Engineering 101 2019-2020 program planning guide for first-year engineering students - Johns Hopkins Whiting School of Engineering
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Welcome to the Whiting School of Engineering at Johns Hopkins University! We look forward to meeting you when you arrive on campus for orientation. In the meantime, we have prepared the First-Year Academic Guide and Engineering 101 to get you started. The Academic Guide includes information for all first-year students at Hopkins, while Engineering 101 is directed specifically to engineering students. Engineering 101 contains information about all of the majors in the School of Engineering, including recommended first semester class schedules. You’ll also find out about some opportunities to join student groups. We hope that these materials help you learn about the Hopkins community and the options available to you. Again, welcome to Hopkins and we’ll see you in August! Linda Moulton, Denise Shipley, Lashell Silver, Eric Simmons, Janet Weise, and Betty Zee Johns Hopkins University Whiting School of Engineering Office of Academic Affairs—Engineering Advising Wyman Park Building Suite N125 3400 N. Charles Street Baltimore, MD 21218-2681 410-516-7395 wseadvising@jhu.edu https://engineering.jhu.edu/advising/ Nondiscrimination Statement The Johns Hopkins University is committed to equal opportunity and providing a safe and non- discriminatory educational and working environment for its students, trainees, faculty, staff, post-doctoral fellows, residents, and other members of the University community. To that end, the university seeks to provide community members with an environment that is free from discrimination and harassment on the basis of sex, gender, marital status, pregnancy, race, color, ethnicity, national origin, age, disability, religion, sexual orientation, gender identity or expression, veteran status or other legally protected characteristic. The university also is committed to providing individuals appropriate access to all academic and employment programs, benefits and activities on the basis of demonstrated ability, performance and without regard to any protected characteristic. 2
Table of Contents Introduction .............................................................. 4 American Society of Civil Engineers (ASCE)................... 38 Academic Advising ..........................................................4 American Society of Mechanical Engineers (ASME)........ 39 Planning Your First Semester Courses .............................4 Association for Computing Machinery (ACM) ............... 40 Registering for Classes ....................................................5 Biomedical Engineering Society (BMES)......................... 40 Things to Consider..........................................................6 Design, Build, Fly...........................................................41 Earthquake Engineering Research Institute (EERI)........... 41 Engineering Programs and Course Schedule ...... 7-33 Engineers Without Borders (EWB)................................ 42 Engineering World Health (EWH)..................................43 Applied Mathematics and Statistics................................... 7 Health and Medical Device Network at ........................43 Biomedical Engineering....................................................9 Johns Hopkins Chemical & Biomolecular Engineering........................... 12 Hopkins Aerospace Design Club, “Hopkinauts”............. 44 Civil Engineering............................................................14 Hopkins Baja, “Blue Jays Racing”....................................44 Computer Science........................................................ 16 HopHacks.....................................................................44 Electrical and Computer Engineering............................. 18 Hopkins Rocketry, “AstroJays”........................................ 45 Environmental Engineering............................................ 20 Hopkins Undergraduate Society for Applied Mathematics Materials Science and Engineering..................................22 (HUSAM)................................................................... 45 Mechanical Engineering and Engineering Mechanics....... 24 Institute of Electrical and Electronic Engineers (IEEE)...... 46 General Engineering...................................................... 26 International Society of Pharmaceutical ......................... 46 Undecided Engineering................................................. 27 Engineers Student Chapter of the Johns Hopkins University Computer Integrated Surgery Minor............................. 28 Materials Research Society (MRS).................................. 46 Computational Medicine Minor..................................... 29 MedHacks.....................................................................47 Robotics Minor............................................................. 