

345 Radioactive Waste Management and method. The laboratory utilizes both modeled Remediation [Lect 3.0] Sources and classes and actual seismic data. Prerequisites: Geo of radioactive waste, long-term decay, spent 220, Geo 223 or permission of instructor. fuel storage, transport, disposal options, 386 Wave Propagation [Lect 3.0] A study of regulatory control, materials issues, site Hamilton's principle and energy theorems, selection and geologic characterization, fundamentals of plane wave theory, waves in containment, design and monitoring stratified fluids, elastic waves in solids, requirements, domestic and foreign waste electromagnetic and hydromagnetic radiation, disposal programs, economic and and Allens's functions and point sources. environmental issues; history of disposal Prerequisites: Geop 286 and 321. actions, and conduct of remedial actions and 387 Acquisition of Seismic Data [Lect 2.0 and cleanup. Prerequisite: Math 204. (Co-listed Lab 1.0] Theory and application of the with Nu Eng 345) acquisition of seismic data. Determination of 373 Field Geology [Lab 3.0] Field practice in recording and energy source array responses, geologic mapping and interpretation in the evaluation of energy sources, and the design of Western United States using topographic base a complete acquisition system. Prerequisite: maps and aerial photos. Emphasizes the Geop 286 and 380 or permission of instructor. description and interpretation of stratigraphic 390 Undergraduate Research [Variable] sections, sedimentary and tectonic structures. Designed for the undergraduate student who Prerequisite: Two Geology courses. wishes to engage in research. Not for graduate 374 Advanced Field Geology [Lab 3.0] Detailed credit. Not more than six (6) credit hours field work in areas related to the projects of allowed for graduation credit. Subject and Geology 373. Courses to be taken the same credit to be arranged with the instructor. summer. A written report on the full summer's 394 Coal Petrology [Lect 3.0] Formation, projects is required. Prerequisite: Geo 373. composition, and properties of coals. 375 Applied Geochemistry [Lect 2.0 and Lab 1.0] Discussion of the geology of selected coal Application of the principles and techniques of deposits, the analysis of coal, and the optical geochemistry to mineral exploration. identification of coal minerals. Prerequisite: Prerequisites: Geo 275 and Geo 113. Permission of instructor. 376 Aqueous Geochemistry [Lect 3.0] Studies of the interaction of water with minerals and organic materials at low temperatures; GEOPHYSICS COURSES including processes affecting the migration of elements (alteration, precipitation, and 201 Special Topics [Variable] This course is adsorption), the influence of geochemical designed to give the department an processes on water composition, weathering, opportunity to test a new course. soil formation, and pollution. Prerequisite: Geo 285 Geophysical Imaging [Lect 2.0 and Lab 1.0] 275. A study of the major geophysical methods 383 Electrical Methods in Geophysics [Lect 3.0] applicable to shallow engineering and The theory and for environmental geoscience. Topics include the measurements of the electrical properties of background theory and practical application of the earth. Includes passive and active gravity, magnetics, radiometrics, resistivity, techniques, the advantages and disadvantages induced polarization, spontaneous potential, of the various techniques, and geologic reflection and refraction seismics, ground interpretations of electrical soundings. Several penetrating radar, electromagentics, and weekends are spent making a variety of borehole logging methods. Prerequisites: electrical surveys of local features. Physics 24; Ge Eng 50 or Geo 51. Prerequisites: Math 325 and Geop 321. 286 Introduction to Geophysical Data Analysis 384 Gravity and Magnetic Methods [Lect 3.0] [Lect 3.0] The application of time series and The theory of gravity and magnetic surveying spatial series analysis techniques to for geologic bodies of economic interest. geophysical data. Topics covered include Includes methods for the calculation of size digitization and aliasing of geophysical signals, and depth of bodies with different degrees of frequency and wavenumber spectra, digital magnetization and density. Prerequisites: filtering and linear systems theory. Math 325 and Geop 321. Prerequisites: Cmp Sc 73 and 77, Physics 25 and Math 22. 385 Exploration and Development Seismology [Lect 2.0 and Lab 1.0] Principles of reflection 300 Special Problems [Variable] Problems or seismology as applied to the delineation of readings on specific subjects or projects in the geologic structures and the determination of department. Consent of instructor required. stratigraphy and lithology. Emphasis on both the capabilities and limitations of the seismic 202 ❐ School of Mines & Metallurgy

301 Special Topics [Variable] This course is 385 Exploration and Development Seismology designed to give the department an [Lect 2.0 and Lab 1.0] Principles of reflection opportunity to test a new course. Variable title. seismology as applied to the delineation of 321 Potential Field Theory [Lect 3.0] The geologic structures and the determination of mathematics and physics of gravitational, stratigraphy and lithology. Emphasis on both magnetic, and electrical fields of the earth as the capabilities and limitations of the seismic derived from potential functions, with method. The laboratory utilizes both modeled applications to practical problems. The and actual seismic data. Prerequisite: Math theorems of Laplace, Poisson, Gauss, and 22. Green and their applications to geophysics are 386 Wave Propagation [Lect 3.0] A study of presented. Prerequisite: Accompanied or Hamilton's principle and energy theorems, preceded by Math 325. fundamentals of plane wave theory, waves in 336 Geophysical Field Methods [Lect 2.0 and stratified fluids, elastic waves in solids, Lab 1.0] Imaging of selected subsurface and electromagnetic and hydromagnetic radiation, engineering features by various geophysical and Allen's functions and point sources. methods. Special emphasis on ground Prerequisites: Geop 281, 321. penetrating radar and magnetic methods; and 387 Acquisition of Seismic Data [Lect 2.0 and the acquisition and reduction of associated Lab 1.0] Theory and application of the data. One field trip at student expense acquisition of seismic data. Determination of required. Prerequisite: Geop 384 or permission recording and energy source array responses, of instructor. evaluation of energy sources, and the design of 380 Seismic Stratigraphy [Lect 2.0 and Lab 1.0] a complete acquisition system. Prerequisites: A study of the seismic expression of Geop 286, 380. depositional models. Reflection patterns and 388 Geophysical Instrumentation [Lab 1.0] reflection amplitudes are interpreted to Field and laboratory practice in the use of determine bed thicknesses, fluid content, geophysical instrumentation. Techniques of depositional environment, and lithology. geophysical data reduction and interpretation Special data acquisition and processing are also covered. May be taken more than once techniques are examined. Prerequisites: Geop for credit with Geop 383 and Geop 384. 385, Geo 220, 223. Prerequisite: Concurrent registration in Geop 381 Global Tectonics [Lect 3.0] An integrated 382, 283 or 384. view of the Earth's structure and dynamics with 389 Seismic Data Processing [Lect 2.0 and Lab an emphasis on information gained through 1.0] Introduction to seismic data processing. geophysical methods. Topics include Topics to be covered include statics seismology, heat flow, gravity, rheological and corrections, filtering, velocity analysis, compositional structure, plate motions and deconvolution, stacking and migration. intermotions, and mantle driving mechanisms Prerequisites: Math 22 and Geop 286 or Geop for plate tectonics. Prerequisites: Physics 23 385. and 24, Geo 220. 390 Undergraduate Research [Variable] 382 Environmental and Engineering Designed for the undergraduate student who Geophysics [Lect 2.0 and Lab 1.0] An wishes to engage in research. Not for graduate introduction to the theory and application of credit. Not more than six credit hours allowed the gravity, magnetic, resistivity, self-potential, for graduation credit. Subject and credit to be induced polarization and electromagnetic arranged with the instructor. methods as applied to the solution of engineering and environmental problems. Prerequisite: Math 22. 383 Electrical Methods in Geophysics [Lect 1.0 and Lab 2.0] The theory and instrumentation for measurements of the electrical properties of the earth. Includes passive and active techniques, the advantages and disadvantages of the various techniques, and geologic interpretations of electrical soundings. Several weekends are spent making a variety of electrical surveys of local features. Prerequisites: Math 325 and Geop 285 or Geop 382. School of Mines and Metallurgy ❐ 203