29 National Society of Black Engineers (NSBE)................... 47 Engineering for Sustainable Development Minor............30 Optical Soceity of America (OSA Student Chapter)........48 Center for Leadership Education................................... 31 oSTEM......................................................................... 48 Accounting and Financial Management Minor........... 31 Pi Tau Sigma..................................................................49 Business Minor........................................................ 31 Robotics Club............................................................... 49 Entrepreneurship and Management Minor .............. 32 Society for Biomaterials (SFB)........................................ 49 Leadership Studies Minor.........................................32 Society of Hispanic Professional Engineers (SHPE)......... 50 Marketing and Communications Minor.....................32 Society of Women Engineers (SWE)..............................51 Space Science and Engineering Minor............................33 Tau Beta Pi (Engineering Honor Society)........................51 Theta Tau (Professional Engineering Fraternity)...............52 Pre-Professional Advising for Engineers............... 34 Women in Computer Science (ACM-W)....................... 52 Center for Leadership Education (CLE) Student Study Abroad Opportunities for Engineers.........35 Organizations ...............................................................53 Getting Involved in Student Groups................36-54 Course Listings.................................................... 55-67 American Academy of Environmental Engineers and Krieger School of Arts & Sciences Courses (AS).............56 Scientists (AAEES) .........................................................36 Whiting School of Engineering Courses (EN)................. 61 American Institute of Chemical Engineers/ Society for Biological Engineering (AIChE/SBE) ..............37 3
Introduction Academic Advising with him or her during orientation to discuss Engineering students have two advisors - a your course selections. This meeting time will be professional academic advisor in the Office of scheduled by your department. You are Engineering Advising and a faculty /departmental encouraged to meet with your advisor as advisor in your major—so there's always someone needed throughout the year to discuss your to help you out when you need it! progress. Advisors generally post office hours when they expect to be available; other times Office of Engineering Advising can be arranged by appointment. Mandatory Wyman Park Building, Suite N125 advising meetings will take place in During the summer, academic advisors in the November in order to choose classes for the Office of Engineering Advising will assist you with spring, and again in April to choose classes course selection and answer questions related to for first semester sophomore year. your studies at JHU. Our office provides general academic support to all undergraduate engineering If you are undecided about a major, you will be students. We have general information about the assigned to a faculty advisor who will help you various engineering majors at Hopkins and we’re choose an engineering program. Once you always happy to answer questions, provide select a major, you will be reassigned a faculty resources, and support students in any way we can. advisor in that department. You may want to stop by our office if you: Some tips regarding faculty/departmental • have basic questions about your academic advisors: program • Except during orientation (when you have a • want to change or declare your major set meeting time), getting in touch with your • are interested in studying abroad advisor is your responsibility. Learn your • are having some trouble in a class advisor’s email address, phone number, and • have to miss classes due to an illness or family office hours – and make use of them! emergency • Never wait until the last day of a deadline to • just want to talk to an advisor try to contact your advisor. • Try to have a list of specific questions when Feel free to contact us at 410-516-7395 or you meet with your advisor. wseadvising@jhu.edu. You can visit our website • Expect your advisor to give you guidance, but at https://engineering.jhu.edu/advising and don’t expect him or her to plan your schedule Blackboard organization site, WSE Academic for you! Advising for more information. Faculty/Departmental Advisors Planning Your First Semester Courses You will be assigned a faculty/departmental advisor You will be choosing your first semester in your department who will: courses based on the information in this book • approve all course selections and schedule changes and the First-Year Academic Guide. • provide information on academic programs • If you have already chosen your major, you available to you should follow the appropriate departmental • help you learn about other opportunities at program, as described in the next section. Hopkins, such as research • If you are not yet sure about your major, you Your faculty/departmental advisor will be assigned can either choose to follow the departmental to you late in the summer, and you will first meet program that seems most interesting to you, 4
or you can follow the program for Undecided 5. Physics is calculus-based. If you didn’t take Engineering students. A student who follows this calculus in high school, please contact the program may transfer into any engineering Office of Engineering Advising before department (except BME) at the end of the first registering for Physics I. year and complete the requirements in time to 6. Review the AP/IB/GCE credit tables on pages graduate within the normal four year period. 50-52 of the First-Year Academic Guide. • You should review the information about Although you may not have received your placement tests in the First-Year Academic Guide. score report before registering, you should have a good idea of your test results. Go with • All engineering students take classes in the your best guess. You can make registration School of Arts and Sciences (calculus, chemistry, changes online after you receive your scores, if physics) as well as in the School of Engineering necessary. (introductory engineering courses, computer programming, discrete math). 7. Enroll in an introductory engineering course in the first semester. This course will give you Not sure about your major? additional information about the major you When you complete your on-line Advising Profile, have chosen. If you are an undecided engineer, you can either confirm the choice of major you enroll in the "Hopkins Engineering Sampler selected when you applied to Hopkins, or you can Seminar" or ‘What is Engineering?’ or the make a new choice (except BME). Whatever introductory engineering class that best fits major you indicate on the Profile is what we will your interests. consider you when assigning faculty/departmental advisors. (It is, of course, possible to change your 8. Detailed descriptions about the courses mind later!) engineering freshmen commonly take can be found in the last section of Engineering 101. Some additional information to help you plan: A comprehensive list of Fall 2019 1. Read pages 58 and 62-63 of the First-Year courses can be found online at Academic Guide for some registration basics. https://studentaffairs.jhu.edu/registrar/ 2. Most engineering freshmen will be taking students/course-schedule/ calculus, physics, a freshman engineering course 9. First-semester engineering students are and often chemistry. This is a normal load. allowed to register for a maximum of 18.5 Don’t panic! credits. Credit overloads will not be 3. Hopkins courses follow a Monday/Wednesday/ permitted. Friday or Tuesday/Thursday schedule. Usually Registering for classes the MWF classes are one hour and the TuTh You will be registering using the Hopkins online classes are 1 1/2 hours. You can schedule registration system SIS, which you can access classes back-to-back since instructors dismiss through the portal (https://my.jh.edu). class in time for you to get to the next class. Registration dates are July 11 through July 26. 4. For most engineering degrees there is no You can make changes to your schedule until foreign language requirement, but you may the last day to add, which is September 13. take a language as one of your humanities Deadlines to drop and withdraw can be courses. Review the placement test information found at the Registrar's Office website, on pages 70-71 of the First-Year Academic https://studentaffairs.jhu.edu/registrar/students/ Guide. In addition to the usual language choices, registration. You must be registered for at least check out the courses offered through the 12 credits at all times. Center for Language Education such as Chinese, Hindi, and Arabic. 5
Things to Consider MATH Engineering majors need to take 101/107 for • At JHU, there are two sequences of Calculus Physics I AND 102/108 for Physics II. students can take: Calculus I and II for • 171.107/108 are the exact same material as Biological and Social Sciences Majors (110.106 171.101/102, but are taught in small group and 110.107), and Calculus I and II for Physical problem-solving format and are termed Science and Engineering Majors (110.108 and “Active Learning” or AL. 110.109). Engineering majors need to follow • All general physics sequences utilize the same the 108 AND 109 sequence. laboratory courses: 173.111 for General • Linear Algebra (110.201), Calculus III Physics I and 173.112 for General Physics II. (110.202), and Differential Equations (110.302) • For students with a strong physics background, may be taken in any order after completing the Department of Physics & Astronomy also Calculus II (110.109). offers a Classical Physics sequence: • It is very common that most incoming first year 171.105/106. These