The properties of all metallic components are Metallurgical related to the elemental composition of the , and the manner in which the various elements are Engineering combined as microscopic structures. The study of the microstructure of metals and alloys and the Bachelor of Science control of their properties are the responsibility of Master of Science the physical metallurgist. The development of -resistant stainless , ultra-lightweight Doctor of Philosophy alloys for aircraft, wear-resistant alloys for engines, and shape-memory alloys for space structures are Emphasis areas at the bachelor of science level examples of the work of the physical metallurgist. in , manufacturing metallurgy, The heat treatment of alloys is an area of importance and physical metallurgy. for both physical and manufacturing metallurgy. In addition, the investigation of material failures and The development of mankind has frequently the monitoring of service life are tasks that are been linked to the ability to use metals from the performed by physical and manufacturing earth’s crust. Metallic materials are found in all metallurgists. areas of the world, and are in use in virtually every At UMR, students do not have to select an industry. Thus their production is vital to the emphasis area and may simply select technical economy and to the continued development of the electives appropriate to their interests. However, human race. Metallurgical Engineering is a broad there are prescribed combinations of technical discipline that studies metals extraction from electives which fit the emphasis areas of chemical, minerals and waste and recycled materials, the manufacturing, and physical metallurgy. The production of components from metals and alloys, department has also introduced a materials minor and the design of metallic materials to enable program in conjunction with Ceramic Engineering. appropriate physical and chemical properties to be Students are encouraged to undertake summer achieved. and cooperative training employment with approved UMR has one of the few metallurgical companies to obtain appropriate departments in the United States with experience while supplementing their academic the capability of covering the whole spectrum of studies and incomes. metallurgical activities. It is the only such The department is housed in McNutt Hall and has department in Missouri and in any of the contiguous outstanding facilities for classroom and laboratory states. learning. The department has recently acquired A graduate of metallurgical engineering may technologically advanced equipment for student work in a variety of areas. The chemical metallurgist laboratories and for research. Examples of the new is involved in the recovery of metals from mineral equipment include a resistance melting furnace, a ores and recycled material, utilizing physical and spark spectrographic analyzer, a sputtering unit, and chemical processes. Typical processes include a thermal spray unit. The department has three mineral beneficiation (magnetic separation of electronmicroscopes, a well equipped metals casting ores), ( of ores), and joining laboratory, comprehensive metals hydrometallurgy (leaching of ores), and deformation and testing facilities, and excellent elecrometallurgy (electrolysis of aluminum ores). computer laboratory with the addition of new The modern challenge which faces the chemical software and computers, and improved network metallurgist is to recover the metallic values from access. The undergraduate curriculum emphasizes ores of decreasing grade; and to do this with a laboratory activities to ensure that graduates receive minimum of energy while safeguarding the a hands-on education. Additional information is environment. available at http://www.umr.edu/~meteng. The manufacturing metallurgist is concerned with the shaping and joining of metallic materials into MISSION STATEMENT appropriate forms for use in , tools, , and implements. Typical shaping The mission of the department is to provide a processes include casting, , extrusion, , quality, comprehensive undergraduate and graduate and . The pressing of bodies, casting of education in the traditional areas of metallurgical engine blocks, drawing of wire, rolling of I-beams, engineering. The major program goal is to produce extrusion of tube, and forging of crank shafts are a Bachelor of Science graduate with a sound examples of manufacturing metallurgy. Powder fundamental knowledge and extensive hands-on- metallurgy is a relatively new manufacturing technical, communication, and leadership skills, technique that is finding increased application. The capable of contributing in any technical area control of production rate and quality are especially associated with metallurgy. The department is also important factors in this emphasis area of committed to a strong graduate program, which metallurgy. ensures significant research activity, an active and 204 ❐ School of Mines & Metallurgy involved faculty, and a robust, healthy environment freshman program requirement and to transfer to for education. The provision of service course work the department in semester 3 (b) the department for students in other engineering disciplines is also in recommends the Chemistry 1, 2 and 3 sequence, important goal, as is interaction with professional and (c) metallurgical engineering preference societies and industry to promote continuing students are required to take Mt Eng 001 in the education, research, and technical information Second Semester of their freshman year. transfer. The utilization of the departmental resources to assist the state agencies and industry of SOPHOMORE YEAR Missouri and the mid-west is an integral part of the First Semester Credit departmental mission. Physics 24-Engineering Physics II ...... 4 Math 22-Calculus w/Analytic Geometry III ...... 4 Faculty Mt Eng 121-Metallurgy for Engineers ...... 3 Mt Eng 125-Fundamentals of Chemical Metallurgy...... 2 Professors: Mt Eng 126-Computer Application in Mt Eng ...... 3 Donald R. Askeland (Distinguished Teaching 16 Professor Emeritus), Ph.D., Michigan Anton Brasunas1 (Emeritus), Sc.D., Massachusetts Second Semester Institute of Technology Hum/Soc Sci-Elective*...... 3 John Beverly Clark (Emeritus), Ph.D., Carnegie Math 204-Elementary Differential Equations ...... 3 Institute of Technology Mt Eng 215-Fundamentals of Metal Behavior ...... 3 Fred Kisslinger1 (Emeritus), Ph.D., Cincinnati Mt Eng 216-Metals Characterization Lab ...... 1 Ronald A. Kohser (Associate Dean of Mines & Mt Eng 281-Metallurgical Thermodynamics I...... 3 Metallurgy), Ph.D., Lehigh Hum/Soc Sci-Econ 121-Principles of Microeconomics H. Philip Leighly, Jr.1,2 (Emeritus), Ph.D., Illinois Or Econ 122-Principles of Macroeconomics ...... 3 Arthur E. Morris (Emeritus), Ph.D., 16 Pennsylvania State Thomas J. O’Keefe (Curators' Emeritus), Ph.D., UMR Junior Year David G. C. Robertson2, Ph.D., University of New First Semester Credit South Bas En 50 or Bas En 51-Mech Statics...... 3 John L. Watson (Department Chair), Ph.D., Bristol Mt Eng 202- Lab...... 1 Harry W. Weart (Emeritus), Ph.D., Wisconsin Mt Eng 203-Intro to Extractive Metallurgy ...... 3 Mt Eng 204-Transport Phenomena in Metallurgy ...... 3 Mt Eng 217-Metals Microstructural Development ...... 3 Associate Professors: Mt Eng 218-Metals Structures & Properties Lab...... 1 Joseph W. Newkirk, Ph.D., University of Virginia Hum/Soc Sci-English 60-Writing & Research or Matthew J. O’Keefe, Ph.D., Illinois English 160-Tech Writing or SP&M S 85-Principles of Kent D. Peaslee1, Ph.D., UMR Speech ...... 3 Christopher W. Ramsay, Ph.D., 17 Colorado School of Mines Mark E. Schlesinger1, Ph.D., University of Arizona Second Semester David C. Van Aken1, Ph.D., Illinois Bas En 110-Mechanics of Materials...... 3 Elective* ...... 3 Assistant Professor: Mt Eng 221-Principles of Materials Processing ...... 3 Rajiv S. Mishra, Ph.D., Sheffield Mt Eng 222-Metals Processing ...... 1 Mt Eng 241-Principles of Minerals Processing ...... 2 Teaching Associate: Mt Eng 355-Metallurgical Thermodynamics II ...... 3 F. Scott Miller, Ph.D., UMR Technical Elective*...... 3 18 1 Registered Professional Engineer SENIOR YEAR 2 Chartered Engineer, United Kingdom First Semester Credit Advanced Science Elective*...... 3 Bachelor of Science Mt Eng 354-Mt Process Simulation & Control ...... 2 Mt Eng 315-Mt Process Design Principles...... 2 Metallurgical Engineering Hum/Soc Sci Electives* ...... 3 Technical Electives* ...... 6 FRESHMAN YEAR (must include 1 credit hour of lab) ...... 16 See Freshman Engineering Program, but note that (a) as 12 credit hours of Hum/Soc Sci electives are included in semesters 3-8, metallurgical engineering students need only take one Hum/Soc Sc elective, and hence only 32 credit hours of the 35 credit hours listed, in the first two semesters to satisfy the School of Mines and Metallurgy ❐ 205

Second Semester Mt Eng 321-Metal Deformation Processes Mt Eng 316-Mt Design Project ...... 2 Mt Eng 329-Material Selection Hum/Soc Sci Electives* ...... 6 Mt Eng 331,332-Steels and Their Treatments Technical Electives* ...... 8 Mt Eng 333-Nonferrous Alloys 16 Mt Eng 361-Alloying Principles *Electives must be chosen from approved course Mt Eng 368-Physical Metallurgy III Lab listings in consultation with department academic Mt Eng 385-Mechanical Metallurgy advisor. Mt Eng 333-Non-Ferrous Alloys

NOTE: All Metallurgical Engineering students must Materials Minor Curriculum take the Fundamentals of Engineering Examination To enable students outside of Metallurgical prior to graduation. A passing grade on this Engineering to receive instruction in the field of examination is not required to earn a B.S. degree, materials, a Materials Minor is available. To qualify however, it is the first step toward becoming a for the minor, a student must take the following registered professional engineer. This requirement, classes: together with the department’s Senior Assessment, Mt Eng 211,215,217,350,360 is part of the UMR assessment process as described Cr Eng 102,203,242 in Assessment Requirements found elsewhere in this Chem 381 catalog. Students must sign a release form giving the University access to their Fundamentals of Engineering Examination score. METALLURGICAL ENGINEERING Appropriate course electives for the Metallurgical Engineering Emphasis Areas. COURSES

Chemical Metallurgy: 001 Introduction to Metallurgical Engineering Mt Eng 242-Mineral Process Lab [Lect 1.0] Introduction to the field of Mt Eng 351-Flotation and Hydrometallurgy metallurgical engineering with specific Mt Eng 353-Particle Mechanics and Design reference to the emphasis areas of extractive, Mt Eng 363-Electrometallurgy of Corrosion and manufacturing and physical metallurgy. The Deposition Processes course will include lectures, videos and field Mt Eng 303-New Developments in Chemical trips to local industry. Metallurgy 101 Special Topics [Variable] This course is Cmp Sc 228-Intro to Numerical Methods designed to give the department an Cr Eng 364-Refractories opportunity to test a new course. Variable title. Mt Eng 356-Principles of Extractive Metallurgy 121 Metallurgy for Engineers [Lect 3.0] Introduction to the structure and properties of Physical Metallurgy: metals and alloys and to processes used to Cmp Sc 228-Intro to Numerical Methods modify the structure and properties of metallic Mt Eng 341-Nuclear Materials I materials, including alloying, deformation and Mt Eng 361-Alloying Principles . Prerequisite: Chem 1. Mt Eng 368-Physical Metallurgy III Lab 125 Fundamentals of Chemical Metallurgy [Lect Mt Eng 313- Microscopy 2.0] Survey of primary and secondary Mt Eng 385-Mechanical Metallurgy resources for the production of metals. Study Physics 107-Intro to Modern Physics of flowsheets for the common metals. Heat and Physics 307-Modern Physics II mass balance for unit extractive processes, Physics 381-Elem Solid State Physics with emphasis on the chemical behavior of Physics 311-Thermal Physics metals. Process technology and economics of Cr Eng 284-Electrical Properties of Ceramics production. Prerequisite: Chem 3. Cr Eng 391,392- X-ray Diffraction & Fluorescence 126 Computer Application in Metallurgical El Eng 221-Principles of Devices Engineering [Lect 2.0 and Lab 1.0] EMech 321-Intermediate Mechanics of Materials Introduction to the use of microcomputers for EMech 336-Fracture Mechanics simulation, data analysis including statistics, Mt Eng 375-Metallurgical Failure Analysis data acquisition from laboratory instruments, and automatic process control systems. The Manufacturing Metallurgy: course will provide instruction in programming and software usage, and the laboratory will Cr Eng 315-Organic Additives in Ceramic Processing enable students to fully utilize the potential of Cr Eng 364-Refractories Mt Eng 305,306- microcomputer in later courses. Mt Eng 307,308-Metals Casting Mt Eng 311-Metals Joining 206 ❐ School of Mines & Metallurgy