courses are intended for students have taken many advanced-level or students who plan to take more than one year honors courses while in high school; however, of physics, perhaps as an additional major or that does not happen as frequently at the minor. The courses are less comprehensive than collegiate level. At JHU, there are very few 171.101/107 & 171.102/108, but they cover the “honors” courses. In fact, the only ones that material in greater depth. Students should be you may encounter are within the Math aware that the 171.105/106 sequence alone is Department. The Department of Mathematics not adequate preparation for the physics offers the following courses: Honors One portion of the MCAT exam. Students who have Variable Calculus (110.113), Honors earned AP Physics Mech and E&M credits will Multivariable Calculus (110.211) and Honors not forfeit their AP credits if they decide to take Linear Algebra (110.212). These courses are the Classical Physics sequence. much more theoretically based and do not delve as in depth on the application side of the CHEMISTRY material that most engineering disciplines need. The Department of Chemistry offers the Typically, these courses are strongly following courses that are relevant to engineering recommended for students who wish to students: Introduction to Chemistry I and Lab, pursue a mathematics major and/or minor. It is 030.101 & 030.105 (offered in fall and summer), preferred for most engineering students to take Introduction to Chemistry II and Lab, 030.102 & the traditional versions of math courses, which 030.106 (offered in spring and summer), Applied should prove to be sufficiently challenging. Chemical Equilibrium & Reactivity with Lab, • Students who earned credits for 110.108 & 030.103 (offered in fall), Chemical Structure & 110.109 AND take 110.113 will forfeit 4 Bonding with Lab, 030.204 (offered in spring), and credits for 110.109. Organic Chemistry I, 030.205 (offered in fall and summer). Below are suggestions of which classes PHYSICS to take depending on students’ preparation, • At JHU, there are two sequences of General including those who have taken AP, IB, or GCE Physics students can take: General Physics I and level exams: II for Biological Science Majors (171.103/104), AP score of 3 or below, IB score of 5 or and General Physics: Physical Science Majors I below, or no previous chemistry: No and II (171.101/102 OR 171.107/108). chemistry credits are awarded. If your major 6
requires a year of general chemistry, you AP score of 5, IB score of 6/7, or GCE must take 030.101 & 030.105 in the fall grade of A or B: You will receive 8 credits AND 030.102 & 030.106 in the spring. for 030.101 & 030.105 AND 030.102 & 030.106. You have 4 options: AP score of 4: You will receive 4 credits for (1) Accept all of your AP credits and take one 030.101 & 030.105. You have 2 options: of the following and not lose any AP credits: (1) Accept your AP credits and take 030.103 030.205 in the fall OR 030.204 in the spring in the fall. (2) Accept all of your AP credits and take no (2) Forfeit your AP credits and start with chemistry in your freshman year and start with 030.101 & 030.105 in the fall and continue Organic Chemistry in sophomore fall the sequence with 030.102 & 030.106 in the semester (if your major requires it) spring. (3) Accept 4 of your AP credits (lose 4 credits NOTE: Students who receive a score of 4 for 030.102 & 030.106) and take 030.103 in the and who accept their AP credits CANNOT fall (NOTE: Students cannot start with 030.102 start with 030.102 & 030.106 in the spring. & 030.106 in the spring if they did not take NO EXCEPTIONS. Only students who 030.101 & 030.105 at JHU, NO EXCEPTIONS) complete 030.101 & 030.105 at JHU in the (4) Forfeit all 8 AP credits and start with fall will be permitted to register for 030.102 030.101 & 030.105 in the fall AND continue the & 030.106 in the spring. sequence with 030.102 & 030.106 in the spring. Applied Mathematics and Statistics The Department of Applied Mathematics Getting started and Statistics is devoted to the study and We want our students to learn how to development of mathematical disciplines recognize a proof and do them on their own. especially oriented to the complex problems This skill is emphasized in the Discrete of modern society. A broad undergraduate Mathematics course (553.171), which can be and graduate curriculum emphasizes several used to meet the requirement of at least one branches of applied mathematics: probability, course in discrete mathematics. The course the mathematical representation and has only high school mathematics as a modeling of uncertainty; statistics, the prerequisite. analysis and interpretation of data; operations research, the design, analysis, and Most courses that can be used to satisfy the improvement of operations and processes; requirements for the departmental major optimization, the determination of best or have Calculus I and II as prerequisites, and at optimal decisions; discrete mathematics, the least Calculus III as a co-requisite. Students study of finite structures, arrangements, and should plan on completing the calculus relations; scientific computation, which sequence and taking a course in linear includes all aspects of numerical computing in algebra (Linear Algebra 110.201, or Honors support of the sciences; and financial Linear Algebra 110.212). mathematics, deriving, analyzing, and extending mathematical models of financial markets. 7