200 Special Problems [Variable] Problems or processing on design. Includes: casting, readings on specific subjects or projects in the , shaping, inspection and testing. department. Consent of instructor required. Prerequisite: Mt Eng 121. 201 Special Topics [Variable] This course is 222 Metals Processing [Lab 1.0] Laboratory study designed to give the department an of the methods of processing of metals. opportunity to test a new course. Variable title. Prerequisite: Accompanied or preceded by Mt 202 Extractive Metallurgy Laboratory [Lab 1.0] Eng 221. A series of laboratory experiments designed to 241 Principles of [Lect 2.0] illustrate the principles of pyrometallurgy, Introduction to the principles of mineral hydrometallurgy, and electrometallurgy. processing including mineral resources; particle Prerequisites: Preceded or accompanied by Mt comminution, classification, separation and Eng 203; preceded or accompanied by Chem 4 dewatering; flowsheet and equipment design. or an equivalent training program approved by Prerequisites: Mt Eng 121, 125. UMR. 242 Mineral Processing Laboratory [Lab 1.0] An 203 Introduction to Extractive Metallurgy [Lect introductory laboratory to provide instruction in 3.0] Production and of metals by sampling, classification, comminution, mineral pyrometallurgy, hydrometallurgy, and separation and dewatering. Prerequisite: electrometallurgy. Emphasis on heat and mass Accompanied or preceded by Mt Eng 241. balance calculations for the unit processes of 281 Metallurgical Thermodynamics I [Lect 3.0] metals extraction. Introduction to the Thermodynamic laws and thermodynamic principles of combustion, heat utilization and functions and their relation to problems of recovery. Prerequisite: Mt Eng 281 or Cr Eng metallurgical interest, , 259 or Ch Eng 143. thermophysics, and chemical or phase 204 Transport Phenomena in Metallurgy [Lect equilibria. Prerequisites: Mt Eng 125 or Chem 3.0] The application of the principles of fluid 52; Mt Eng 126 or Cmp Sc 77. flow and to the solution of 300 Special Problems [Variable] Problems or practical problems in metallurgical engineering. readings on specific subjects or projects in the Prerequisite: Physics 23. department. Consent of instructor required. 211 Metallurgy Laboratory [Lab 1.0] Introduction 301 Special Topics [Variable] This course is to , mechanical testing and designed to give the department an modification of material properties through opportunity to test a new course. Variable title. structural development; Corrosion; 303 New Developments in Chemical Metallurgy Solidification. Prerequisite: Senior standing in [Variable] Survey of selected modern Cr Eng. processes for the production of metals, the 215 Fundamentals of Materials Behavior [Lect treatment of wastes, and recycling of metal 3.0] An introduction to crystal structure, values. Processes are studied with respect to deformation, defects and thermal treatment; raw materials, chemical reactions, energy mechanical testing; fracture; and consumption, process intensity, yield and . Prerequisite: Mt Eng 121. environmental impact. Prerequisite: Mt Eng 216 Metals Characterization Laboratory [Lab 203. 1.0] Introduction to the characterization of 305 Nondestructive Testing [Lect 2.0 and Lab metals through the use of optical microscopy, 1.0] Principles and application of various x-ray diffraction, transmission electron means of nondestructive testing of metallic microscopy and mechanical testing. materials. Radiological inspection methods, Prerequisites: Mt Eng 121, accompanied by Mt ultrasonic testing, magnetic methods, electrical Eng 215. and eddy current methods, and others. In 217 Metals Microstructural Development [Lect addition, laboratory exercises using industrial 3.0] Fundamentals of microstructural grade NDT equipment to inspect a variety of developments as relating to solid solutions, parts and materials. Prerequisites: Physics 24 solidification and transformations; phase or 25. diagrams; case studies. Prerequisites: Mt Eng 306 Nondestructive Testing Laboratory [Lab 215, 216. 1.0] Application of radiological and ultrasonic 218 Metals Structures and Properties methods of nondestructive testing of metallic Laboratory [Lab 1.0] Investigation of the materials. A radiographic X-ray units and relationships between and ultrasonic equipment are used in the inspection properties for various materials. Prerequisites: of a variety of materials and manufactured Mt Eng 215, 216, accompanied by Mt Eng 217. parts. Prerequisite: Accompanied or preceded 221 Principles of Materials Processing [Lect by Mt Eng 305. 3.0] An introduction to various methods of processing of metals and influences of School of Mines and Metallurgy ❐ 207

07 Metals Casting [Lect 2.0] An advanced course potentials, phase equilibria, phase diagrams in the materials and methods used in modern and their relation to microstructure and metals casting processes. Application of of condensed metallurgical principles to the casting of phases. Prerequisites: Graduate standing, metals. Prerequisite: Mt Eng 221 or Mc Eng Math 204, Physics 107. (Not for metallurgy 153. majors) (UMR Center, 308 Metals Casting Laboratory [Lab 1.0] An St. Louis only). advanced laboratory study of mold materials, 327 Fundamentals of Materials Behavior II metal flow, and cast metals. Emphasis is given [Lect 3.0] A continuation of Metallurgy 325 to design of gating, risering, and ladle emphasizing the kinetic processes involved in treatment techniques required for economical, materials behavior. Concepts of the theory of highquality . Prerequisite: absolute reaction rates, diffusion in metallic Accompanied or preceded by Mt Eng 307. solids, elementary theory, plastic 310 Seminar [Variable] Discussion of current deformation, crystallization solid state phase topics. transformations. Prerequisite: Mt Eng 325. 311 Metals Joining [Lect 2.0] Metals joining (Not for metallurgy majors) (UMR Engineering processes such as welding and . Effects Education Center, St. Louis only). of welding on materials. Treatment and 329 Material Selection, Fabrication, and properties of welded joints. Welding defects Failure [Lect 3.0] Factors governing the and quality control. Prerequisite: Mt Eng 121 selection of materials for specific needs, or 221. fabrication, heat treatment, surface treatment, 313 Scanning Electron Microscopy [Lect 2.0 and and other aspects in the production of a Lab 1.0] A course in the theory and application satisfactory component. Failure analysis and of scanning electron microscopy and x-ray remedies. Lecture plus assigned problems. microanalysis. Topics considered are electron Prerequisites: Mt Eng 217, 218, 221. optics, image formation and analysis; x-ray 331 Steels and Their Treatment [Lect 3.0] generation, detection and analysis; and Industrially important ferrous alloys are characterization of fracture surfaces. described and classified. The selection of Prerequisites: Mt Eng 215 and 216 or course in proper heat treatments to facilitate fabrication optical microscopy - consent of instructor and to yield required service properties in required. steels suitable for various applications is 315 Metallurgical Process Design Principles considered. Prerequisites: Mt Eng 271, 218. [Lect 2.0] Application of mass, component and 332 Metals Treatment Laboratory [Lab 1.0] The energy balances for metallurgical design. The students and perform experiments that fundamentals of engineering economic analysis illustrate heat treating processes and their will be examined and experimental design effects on the properties and structure of techniques will be introduced. Students will be commercial alloys. Prerequisite: Accompanied prepared for the selection and planning of the or preceded by Mt Eng 331. subsequent design project. Prerequisite: 333 Nonferrous alloys [Lect 3.0] Structure and Senior standing in Mt Eng. properties of nonferrous alloys (Al, Ti, Mg, Ni 316 Metallurgical Design Project [Lab 2.0] and Cu) are described. The role of processing Student groups will undertake selected and microstructure in the development of projects, which will represent a capstone mechanical properties is emphasized. design experience utilizing skills, understanding Prerequisites: Mt Eng 217 or Mt Eng 377. and data from previous courses. The faculty 341 Nuclear Materials I [Lect 3.0] Fundamentals supervised open-ended design projects will of materials selection for components in involve a variety of tasks appropriate to the nuclear applications. Design and fabrication of metallurgical engineer. Prerequisite: Mt Eng UO2 fuel; reactor fuel element performance; 315. mechanical properties of UO2; radiation 321 Metal Deformation Processes [Lect 3.0] An damage and effects, including computer introduction to metal deformation concepts modeling; corrosion of materials in nuclear followed by a study of various forming reactor systems. Prerequisite: Nu Eng 205. processes from both the analytical and applied (Co-listed with Nu Eng 341) viewpoints. Processes to include: forging, wire 343 Nuclear Materials II [Lect 3.0] Extractive drawing, extrusion, rolling, metallurgy of uranium, thorium, and zirconium. forming, and others. Prerequisite: Mt Eng 221. Equation of state of UO2 and fuel chemistry. 325 Fundamentals of Materials Behavior I [Lect LMFBR fuel and interaction of sodium and 3.0] Introduces students without a stainless . Materials for fusion and other metallurgical background to the physical, advanced nuclear applications. Reprocessing of chemical and structural basis of the equilibrium spent fuel and disposal. Prerequisite: Mt Eng behavior of materials. Includes thermodynamic 341. 208 ❐ School of Mines & Metallurgy

350 Composites [Lect 3.0] An introduction to the 360 Materials Selection & Fabrication [Lect 2.0] structure, properties and fabrication of fiber Factors governing the selection of materials, and particulate composites. Prerequisites: Mt including metals, ceramics, and Eng 215 & 211 or Cr Eng 102 & 242. composites, for specific need. Fabrication of 351 Mineral Processing II (Flotation and materials. Prerequisites: Mt Eng 215 & 211 or Hydrometallurgy) [Lect 2.0 and Lab 1.0] Cr Eng 102 & 242. Froth flotation including mineral surfaces, 361 Alloying Principles [Lect 3.0] Basis for double layer theory, zeta potential, design and property control. Predictions of hydrophobicity, adsorption, collectors, frothers, phase stability, alloy properties and metastable modulation, kinetics, and sulphide and acid phase possibilities; interfaces in solids and flotation systems. Hydrometallurgy including their role in phase transformations. leaching, ion exchange and liquid/liquid Prerequisites: Mt Eng 217, 218. extraction. Prerequisite: Mt Eng 241. 363 Metal Coating Processes [Lect 3.0] 353 Mineral Processing II (Mechanics and Introduction to the current technologies used Design) [Lect 2.0 and Lab 1.0] Mineral to enhance metal performance, particularly particle mechanics of comminution, sizing, corrosion resistance, by overlay coatings. classification, concentration, filtering and Deposition processes are emphasized and the thickening. Mill and equipment selection and fundamentals of the behavior of the films in design including flowsheet development and high technology and electronic materials plant assessment. Prerequisite: Mt Eng 241. applications is discussed. Prerequisites: Mt 354 Metallurgical Process Simulation and Eng 202, 203. Control [Lect 1.0 and Lab 1.0] Simulation of 367 Introduction to [Lect metallurgical processes through the use of 2.0 and Lab 1.0] A survey of the powder theoretical and empirical models, numerical metallurgy field, from fabrication of powders to methods, and analog representation. finishing operations. Includes all basics of Introduction to instrumentation, computer powder metallurgy and many new processes interfacing and process control theory. currently used in industry. Also covers design, Prerequisites: Mt Eng 121, 125, 126. production, economics and energy concerns. 355 Metallurgical Thermodynamics II [Lect 2.0 Hands-on laboratory time is included. and Lab 1.0] Continuation of metallurgical Prerequisites: Mt Eng 217, 218. engineering 281. Equilibrium calculations with 368 Physical Metallurgy III Laboratory [Lab and heat balance restrictions. 1.0] Experiments in physical metallurgy Phase transformation, solution including internal friction, precipitation thermodynamics and partial molar properties. , order-disorder transformations, Applications of thermodynamics to the analysis plastic deformation and thermal expansion. and design of extractive and physical 375 Metallurgical Failure Analysis [Lect 3.0] metallurgy processes. Computer calculations of Application of the principles of manufacturing complex equilibria. Prerequisite: Mt Eng 203. and mechanical metallurgy for the analysis of 356 Principles of Extractive Metallurgy [Lect failed components. Analytical techniques such 3.0] Application of thermodynamics, heat and as Scanning Electron Microscopy, Optical mass balances, and kinetics to the Metallography, and High Resolution understanding, analysis, and design of metal Photography are used to characterize extraction processes. Use of stability and phase microstructure and fractographic features. In diagrams to analyze existing processes and addition, appropriate methods to gather data, design new ones. Prerequisite: Mt Eng 355. assimilate it, and draw conclusions from the 358 Steelmaking [Lect 3.0] Introduction to the data such that it will stand up in a court of law fundamentals and unit processes used to turn will be addressed. Prerequisite: Senior or impure iron and scrap into steel. Includes Graduate Student standing. desulfurization, BOF and electric furnace 377 Principles of Engineering Materials [Lect operations, ladle metallurgy, casting, and 3.0] Examination of engineering materials with manufacture. emphasis on selection and application of 359 Environmental Aspects of Metals materials in industry. Particular attention is Manufacturing [Lect 3.0] Introduction to given to properties and applications of environmental aspects of metal extraction, materials in extreme temperature and chemical melting, casting, forming, and finishing. environments. A discipline specific design Subjects include history of environmental project is required. (Not a technical elective for movement and regulations permitting, risk undergraduate metallurgy or ceramic majors) analysis, disposal and recycling of metal (Co-listed with Ae Eng 377, Ch Eng 377, manufacturing residues, environmental ethics, Physics 377, Cr Eng 377) environmental technologies and case studies. Prerequisite: Junior/Senior standing. School of Mines and Metallurgy ❐ 209