Activities statistics. Interested students should apply no The department encourages teams of interested later than September of their senior year. undergraduate students to compete in the Additional information is available online at: COMAP (Consortium for Mathematics and its http://engineering.jhu.edu/ams/bachelors- Applications) International Mathematical masters-program/. Contest in Modeling. The teams tackle a given problem (for example, determining the optimal What do our graduates go on to do? deployment of tollbooths for the New Jersey • Actuarial profession Turnpike), formulate an approach, and write a • Analyst for a financial institution detailed report over the course of a weekend; • Operations research and consulting the reports are examined and ranked by a panel • Biostatistician working with a pharmaceutical of judges. company • Information Security The department also has an active club called • Applied mathematician in industry HUSAM—Hopkins Undergraduate Society for • Applied mathematician in a policy/regulatory Applied Mathematics—which has many agency opportunities for student participation, • Communication network analyst involvement, and leadership. The club sponsors • Graduate school and organizes events that help undergraduate • Law school students to network, learn about professional • Medical School and research opportunities, and discover the many different disciplines where applied Recommended schedule mathematics plays a key role. Recent events Fall Semester Course # Credit include a discussion panel composed of Johns Intro to Applied Hopkins alumni actuaries, a presentation by a Mathematics & Statistics* 553.100 1 vice president of a major financial institution, an Calculus II or III 110.109 or 110.202 4 exploration of opportunities in the mathematics Honors Discrete Mathematics** 553.172 4 group at a national defense agency, and a look Humanities/Social Science course 3 inside a major operations research consulting Gateway Computing: Java 500.112 3 firm. Optional HEART course 500.111 1 Total Credits 15-16 Looking ahead to senior year…Capstone Experience Spring Semester Course # Credit You may elect to complete a capstone Calculus III 110.202 4 experience. This consists of taking Modeling & Linear Algebra 110.201 or 110.212 4 Consulting (553.400) in the fall of your senior or Differential Equations 110.302 year followed by a senior thesis (553.501) Humanities/Social Science course 3 during the spring. An oral presentation based Other elective 3 on the thesis is required. Total Credits 14 Bachelor’s/Master’s Program *Course is highly recommended but not Highly motivated and exceptionally well- required for AMS degree. qualified undergraduates may apply for admission to the combined bachelor’s/ **Discrete Mathematics, 553.171, is also acceptable. master’s program in applied mathematics and 8
Biomedical Engineering Since its founding more than 50 years ago, the to work in small groups to solve real-world Johns Hopkins Department of Biomedical problems related to BME focus areas. Starting Engineering has led the nation in developing from their first day on campus, students can biomedical engineering as an independent sequence a genome, build an imager, model discipline. In addition to the principles of disease risk, engineer cells, and more under the mathematics, physics, and/or chemistry that guidance of our faculty experts. In our form the basis of traditional engineering undergraduate BME Design Team program, disciplines, fundamental biology and the life teams of first- through fourth-year students sciences are integral to the practice of work with clinical and industry partners to biomedical engineering. This integration of solve critical problems in healthcare and modern biology with the other basic sciences medicine. provides biomedical engineers with a coherent • Through courses in biomedical data science framework for solving fundamental and applied and computational medicine, all BME students problems related to human health and disease. learn to answer questions of health and disease Developed by our faculty at Johns Hopkins, this using complex biomedical datasets. In this way, model resulted in the original biomedical students gain an in-depth knowledge of fields engineering curriculum, which has been used to relevant to biological and medical problem solving. educate and train future leaders in the field for the past twenty years. • The BME 2.0 curriculum also guarantees students