385 Mechanical Metallurgy [Lect 3.0] Elastic and production, mining of metallic and aggregate plastic behavior of metallic single crystals and minerals, mine systems design, mining economics polycrystalline aggregates. Resulting changes and law, mine hygiene and safety, mine in mechanical properties are considered. management, mine ventilation, rock mechanics, Included are applications to . ground support, and reclamation. Prerequisites: Mt Eng 215, 216, Bas En 110. The mining engineer relies upon geologic 390 Undergraduate Research [Variable] knowledge and highly sensitive instruments for the Designed for the undergraduate student who location and evaluation of mineral deposits. wishes to engage in research. Not for graduate Problems involved in the development and credit. Not more than six credit hours allowed exploitation of the ore body and the benefaction and for graduation credit. Subject and credit to be marketing of valuable constituents must be arranged with the instructor. determined in advance. Mining must be carried out efficiently, safely, and economically, with the welfare of the public as a primary consideration. Land must be restored to a useful condition after mining ceases and pollution controls must be designed to prevent harmful environmental effects. Mining Engineering Intensive research programs are conducted at Bachelor of Science UMR in explosives engineering, coal beneficiation, mineral economics, mine operations and design, Master of Science mine atmospheric control and ventilation, minerals Doctor of Philosophy transportation, and various fields or rock mechanics. Appropriate research by faculty and graduate Doctor of Engineering students ensures relevance of the program to industry needs. Emphasis areas at the bachelor level in An Experimental Mine and the Rock Mechanics explosives engineering and quarry engineering. and Explosives Research Center are located close to the campus and provide facilities for laboratory The overall objectives of the Department of instruction and research. Trips to coal, metal, and Mining Engineering are to provide the students with industrial mineral operations supplement classroom a specialized expertise in mining engineering, a activities. Summer employment and co-op training cultural foundation and a sound basis for future provide valuable practical mining and engineering growth and development. These objectives are expertise. achieved at the undergraduate level by providing education in basic sciences, engineering sciences and design, and in the field of humanities and social MISSION STATEMENT sciences. The mining engineering courses offered focus on The overall objectives of the Department of providing students with the knowledge necessary to Mining Engineering are to provide the students with enter a variety of segments of the mining industry. a specialized expertise in mining engineering, a Graduating mining engineers who satisfactorily cultural foundation and a sound basis for future complete the program criteria, and where growth and development. These objectives are appropriate, the quarry option or the explosives achieved at the undergraduate level by providing emphasis, usually obtain employment in one or more education in basic sciences, engineering sciences and of the following areas: mine engineering, mining design, and in the field of humanities and social operations, the extraction/processing of coal, base sciences. metals, precious metals, industrial minerals, quarry The mining engineering courses offered focus on industry, explosives industry, construction or providing students with the knowledge necessary to demolition, mining equipment suppliers and enter a variety of segments of the mining industry. mining/geotechnical consulting firms. Graduating mining engineers who satisfactorily Mining engineering is the profession concerned complete the program criteria, and where with location, extraction, and use of mineral appropriate, the quarry option or the explosives resources. Lunar and ocean mining constitute new emphasis, usually obtain employment in one or more frontiers. of the following areas: mine engineering, mining The mining engineer is concerned with all phases operations, the extraction/processing of coal, base of mineral recovery, including exploration, metals, precious metals, industrial minerals, quarry evaluation, development, extraction, mine industry, explosives industry, construction or evaluation, reclamation, processing, and marketing demolition, mining equipment suppliers and of minerals. In addition to engineering, science and mining/geotechnical consulting firms. liberal arts courses, appropriate courses are taken in explosives engineering, geology, mineral beneficiation, coal mine development and 210 ❐ School of Mines & Metallurgy

Faculty JUNIOR YEAR First Semester Credit Professors: Mi Eng 221-Mining Exploration...... 3 R. Lee Aston (Adjunct) J.D., Ph.D., Mi Eng 270-Mining Industry Economics ...... 3 Aston University, UK Cv Eng 230-Elementary ...... 3 Richard L. Bullock1 (Quenon Chair), D. Eng., UMR El Eng 282-Electrical Circuits & Machines ...... 3 Tad Golosinski, Ph.D., Cracow, Poland Bas En 110-Mechanics of Materials...... 3 R. Larry Grayson1 (Department Chair), Ph.D., West Mc Eng 227-Thermal Analysis ...... 3 Virginia University 18 Charles Haas1 (Emeritus), D.Sc., Colorado School of Mines Second Semester Marian Mazurkiewicz (Emeritus), D.Sc. Bas En 150-Engineering Mechanics-Dynamics...... 2 Wroclaw University, Poland Mi Eng 218-Mine Atmosphere Control ...... 3 Lee W. Saperstein1, D. Phil, Oxford University Mt Eng 242-Mineral Process Lab...... 1 David Summers (Curators'), Ph.D., Leeds Mi Eng 231-Rock Mechanics I ...... 3 John W. Wilson (Emeritus), Ph.D., University of the Mt Eng 241-Principles of Mineral Processing ...... 2 Witwatersrand Mi Eng 307-Principles of Explosives Engineering...... 3 Paul N. Worsey, Ph.D., University of Newcastle- Humanities\Social Sciences2 ...... 3 Upon-Tyne 17 Associate Professors: SENIOR YEAR Jerry C. Tien1, Ph.D., UMR First Semester Credit Mi Eng 217-Mine Power,Drainage & Transportation.....3 Assistant Professor: Mi Eng 325-Mining Methods...... 4 Derek Apel, Ph.D., Queens University,Kingston, Mi Eng 343-Coal Mine Development & Production or Canada Mt Eng 353-Mineral Processing II4 ...... 3 Humanities\Social Sciences2 ...... 4 Adjunct Professor: 14 R. Karl Zipf1, Ph.D., Penn State Second Semester’ 1 Registered Professional Engineer Mi Eng 322-Mine Management ...... 2 Mi Eng 376-Mined-Land Reclamation4 ...... 3 Mi Eng 393-Mine Planning and Design...... 4 Bachelor of Science Technical Elective3,4...... 3 Mining Engineering Technical Elective3,4...... 3 Humanities/Social Sciences2 ...... 3 FRESHMAN YEAR 18 (See Freshman Engineering Program) NOTE: 1,2 1 History 175 may be substituted by Political Science 90, History 112, or 176. SOPHOMORE YEAR 2 The Department requires a total of 16 credit First Semester Credit hours of Hum & Soc Sci courses (including Econ Mi Eng 110-Surveying for Mineral Engineers ...... 3 121/122). These courses are to be chosen Mi Eng 151-Intro to Mining Safety ...... 1 from a list of courses approved by your advisor Math 22-Calculus & Analytic Geometry III ...... 4 and at least two courses (6 hours) that built on Cmp Sc 73, Cmp Sc 77 or Cmp Sc 53...... 3 depth must be taken. English 65-Tech Writer in Bus & Industry...... 3 3 For students with Explosives Engineering Econ 121-Prin of Microecon or Emphasis, Mi Eng 350 (Blasting Tech) has to be Econ 122-Prin of Macroecon...... 3 taken as a Technical Elective. Additional 3 17 hours to be taken in Junior year from the Second Semester following: Mi Eng 301,390 (Special Topics and Geo 125-Physical Mineralogy & Petrology ...... 3 Mining Research, both in an explosive area), or Geo 220-Structural Geology...... 4 Ge Eng 371 (Rock Engineering). Physics 24-Engineering Physics II ...... 4 4 For students with Quarrying Emphasis, Cv Eng Bas En 50-Eng Mechanics-Statics ...... 3 216 (Construction Materials) has to be taken as Math 204-Elementary Differential Equations...... 3 a Technical Elective and Mt Eng 353 (Mineral 17 Processing II) will replace Mi Eng 343 (Coal Mining). 5 Mining courses in italics are offered every semester. 6 All Mining Engineering students must take the Fundamentals of Engineering Examination prior School of Mines and Metallurgy ❐ 211

to graduation. A passing grade on this Quarrying Engineering examination is not required to earn a B.S. degree, however, it is the first step toward Emphasis becoming a registered professional engineer. Senior year This requirement is part of the UMR assessment a) Cv Eng 216 (Construction Materials) in lieu of process as described in Assessment Technical Elective. Requirements found elsewhere in this catalog. b) Mt Eng 353 (Mineral Processing II) in lieu of Mi Students must sign a release form giving the Eng 343 (Coal Mine Development and University access to their Fundamentals of Production). Engineering Examination score. Explosives Engineering Requirements for a Minor Emphasis in Mining Engineering Junior and Senior Years A student who receives a Bachelor of Science degree a) Choose one of the following courses in lieu of in an accredited engineering program from UMR may Mt Eng 121 (Metallurgy for Engineers) in Junior receive the Minor in Mining Engineering by year: completing 15 credit hours from the courses listed Mi Eng 390-Research in explosives area below. Non-engineering students who have a strong Mi Eng 301-Special Topics in explosives area background in mathematics and the physical Ge Eng 371-Rock Engineering sciences may also qualify for the Minor in Mining b) Mi Eng 350-(Blasting Design & Technology) in Engineering, with the approval of the Department lieu of Technical Elective in Senior Year and based on an individually designed program of study. Students will need to consult with the Chair of the Mining Engineering Department to determine MINING ENGINEERING pre-requisite requirements for each course. The program granting the Bachelor of Science degree COURSES shall determine whether or not courses taken for the Mining Engineering Minor may also be used to fulfill 003 Principles of Mining Engineering [Lect 1.0] the requirements of the B.S. degree from that Principles and definitions related to mining program. engineering including one or more field trips to familiarize the student with current mining The following courses are required for the Minor in practices. Mining Engineering: 110 Surveying for Mineral Engineers [Lect 2.0 and Lab 1.0] Principles of surface and Mi Eng 221-Mining Exploration underground survey practice utilizing total Mi Eng 324-Underground Mining Methods & station, engineer's level and GPS. Traversing Equipment and details, note taking and computations, Mi Eng 326-Surface Mining Methods & Equipment balancing surveys and analysis, staking-out new points, and map construction Two other Mi Eng 200- or 300- level lecture courses with AutoCAD. Prerequisites: Bas En 20, Math (3 credit hours), or relevant courses from other 6, accompanied or preceded by Mi Eng 003. disciplines, as approved, must be taken to match the 151 Introduction to Mining Safety [Lab 1.0] student’s area of emphasis in Mining Engineering. Instruction in the safety aspects of mining The following areas of emphasis may be pursued: accordance with the MSHA Training Program required for all new miners. Subjects include Explosives Engineering; Quarrying; Mineral self-rescue and respiratory protection, ground Economics; Mining-Environmental; Mining- control, hazard recognition, mine gases, and Equipment; Mining-Geo-technical; Mining-Health and legal aspects associated with mining. Safety; Mining Operations Management; Mining- Prerequisite: Accompanied or preceded by Mi Tunneling; Surface Mining; Underground Mining. Eng 3. 200 Special Problems [Variable] Problems or The Minor in Mining Engineering is not accredited by readings on specific subjects or projects in the the Accreditation Board of Engineering and department. Consent of instructor required. Technology (ABET). 201 Special Topics [Variable] This course is designed to give the department an 202 Mine Rescue [Lab 1.0] Utilization of the principles of mine safety concerning mine gases, ventilation, explosives, fires, and first aid in the organization of mine rescue personnel and techniques. Training in the use of current mine 212 ❐ School of Mines & Metallurgy

rescue equipment, recognition and control of 120 and either Mi Eng 221 or Cv Eng 215 or common recovery hazards, handling of Geo 130 & 220. survivors. Prerequisite: Mi Eng 151. 270 Mining Industry Economics [Lect 3.0] 217 Mine Power, Drainage & Transportation Importance of the mineral industry to national [Lect 2.0 and Lab 1.0] Engineering principles of economy, uses, distribution, and trade of utilities and material distribution throughout economic minerals, time value of money, mines. Principles of supporting mining mineral taxation, economic evaluation utilizing operations. Mining applications of materials depreciation, depletion, and discounted handling and transport, conveyors, slurries, cashflow concepts, social and economic mine hoists, rail haulage, electrical power, air significance of mineral resources. conditioning, air compressors, pumps and Prerequisites: Econ 121 or 122, accompanied drainage, and . Prerequisites: Cv or preceded by Mi Eng 221. Eng 230, El Eng 282, and as prereq./coreq. Mc 300 Special Problems [Variable] Problems or Eng 227. readings on specific subjects or projects in the 218 Mine Atmosphere Control [Lect 2.0 and Lab department. Consent of instructor required. 1.0] Fundamentals of mine ventilation, 301 Special Topics [Variable] This course is including the principles of airflow, control of designed to give the department an gases, dust, and temperature, methane opportunity to test a new course. Variable title. drainage, mine fans, network theory, computer 302 Computer Applications in the Mining & network simulation, and economics of airflow, Minerals Industry [Lect 2.0 and Lab 1.0] with emphasis on analysis, systems design and History of computer technology usage in the practical application. Prerequisites: Cv Eng mining industry. Exposure to the use of 230, El Eng 282, and as prereq./coreq. Mc Eng computers in mine planning, design, 227. exploration, ventilation & environment, rock 221 Mining Exploration [Lect 3.0] Classification of mechanics, open pit stability, simulation of mineral deposits. Mining laws. Role of mining mining systems and equipment selection. and processing in defining orebodies. Geology, 305 Explosives Handling and Safety [Lect 1.0] geophysics, geochemistry, geobotany, and Basic handling & safety for explosives, drilling in mineral exploration. Sampling explosive devices and ordnance related to orebodies. Ore reserve modeling. Introduction laboratory handling, testing, manufacturing & to , statistics, and . storage, for both civil and defense applications. Reserve estimation project. Prerequisites: Geo For "credit offering" of the UMR Explosives 220, Mi Eng 110, and as prereq. or coreq. Geo Handling & Safety Industrial Short Course. 113. 306 Material Processing by High-Pressure 224 Underground Mining of Metallic and Water Jet [Lect 3.0] Methods of generating Industrial Minerals [Lect 3.0] Principles high pressure water jets; standard equipment, utilized in the development of metallic and existing techniques and basic calculations. industrial mineral deposits into productive Applications of water jets to materials cutting entities by underground mining methods, and mineral processing. Safety rules. The including ground support, equipment selection course will be supported by laboratory and coordination, economics safety, and overall demonstrations. (Co-listed with Mc Eng 306) operational considerations. Prerequisites: Mi 307 Principles of Explosives Engineering [Lect Eng 221, 270. 2.0 and Lab 1.0] Theory and application of 226 Surface Mining of Metallic and Industrial explosives in the mining industry; explosives, Minerals [Lect 3.0] Principles utilized in the initiating systems, characteristics of explosive development of metallic and industrial mineral reactions and rock breakage, fundamentals of deposits into productive entities by surface blast design, drilling and blasting, regulatory mining methods, including bank stability, and safety considerations. Prerequisites: Ge benching, equipment selection and Eng 50; accompanied or preceded by either Cv coordination, economics, safety and overall Eng 215 or Geo 220. operational considerations. Prerequisites: Mi 308 Drilling and Blasting [Lect 1.0 and Lab 1.0] Eng 221, 270. The mechanics of rock breakage in drilling and 231 Rock Mechanics I [Lect 2.0 and Lab 1.0] blasting. equipment systems, and the Rock as an engineering material; elastic and application of engineering principles in the non-elastic properties; Mohr's criterion for design of blasting rounds for construction and failure; slope and highwall stability; field mining excavation problems. Prerequisite: Mi stresses; elastic design of underground Eng 307. openings, pillars, and roof beams; principles of roof-bolt design; surface subsidence; and rock testing methods. Prerequisites: Bas En 110, School of Mines and Metallurgy ❐ 213

11 Mine Plant Management [Lect 2.0] 345 Strata Control [Lect 3.0] A detailed review of Optimization of mine plant and equipment artificial ground support, both above and below performance. Availability, utilization and ground, including slope stabilization techniques reliability of equipment; matching equipment and shaft and tunnel liner design. The use of and plant to minesite specific conditions; shotcrete, roofbolts, and solid liners and the maintenance planning, scheduling and control; principles of underground longwall and room parts and materials supply systems; mine and pillar mine support. Longwall and hydraulic information and management systems. Basics mining practice is covered. Prerequisite: Mi of mine and . Prerequisite: Eng 231. Senior standing or consent of instructor. 350 Blasting Design and Technology [Lect 2.0 317 Mining Equipment Design and and Lab 1.0] Advanced theory and application Maintenance [Lect 2.0 and Lab 1.0] This of explosives in excavation; detailed course will teach the basic understanding of underground blast design; specialized blasting mining design principles with special including blast casting, construction and attention placed on , assembly and pre-splitting. Introduction to blasting research. disassembly as well as maintenance Examination of field applications. Prerequisite: procedures and techniques involved. Mi Eng 307. Prerequisite: Mi Eng 217. 370 Valuation of Mineral Properties [Lect 3.0] 318 Mine Atmospheric Control II [Lect 2.0 and Engineering principles utilized for establishing Lab 1.0] Climatic measurements and values of metallic, fuel, and industrial mineral temperature precalculations, emergency deposits; reserve estimation from exploration for fan failures and mine fires, mine air samples, geostatistics; mine taxation; contaminants, mine noises, mine dust, influence and sensitivity analyses; alternative refrigeration and cooling plant layout, radiation valuation techniques. Prerequisite: Mi Eng control. Prerequisite: Mi Eng 218. 270. 322 Mine Management [Lect 2.0] Theory and 376 Mined-Land Reclamation [Lect 3.0] practice of mine management, including basic Permitting: the legal environment of managerial functions, management theories, reclamation and environmental impact communication skills, motivation, leadership, assessment; post-mining land-use selection organization, maintenance management, and mine planning for optimum reclamation of managerial decision making, cost control, labor all mines: metal, nonmetal, and coal; unit relations, government relations, ethics, with operations of reclamation: drainage, backfill, emphasis in presentation skills. Prerequisite: soil replacement, revegetation, maintenance, Completion of 120 credits in Mining etc. Prerequisites: Ge Eng 50 and prerequisite Engineering curriculum. or co-requisite, one of Ge Eng 246, Cv Eng 215 325 Mining Methods for Metal and Industrial or Mi Eng 226. (Co-listed with Ge Eng 376) Minerals [Lect 4.0] The process of developing 383 Tunneling & Underground Construction metallic and industrial mineral deposits into Techniques [Lect 2.0 and Lab 1.0] Cover both productive entities. Principles of planning, mechanical excavation and conventional constructing, and operating economically viable excavation techniques to underground underground and surface mines. Cost effective tunneling and construction. The emphasis will mining methods and equipment selection. be on equipment selection and prediction of Principles of operation and coordination of performance expected of the equipment. mining projects. Stoping methods, benching Ground control systems will be covered as methods. Prerequisites: Mi Eng 221, 270. technology emerges. Excavation methods and 343 Coal Mine Development and Production support of large caverns, often found in civil [Lect 3.0] An in-depth study of all aspects of structures, will also be discussed. A limited coal mining, including an overview of coal focus will be on underground construction industry, reserves and geology, planning and specifications and underground advance rate development of coal mines, surface and and cost estimation techniques. Prerequisites: underground mechanized methods of face Mi Eng 231, Mi Eng 325 or Cv Eng 215, Cv Eng preparation, equipment, coal extraction, 216 or Ge Eng 371. handling and preparation as practiced in the 390 Undergraduate Research [Variable] United States. Prerequisite: Accompanied or Designed for the undergraduate student who preceded by Mi Eng 217. wishes to engage in research. Not for graduate 344 Coal Preparation [Lect 2.0 and Lab 1.0] Coal credit. Not more than six credit hours allowed properties, sampling, testing, breaking, sizing, for graduation credit. Subject and credit to be cleaning and dewatering. Disposal of refuse. arranged with the instructor. Prerequisites: Mt Eng 241 and senior standing. 214 ❐ School of Mines & Metallurgy