the flexibility to pursue research experiences in Today, the faculty and students of the Johns one of the 1,000+ basic andclinical laboratories Hopkins Department of Biomedical Engineering throughout the university. continue Engineering the Future of Medicine. As they push the boundaries of discovery and • All BME faculty members are active participants in innovation, they are pioneering new disciplines teaching and shaping the undergraduate of biomedical engineering with tremendous curriculum. This ensures that our focus areas align potential to transform the practice of medicine with the latest research developments in the field and improve human health. To prepare students and that students are learning from the nation’s to lead this changing field, we have redefined leading experts in the discipline. biomedical engineering education by introducing • Throughout their first semester, students will BME 2.0, a modernized version of our original meet with a matched BME faculty member for curriculum that brings the latest research small group mentoring sessions. During their discoveries into the undergraduate program. second year, undergraduates are paired with The BME 2.0 curriculum provides a foundation specially chosen faculty mentors based on in broadly defined core areas of biomedical shared focus areas and interests, ensuring that engineering, while allowing students to all students receive individualized academic and specialize in one of seven emerging BME focus professional guidance from experts in their areas through advanced project-based courses, chosen field. Throughout their education, research, design opportunities, clinical exposure, students discover various BME career paths and more. There are several unique qualities related to research, industry, medicine, and associated with the BME 2.0 curriculum: more through our Career Exploration program, which features seminars, panel • The BME 2.0 curriculum is based on a series sessions, alumni visits, and internships. of project-based courses that allow students 9
Core Knowledge and Curriculum focus area courses, you will apply your toolbox and BME faculty have identified many areas of the fundamentals that you have mastered as you knowledge that are essential components of an become resident in the study of your chosen field: education in biomedical engineering: • Molecular and cellular biology • Biomedical Data Science • Fundamental physics and thermodynamic Do you want to extract knowledge from principles in biology biomedical datasets of all sizes to understand • Applications of data science and machine and solve health-related problems? learning to biological systems • Biomedical Imaging & Instrumentation • Creation, analysis, and simulation of linear and Do you want to build new imaging systems to non-linear systems models from knowledge of generate functional images, improve disease biological and physiological systems diagnosis, and guide surgical procedures? • Applications of the design process to create • Computational Medicine systems, tools, processes, or prototypes that Do you want to generate solutions in solve a specific need personalized medicine by building and utilizing computational models of health and disease? Beginning in the fall semester of your first year, • Genomics & Systems Biology you will complete a set of biomedical Do you want to create tools to understand engineering, science, and math courses, the multi-scaled genetics, molecular, and collectively referred to as the "core curriculum," cellular component of disease? to master this body of essential knowledge. • Immunoengineering Do you want to harness the power of the Getting Started... BME BASECAMP immune system to treat disease and promote BME 2.0 begins with a first-year experience tissue regeneration? known as BME BASECAMP, which starts in the fall • Neuroengineering with your first BME core course, “Structural Do you want to apply innovative experimental Biology of Cells,” and its complementary and data-driven approaches to understand, BASECAMP mentoring program. This required diagnose, and treat disorders of the brain? course introduces you to the fundamentals of • Translational Cell & Tissue Engineering biology and the life sciences. Through the Do you want to develop and translate advanced BASECAMP mentoring program, you will work in technologies to enhance or restore function at a small group with one of our BME faculty advisors the molecular, cellular, and tissue level? to explore interdisciplinary topics related to modern applications of structural biology. Other Some of your courses will be biomedical BASECAMP courses include fundamental physics, engineering courses; some courses will be chemistry, math, and programming. required from other departments. Along the way you are encouraged to seek out research and Looking Ahead... in your BME Program design experiences that complement your Building on the foundation of BME BASECAMP, engineering interests