393 Mine Planning and Design [Lect 2.0 and Lab reactors are used for the propulsion of submarines 2.0] Selection of a mining design project that and aircraft carriers. results in the preparation of a comprehensive In fusion power plants, under development, engineering report and oral presentation for the strong magnetic fields contain a fuel of economic exploitation of the selected geologic isotopes, such as deuterium, at tempe- deposit. The course includes instruction and ratures hotter than the sun. The deuterium student guidance that integrates and applies extracted from one gallon of water could produce as engineering economics, sciences, use of much energy as burning 300 gallons of gasoline. commercial software & principles to develop a Radioisotopes are used in industry and research, mineable deposit. Prerequisite: Completion of and in for diagnostic and therapeutic 120 hours in Mining Engineering curriculum. purposes. The medical use of radioisotopes and X- rays saves hundreds of thousands of lives every year throughout the world. Radioisotopes are also used in small power generators for space flights. If you choose nuclear engineering, you could Nuclear Engineering work in the areas of nuclear reactor design, plant licensing, plant operation, fuel management and Bachelor of Science development, radioactive waste disposal, health Master of Science physics, instrumentation and control, fusion research, space nuclear power, and applications of Doctor of Philosophy radioisotopes in industry, medicine, and research. Doctor of Engineering As a nuclear engineer you might be employed by utilities, reactor vendors, -engineering firms, consulting firms, industrial research centers, The Nuclear Engineering Department has a national laboratories, government agencies or primary mission to provide an outstanding and universities. comprehensive undergraduate and graduate The nuclear engineering curriculum consists of education to tomorrow’s leaders in nuclear three components: mathematics and basic sciences, engineering. The department provides quality humanities and social sciences, and engineering trained nuclear engineering professionals and leaders topics. The students apply the principles of physics, to Missouri and the nation, in the commercial and mathematics to the study of industry, national laboratories, hospitals, and the engineering topics which include statics, mechanics nation’s defense agencies. The objective of the of materials, electronic circuits and machines, Bachelor of Science program is to provide each thermodynamics, and metallurgy. The knowledge student with sound fundamental knowledge of gained in these areas is applied to the understanding nuclear engineering and related technologies, of nuclear engineering topics including reactor fluid extensive hands-on laboratory experience including mechanics and heat transfer, reactor physics, reactor operations, technical communication and nuclear radiation measurements, radioactive waste leadership skills, and the capability to conduct management, reactor laboratory and operation, research related to the nuclear engineering field. nuclear materials, and nuclear systems design (a The department is committed to a strong Capstone design course). engineering program administered by highly Engineering design is an integral part of almost motivated and active nuclear engineering faculty; it all of the required courses in the nuclear engineering is the only B.S. Nuclear Engineering Degree program program. Design topics include but are not limited accredited in the state of Missouri. The Nuclear to reactor cooling systems, radiation protection, Engineering department at UMR, one of the earliest structural components, waste disposal and accredited undergraduate programs in the nation, transportation systems, nuclear reactor cores and interacts with professional societies, and the nuclear the design of experiments for radiation detection and industry to promote continuing education, research measurement. While obtaining experience in these opportunities, and public dissemination of areas the students are prepared for designing a information about issues and advances in the field. complete nuclear system such as a nuclear plant for Nuclear engineers develop and promote the electric power generation, space propulsion and utilization of energy released from nuclear fission, communication, desalination, district heating or fusion, and the decay of radioisotopes. Currently, radioisotope production for industrial, medical or there are more than 100 nuclear power plants research applications. operating in the United States producing about 20 In the senior Nuclear Systems Design course (Nu percent of our nation’s electricity. These plants use Eng 323), students work in small groups of two or nuclear fission to produce energy and are cooled by three on different components of a system. They ordinary (light) water, hence the name, Light Water interact and exchange ideas with the nuclear Reactors. This technology reduces utility emissions engineering faculty and other groups on a weekly of carbon dioxide, the primary greenhouse gas, by basis both collectively and individually in the form of about 20 percent each year. In addition, nuclear reports and oral presentations. In this course, all of School of Mines and Metallurgy ❐ 215 the knowledge acquired by the students including Associate Professors: that in the humanities and social sciences, is brought Shahla Keyvan, Ph.D., California-Berkeley to bear on the selection of the final design. In Gary Mueller1, Ph.D., UMR addition to the technical considerations, the issues addressed include economics, safety, reliability, Assistant Professor: Akira Tokuhiro, Ph.D., Purdue aesthetics, ethics, and social impact. At the end of University the semester the students write a comprehensive and cohesive final report for their final design and Adjunct Professor: make an oral presentation of their work. David A. Summers, Ph.D., The University of Leeds, Laboratory facilities available to nuclear England engineering students include a radiation measurements laboratory, a 200 kW swimming pool- Associate Professor Emeritus: type nuclear reactor, a materials analysis laboratory, Albert Bolon1, Ph.D., Iowa State and a computer learning center. The students have access to state-of-the-art computing facilities 1 Registered Professional Engineer including personal computers, workstations, mainframes, and super computers. The department Bachelor of Science offices and laboratories are primarily housed in Fulton Hall. The nuclear reactor is housed in its own Nuclear Engineering . FRESHMAN YEAR (See Freshman Engineering Program)1,2 MISSION STATEMENT SOPHOMORE YEAR First Semester Credit The Nuclear Engineering Department has a Cmp Sc 73-Basic Scientific Programming...... 2 primary mission to provide an outstanding and Cmp Sc 77-Computer Programming Lab ...... 1 comprehensive undergraduate and graduate Bas En 50 or Bas En 51-Eng Mech-Statics...... 3 education to tomorrow’s leaders in nuclear Math 22-Calculus w/Analytic Geometry III...... 4 engineering. The Nuclear Engineering Department Nu Eng 105-Intro to Nuclear Engineering...... 2 provides quality trained nuclear engineering Physics 24-Engineering Physics II ...... 4 professionals and leaders to Missouri and the nation, 16 in the commercial nuclear industry, national laboratories, hospitals, and the nation’s defense Second Semester departments. The goal of the Bachelor of Science Cmp Sc 228-Intro to Numerical Methods ...... 3 program is to provide each student with sound El Eng 282-Electrical Circuits & Machines...... 3 fundamental knowledge of nuclear engineering and Electives-Econ(3) ...... 3 related technologies, extensive hands-on laboratory Bas En 110-Mechanics of Materials ...... 3 experience including reactor operations, technical Math 204-Elem Diff Equations ...... 3 communication and leadership skills, and the Nu Eng 203-Interactions of Radiation w/Matter or capability to conduct research related to the nuclear Physics 107-Intro to Modern Physics ...... 3 engineering field. 18 The department is committed to a strong JUNIOR YEAR engineering program administered by highly First Semester Credit motivated and active nuclear engineering faculty; it Mc Eng 219-Thermodynamics ...... 3 is the only B.S. Nuclear Engineering Degree program Stat 215- ...... 3 accredited in the state of Missouri. The Nuclear Mt Eng 121-Metallurgy for Engineers...... 3 Engineering department at UMR, one of the earliest Nu Eng 205-Fundamentals of Nuclear Engineering ..... 3 accredited undergraduate programs in the nation, Nu Eng 221-Reactor Fluid Mechanics...... 3 interacts with professional societies, and the nuclear 15 industry to promote continuing education, research opportunities, and public dissemination of Second Semester information about advances in the field. English 160-Technical Writing ...... 3 Elective-Engineering/Science/Math(4) ...... 3 Faculty Nu Eng 204-Nuclear Radiation Measurements ...... 3 Professors: Nu Eng 223-Reactor Heat Transfer...... 3 Ray Edwards1, Sc.D., MIT Nu Eng 303-Reactor Physics I ...... 3 Arvind Kumar (Department Chair), Ph.D., Nu Eng 321-Nuclear Power Plant Design...... 3 California-Berkeley 18 Nicholas Tsoulfanidis1 (Associate Dean of Mines & Metallurgy), Ph.D., Illinois 216 ❐ School of Mines & Metallurgy

SENIOR YEAR Atomic and Nuclear Physics (Physics 107 or Nu Eng First Semester Credit 203 or equivalent). Required courses are: Elective-Hum or Soc Sc(5) ...... 3 Nu Eng 204 Nuc Radiation Measurements (3 hrs) Elective-Engineering/Science/Math(6) ...... 2 Nu Eng 205-Fundamentals of Nu Eng (3 hrs) Nu Eng 304-Reactor Lab I ...... 2 Nu Eng 223-Reactor Heat Transfer (3 hrs) Nu Eng 310-Seminar...... 0.5 The other 6 hours should be selected from nuclear Nu Eng 311-Reactor Physics II ...... 3 engineering 300-level courses. Nu Eng 341-Nuclear Materials I ...... 3 Nu Eng 307-Nuclear Fuel Cycle...... 3 NUCLEAR ENGINEERING 16.5 Second Semester COURSES Elective-Hum or Soc Sci(7) ...... 6 Elective-Engineering\Science\Math(4) ...... 3 025 Nuclear Technology Applications [Lect 1.0] Nu Eng 306-Reactor Operation...... 1 It is a project oriented course that examines Nu Eng 308-Reactor Lab II ...... 2 various aspects of nuclear technology, such as Nu Eng 310-Seminar...... 0.5 radiation detection, radiation protection, Nu Eng 323-Nuclear System Design...... 3 irradiation, medical and industrial applications. 15.5 The students will work in small groups on stimulating projects. 15.5 (1) Nuclear Engineering students are expected to 105 Introduction to Nuclear Engineering [Lect take Nuclear Technology Applications (Nu Eng 2.0] and nuclei; nuclear reactions; 25) during their Freshman Year. Minimum radioactivity, interactions of radiation with credit hours for graduation is 135. matter; fission and fusion reactors; nuclear (2) See Freshman Engineering Program. fuels; radiation effects on materials and man; (3) Econ 121 or 122. radioactive waste disposal; reactor safety; (4) To be selected from approved departmental radiation protection. Prerequisite: Sophomore course list. Must include one 3.0 credit hour standing. 300 level math course. 200 Special Problems [Variable] Problems or (5) Humanities and Social Science courses from readings on specific subjects or projects in the approved departmental course list. department. Consent of instructor required. (6) Any 300 level course from Engineering/ 201 Special Topics [Variable] This course is Science/Math, e.g. Mc Eng 240, Nu Eng 309, designed to give the department an Nu Eng 333 or any 2 credit Special Topics 300 opportunity to test a new course. Variable title. class. (7) Humanities and Social Science courses for 203 Interactions of Radiation with Matter [Lect depth from approved departmental course list. 3.0] Atoms and nuclei; relativistic kinematics; quantum theory; nuclear decay; cross Fundamentals of Engineering Exam: All Nuclear sections; neutron, gamma, and charged Engineering students must take the Fundamentals of particle interactions; production of Engineering Examination prior to graduation. A radioisotopes; electrical, thermal and magnetic passing grade on this examination is not required to properties of solids. Prerequisites: Math 22, earn a B.S. degree, however, it is the first step Physics 21. toward becoming a registered professional engineer. 204 Nuclear Radiation Measurements [Lect 2.0 This requirement is part of the UMR assessment and Lab 1.0] Acquaints the student with theory process as described in Assessment Requirements and operation of the principal experimental found elsewhere in this catalog. Students must sign tools, methods, radiation detectors and a release form giving the University access to their measuring devices used by a nuclear engineer Fundamentals of Engineering Examination score. or nuclear in experiments dealing with atomic and nuclear phenomena. Prerequisites: Minor Curriculum Nu Eng 203 or Physics 107, and preceded or accompanied by each of English 160 and Stat Nuclear power plants and other nuclear 215. installations employ not only nuclear but also civil, mechanical, electrical, and chemical engineers. A 205 Fundamentals of Nuclear Engineering [Lect nuclear engineering minor, therefore, enhances the 3.0] An introduction to the principles and academic credentials of a student and broadens equations used in nuclear fission reactor his/her employment choices. A minimum of 15 technology, including reactor types; neutron hours is required for a minor in nuclear engineering. physics and reactor theory; reactor kinetics Before the courses listed below can be taken, the and control; radiation protection; reactor student should have completed Elementary safety and licensing; and environmental Differential Equations (Math 204 or equivalent) and aspects of nuclear power. Prerequisite: Preceded or accompanied by Nu Eng 203 or Physics 107. School of Mines and Metallurgy ❐ 217

221 Reactor Fluid Mechanics [Lect 3.0] A study 310 Seminar [Variable] Discussion of current of the fundamental principles of incompressible topics. Prerequisite: Senior standing. viscous and inviscid flows in ducts, nozzles, 311 Reactor Physics II [Lect 3.0] Analytic and tube bundles and applications to nuclear computer based methods of solving problems engineering; fluid statics; dimensional analysis of reactor physics. Prerequisites: Nu Eng 303, and similitude; boundary layer theory. Cmp Sc 228. Prerequisite: Mc Eng 219. 315 Space Nuclear Power and Propulsion [Lect 223 Reactor Heat Transfer [Lect 3.0] A study of 3.0] A study of the design, operation and the fundamental principles of conduction, application of radioisotope power generators convection and thermal radiation with and nuclear reactors for space power and volumetric source terms for nuclear propulsion systems used on both manned and engineering applications; empirical unmanned missions. Prerequisite: Math 204. correlations; finite difference methods; analysis 321 Nuclear Power Plant Design [Lect 3.0] A of nuclear reactor cores. Prerequisite: Nu Eng study of current nuclear power plant concepts 221. and the environmental economics and safety 300 Special Problems [Variable] Problems or considerations affecting their design. Includes readings on specific subjects or projects in the such topics as: thermal, mechanical and department. Consent of instructor required. electrical aspects of nuclear power facilities, 301 Special Topics [Variable] This course is and the nuclear fuel cycle. Prerequisites: Nu designed to give the department an Eng 205 and Mc Eng 219. opportunity to test a new course. Variable title. 323 Nuclear System Design [Lect 3.0] A 303 Reactor Physics I [Lect 3.0] Study of neutron complete design of a nuclear system (e.g.a interactions, fission, chain reactions, neutron fission or fusion nuclear reactor plant, a space diffusion and neutron slowing down; criticality power system, a radioactive waste disposal of a bare thermal homogeneous reactor. system). Prerequisites: Nu Eng 311, 321. Prerequisites: Math 204 and Nu Eng 203 or 333 Health Physics [Lect 2.0] Radiation sources, Physics 107. dose calculations, dose units, biological effects 304 Reactor Laboratory I [Lect 1.0 and Lab 1.0] of radiation, federal and state regulations Acquaints the student with neutron regarding radiation, proper use of measurement, reactor operation, control rod radioisotopes, operation and use of health calibration, reactor power measurement and physics instruments and dosimeters. neutron activation experiments. Experiments Prerequisite: Nu Eng 203 or Physics 107. with the thermal column and neutron beam 335 Radiation Protection Engineering [Lect 3.0] port are also demonstrated. Prerequisites: The stopping of charged particles, photons, and English 160, Nu Eng 204 and 205. neutrons by matter. Sources of radiation 306 Reactor Operation [Lab 1.0] The operation of (nuclear reactors, radioactive wastes, x-ray the training reactor. The program is similar to machines, and accelerators). Biological effects that required for a NRC license. Prerequisite: of radiation. Radiation protection guides. Nu Eng 205. Radiation shield design. Prerequisite: Nu Eng 307 Nuclear Fuel Cycle [Lect 3.0] Nuclear fuel 205. reserves and resources; , conversion, 341 Nuclear Materials I [Lect 3.0] Fundamentals and enrichment; fuel fabrication; in-and-out-of of materials selection for components in fuel management; transportation, nuclear applications, design and fabrication of storage, and disposal of nuclear fuel; low level UO2 fuel; reactor fuel element performance; and high level waste management, economics mechanical properties of UO2; radiation of the nuclear fuel cycle. Prerequisite: Nu Eng damage and effects, including computer 205. modeling; corrosion of materials in nuclear 308 Reactor Laboratory II [Lect 1.0 and Lab 1.0] reactor systems. Prerequisites: Nu Eng 205, A continuation of Nuclear Engineering 304 with Mt Eng 121. (Co-listed with Mt Eng 341) experiments of a more advanced nature. 345 Radioactive Waste Management and Prerequisite: Nu Eng 304. Remediation [Lect 3.0] Sources and classes 309 Licensing of Nuclear Power Plants [Lect of radioactive waste, long-term decay, spent 2.0] The pertinent sections of the Code of fuel storage, transport, disposal options, Federal Regulations, the Nuclear Regulatory regulatory control, materials issues, site Commission's Regulatory Guides and Staff selection and geologic characterization, Position Papers, and other regulatory containment, design and monitoring requirements are reviewed. Safety analysis requirements, domestic and foreign waste reports and environmental reports for specific disposal programs, economic and plants are studied. environmental issues, history of disposal actions, and conduct of remedial actions and 218 ❐ School of Mines & Metallurgy

clean up. Prerequisite: Math 204. (Co-listed include: economic analysis of oil and gas production, with Geo 345) reservoir simulation, and artificial lift methods. 351 Reactor Kinetics [Lect 3.0] Derivation and Recent curriculum changes have been made to solutions to elementary kinetics models. keep pace with rapid advances in well testing, Application of the point kinetics model in fast, , environmental concerns, and thermal reactor dynamics, internal and advanced drilling techniques. external feedback mechanism. Rigorous derivation and solutions of the space Mission Statement dependent kinetics model fission product and The mission of the Petroleum Engineering fuel isotope changes during reactor operation. program is (1) to maintain a quality undergraduate Prerequisite: Nu Eng 205. program, and (2) to promote a small, high quality 361 Fusion Fundamentals [Lect 3.0] Introduction graduate program. It is believed the second to the plasma state, single particle motion, objective helps both faculty and students in kinetic theory, plasma waves, fusion, power achieving quality at the undergraduate level. The generation, radiation mechanisms, inertial undergraduate program is designed to provide a confinement and fusion devices, including well-rounded, technically strong curriculum to conceptual fusion power plant . prepare students for a successful professional career, Prerequisite: Preceded or accompanied by Math or for advanced study in Petroleum Engineering or 204. other professional areas. The emphasis of the 381 Probabilistic Risk Assessment I [Lect 3.0] A undergraduate program is on reservoir engineering; study of the techniques for qualitative and however, in preparing students for all aspects of the quantitative assessment of reliability, safety industry, courses are also offered in drilling and and risk associated with complex systems such production engineering. With the current industry as those encountered in the nuclear power innovations, resulting in a combination of production industry. Emphasis is placed on fault tree and reservoir duties in many companies, courses in analysis. Prerequisite: Nu Eng 205. these areas have incorporated an integration of 390 Undergraduate Research [Variable] these concepts. Designed for the undergraduate student who wishes to engage in research. Not for graduate Faculty credit. Not more than six credit hours allowed Professors: for graduation credit. Subject and credit to be Leonard F. Koederitz1, (Distinguished Teaching arranged with the instructor. Professor), (Department Chair), Ph.D., University of Missouri-Rolla Daopu T. Numbere, Ph.D., University of Oklahoma

Associate Professors: Petroleum Engineering Shari Dunn-Norman, Ph.D., Heriot-Watt Bachelor of Science Anuj Gupta1, Ph.D., University of Texas at Austin

Master of Science 1 Registered Professional Engineer Doctor of Philosophy Doctor of Engineering Bachelor of Science Petroleum Engineering Anyone interested in providing adequate and safe fossil energy for the future should consider a FRESHMAN YEAR career in petroleum engineering. (See Freshman Engineering Program) Because of the demand for oil and gas and advances in petroleum technology, the field of SOPHOMORE YEAR petroleum engineering plays an important role in the First Semester Credit world today. As a petroleum engineering student, Pe Eng 141-Prop of Hydrocarbon Fluids...... 3 you will study the technology of oil and gas drilling, Ge Eng 50-Geology for Eng ...... 3 production, reserves estimation, and the prediction Math 22-Calc w/Analytic Geom III...... 4 of future production. You will also study the various Physics 24-Eng Physics II...... 4 techniques for evaluating the characteristics of Cmp Sc 74-Intro to Prog Meth1 ...... 2 Petroleum bearing formations and their fluid Cmp Sc 78-Prog Meth Lab1...... 1 contents. Modern experimental and computational 17 tools are utilized to study the technology of well logging, well testing, well stimulation, petroleum reservoir engineering, secondary and tertiary recovery and geology. Other areas of study will School of Mines and Metallurgy ❐ 219

Second Semester University access to their Fundamentals of Econ 121-Microecon or 122-Macroecon...... 3 Engineering Examination score. Math 204-Elem Diff Equa ...... 3 Pe Eng 131-Drill Pract & Well Comp...... 3 The total number of credit hours required for a Pe Eng 132-Petro Prod Lab...... 1 degree in Petroleum Engineering is 135. Bas En 50 or Bas En 51-Statistics ...... 3 The assumption is made that a student admitted History 176-Amer Hist Since 18772 ...... 3 to a department has completed 35 hours credited 16 towards graduation. The academic program of students transferring from colleges outside of UMR JUNIOR YEAR will be decided on a case by case basis. First Semester Credit Humanities/Social Science electives are to be Pe Eng 241-Petr Reservoir Eng ...... 3 selected from a list of approved courses and the Pe Eng 242-Petr Reservoir Lab ...... 1 sequence of course selection must provide both Pe Eng 232-Well Logging I ...... 3 breadth and depth of content. El Eng 281 or El Eng 282-El Circuits ...... 3 Petroleum Engineering students must earn the Chem 221- or 241 or Geop 285 or 385 ...... 3 grade of “C” or better in all Petroleum Engineering Cv Eng 230-Elem Fluid Mech ...... 3 courses to receive credit toward graduation. 16 Minor Curriculum in Petroleum Second Semester SP&MS 85-Princ of Speech ...... 3 Engineering Pe Eng Tech Elective ...... 3 Pe Eng 257-Petro Econ ...... 3 The Petroleum Industry employs not only Bas En 150-Eng Mech-Dyn ...... 2 Petroleum but also Civil, Electrical, Chemical, Bas En 110-Mech of Mat ...... 3 Geological, Mechanical and other engineers. A Ge Eng/Geology Elective3...... 3 Petroleum Engineering minor, therefore, enhances 17 the academic credentials of a student and broadens their employment choices. A minor in Petroleum SENIOR YEAR Engineering requires 15 hours of UMR credit to First Semester Credit include the following: Pe Eng 316-Prod App...... 3 Mc Eng 227-Thermal Analysis ...... 3 Required Course/Times Offered Hours Pe Eng 310-Seminar...... 1 Pe Eng 131 Fall & Spring Semester………………….3 hrs. Pe Eng Tech Elective ...... 3 Pe Eng 141 Fall …………………………………………………3 hrs. Adv Hum/Soc Sci Elective ...... 3 Pe Eng 241 Fall ………………………………………………..3 hrs. Adv Math/Stat or Cmp Sc Elective...... 3 Pe Eng 316 Fall or Pe Eng 335 Spring……………..3 hrs. 16 One elective course*…………………………………………3 hrs. Total 15 hrs. Second Semester Pe Eng 335-Second Recovery of Petro ...... 3 *The elective course is to be selected from any other Pe Eng Tech Elective ...... 3 200 or 300 level Petroleum Engineering courses Geo 340-Petro Geology4 ...... 3 offered except Seminars. Adv Hum/Soc Sci Elective ...... 3 English 160-Tech Writing ...... 3 Pe Eng 347-Petro Eng Design ...... 3 18 PETROLEUM ENGINEERING COURSES 1 or Bas En 20, if Cmp Sc 73-77 selected in Freshman Year Program 131 Drilling Practices and Well Completions 2 or Pol Sc 90, Hist 112,175 [Lect 2.0 and Lab 1.0] Properties and 3 to be selected from Geo 220, Ge Eng 343, Ge occurrence of petroleum; petroleum Eng 248 or Ge Eng 335 exploration, equipment, materials, and 4 All Petroleum Engineering students must take processes employed in drilling and production the Fundamentals of Engineering Examination practices; well completions; oil field operation. prior to graduation. A passing grade on this Prerequisites: Preceded or accompanied by examination is not required to earn a B.S. Math 21 and Physics 23. degree, however, it is the first step toward 132 Petroleum Production Laboratory [Lab 1.0] becoming a registered professional engineer. Properties and chemical treatment of oil well This requirement is part of the UMR assessment drilling mud; methods of field testing; process as described in Assessment synthesis of drilling muds; properties of well Requirements found elsewhere in this catalog. cements, oil well brines, oil field emulsions; Students must sign a release form giving the 220 ❐ School of Mines & Metallurgy

specialized oil field equipment operation. 302 Offshore Petroleum Technology [Lect 3.0] Prerequisite: Accompanied by Pe Eng 131. An introduction to both the practical and 141 Properties of Hydrocarbon Fluids [Lect 3.0] theoretical aspects of development of offshore Physical properties of petroleum fluids; oil fields. Practical problems include current chemical components of petroleum fluids. drilling and workover procedures, oil storage Elementary phase behavior; calculations of the methods, and oil transportation problems. physical properties of gases, liquids, and Theoretical topics which are introduced include gas-liquid mixtures in equilibrium. the prediction of wind, wave, and current Prerequisites: Chem 3, preceded or forces. Prerequisite: Pe Eng 131. accompanied by Cmp Sc 53 or Cmp Sc 73 and 303 Environmental Petroleum Applications Cmp Sc 77. [Lect 3.0] This course is a study of 200 Special Problems [Variable] Problems or environmental protection and regulatory readings on specific subjects or projects in the compliance in the oil and gas industry. The department. Consent of instructor required. impact of various environmental laws on 201 Special Topics [Variable] This course is drilling and production operations will be designed to give the department an covered. Oilfield and related wastes and their opportunity to test a new course. Variable title. handling are described. Federal, state and local regulatory agencies are introduced, and their 232 Well Logging I [Lect 2.0 and Lab 1.0] An role in permitting and compliance monitoring is introduction to the electrical, nuclear, and presented. Legal and ethical responsibilities are acoustic properties of rocks: theory and discussed. Prerequisite: Senior standing. interpretation of conventional well logs. Prerequisite: Physics 24 or 25. 308 Applied Reservoir Simulation [Lect 3.0] Simulation of actual reservoir problems using 241 Petroleum Reservoir Engineering [Lect 3.0] both field and individual well models to Properties of reservoir formations and fluids; determine well spacing, secondary recovery reservoir mechanics including fluid flow prospects, future rate predictions and recovery, through reservoir rock, capillary phenomena, coning effects, relative permeability material balance, volumetric analyses, drive adjustments and other history matching mechanisms. Prerequisites: Math 22, techniques. Co-requisite: Pe Eng 257. accompanied or preceded by Pe Eng 141 or senior standing. 310 Seminar [Lect 1.0] Discussion of current topics. (Course cannot be used for graduate 242 Petroleum Reservoir Laboratory [Lab 1.0] credit). Prerequisite: Senior standing in Pe Core analysis determination of intensive Eng. properties of crude oil and its products; equipment and methods used to obtain 314 Advanced Drilling Technology [Lect 3.0] petroleum reservoir information. Prerequisite: In-depth studies of cost control; hole Accompanied by Pe Eng 241. problems; well planning; drilling fluids and cuttings transport; hydraulics; pressure 257 Petroleum Valuation and Economics [Lect control, directional drilling; drill bits; 3.0] Estimation of oil and gas reserves; cementing; fishing; wellhead and tubular engineering costs; depreciation; evaluation of designs; computer modeling of drilling systems producing properties; federal income tax optimized design of drilling procedure. considerations; chance factor and risk Prerequisites: Pe Eng 131, Cv Eng 230, Cmp Sc determination. Prerequisites: Pe Eng 241, 73. Econ 121 or Econ 122. 316 Production Applications [Lect 2.0 and Lab 271 Fundamental Digital Applications in 1.0] An introduction to production engineering Petroleum Engineering [Lect 3.0] topics: single and multi-phase flow through Applications of Windows-based Visual Basic pipes; inflow performance; nodal systems solutions to engineering problems including analysis; perforating; acidizing; hydraulic selected topics in fluid flow, PVT behavior, fracturing; well completion equipment and matrices in engineering solutions, translating practices; production logging; well servicing. curves to computer solutions, Prerequisites: Cv Eng 230, Pe Eng 131, predictor-corrector material balance solutions, preceded or accompanied by Pe Eng 241. and graphical display of results. Prerequisite: Junior Standing. 320 Fundamentals of Petroleum Reservoir Simulation [Lect 3.0] An introduction to 300 Special Problems [Variable] Problems or petroleum reservoir simulation. Fundamentals readings on specific subjects or projects in the of finite difference approximation of the partial department. Consent of instructor required. differential equations of flow through porous 301 Special Topics [Variable] This course is media. Discussion of various simulation designed to give the department an schemes, data handling, boundary conditions. opportunity to test a new course. Variable title. Use of a dry gas and black oil simulators. Prerequisites: Cmp Sc 73, Math 204. School of Mines and Metallurgy ❐ 221

323 Artificial Lift [Lect 3.0] This course is a study of artificial lift methods used to produce liquids (oil/water) from wellbores. Methods covered include sucker rod (piston) pumps, electric submersible pumps, gas lift, hydraulic lift and plunger lift. Prerequisite: Pe Eng 241 or equivalent. 329 Applied Petroleum Reservoir Engineering [Lect 3.0] Quantitative study of oil production by natural forces, gas cap, water influx, solution gas, etc.; material balance equations, study of gas, non-retrograde gas condensate, and black oil reservoirs. Predictive calculations of oil recovery from different reservoir types. Prerequisites: Pe Eng 241 and 242. 333 Reservoir Characterization [Lect 3.0] The integration and extrapolation of Geologic, Geophysical, and Petroleum Engineering data for flow model construction. 335 Secondary Recovery of Petroleum [Lect 3.0] Oil recovery by water or gas injection. Various prediction methods. Design of water flooding projects. Cyclic steam stimulation of oil wells, design criteria. Oil recovery from thermally stimulated wells, prediction methods. Brief-introduction to EOR (enhanced oil recovery) methods. Prerequisites: Pe Eng 241, 242, and Mc Eng 227. 341 Well Test Analysis [Lect 2.0 and Lab 1.0] Causes of low well productivity; analysis of pressure buildup tests, drawdown tests, multi-rate tests, injection well fall off tests, and open flow potential tests; design of well testing procedures. Prerequisites: Pe Eng 241 and Math 204. 347 Petroleum Engineering Design [Lect 2.0 and Lab 1.0] The application of engineering principles in the design, selection, and installation of oil field equipment. Prerequisites: Pe Eng 241, 316, Bas En 110. 360 Natural Gas Engineering [Lect 3.0] Gas reserves estimation, deliverability, and future production performance prediction. Deliverability testing of gas wells including isochronal, flow after flow, drawdown and buildup. Gasfield development and underground storage. Gas production metering gauging and transmission. Prerequisite: Preceded or accompanied by Pe Eng 241.