and pursue extracurricular the second year curriculum is our BME activities that will round out your undergraduate BOOTCAMP for quantitative analysis. These experience. courses in systems controls, modeling, and simulation will form the basis of your toolbox for In your final year of training, your advanced focus future investigation and problem solving. area courses will seamlessly integrate you with the BME community at large. This is BME PRACTICE. Moving forward in the program, you will take Advanced Design, Advanced Research, and other advanced engineering courses in your choice of project-based courses will immerse you in the biomedical engineering focus areas starting in your discipline. You are already Engineering the Future of third year, known as BME RESIDENCY. In these Medicine! 10
Continuing your Education…with the 3+1 *MATH COURSE SELECTION Program Select a math course according to your level Graduate PhD and master’s programs are the of preparation (as indicated by AP Calculus or root of research in the department. Our other exam score; see pages 50-52 in the master’s program will soon offer rolling First-Year Academic Guide and JHU math admission so that students can enter in either placement exam results. the fall or spring semesters. For accelerated students, we also have a new 3+1 hybrid Course Name Course # Credits BS/MSE program, which allows biomedical Calculus I 110.108 4 engineering students to earn both degrees in as Calculus II 110.109 4 little as four years. If you choose this option, Calculus III 110.202 4 you will be automatically accepted into the 3+1 Linear Algebra & Differential Equations program upon admission to Johns Hopkins if (preferred) 553.291 4 you matriculate with a minimum of 24 AP or IB credits. You may still enroll in the 3+1 For double majors: program if you complete all but one of your Linear Algebra 110.201 4 undergraduate course requirements by the end Differential Equations 110.302 4 of your third year, regardless of AP/IB credits. To remain eligible, you must maintain a It is highly recommended to have both Linear minimum cumulative GPA of 3.3 through your Algebra and Differential Equations completed third year. by the beginning of the sophomore spring semester. Students planning to double major in Fall Semester Course # Credits the Applied Mathematics and Statistics should Math Course* 4 plan to take the separate Linear Algebra and Physics I 171.101/107 4 Differential Equations courses. Physics I lab 173.111 1 Intro Chemistry I 030.101 3 **Select from any one of the Gateway Chemistry Lab I 030.105 1 Computing courses: Java, Python, or MATLAB Structural Biology of 580.151 3 (500.112, 500.113, or 500.114). Students the Cell planning for the Biomedical Data Science or Structoral Biology of 580.153 1 Computational Medicine focus areas or a the Cell Lab minor/double major in Computer Science should Optional HEART course 500.111 1 consider taking Gateway Computing: Java, Total Credits 17-18 EN.500.112. Spring Semester Course # Credits Math Course* 4 Physics II 171.102/108 4 Physics II lab 173.112 1 Intro Chemistry II 030.102 3 Chemistry Lab II 030.106 1 Gateway Computing ** or Humanities/Social Science course 3 Career Exploration in BME 0 Total Credits 16 11
Chemical & Biomolecular Engineering Chemical and Biomolecular Engineering pharmaceuticals or microelectronics. The (ChemBE) is dedicated to the design and curriculum also offers an outstanding foundation exploitation of chemical, biological and physical for advanced graduate studies in chemical and processes, and to the study of phenomena for biomolecular engineering, biomedical chemical and biological applications. As a result engineering, materials engineering, or for of the scope and breadth of this rigorous medical, law, or business school. undergraduate program, our students commonly secure employment in the following industries: TRACKS: Students also have the opportunity • Chemical and pharmaceutical production to develop more in-depth specialty in one or • Biomedicine • Material design two areas within chemical and biomolecular • Biotechnology • Food industry engineering. The ChemBE tracks are • Energy interfaces and nanotechnology (IN) and molecular and cellular bioengineering (MCB): Research in ChemBE yields new products that include: Interfaces and Nanotechnology (IN) Track • Novel polymers and materials Interesting and new physics exist at nanometer • Biopharmaceuticals • Biofuels length scales, as the surface area of an object • Drugs and vaccines • Gene therapy products begins to approach and exceed its volume. In • Drug delivery devices • Cells and tissues this track, students are trained in the • Semiconductors fundamental sciences used to solve problems in Nanodevices, Food, Coatings, and Health nanotechnology and interfacial science. Courses Care Products include Materials and Surface Characterization The demands on the modern engineer are high, and other electives such as Colloids and and graduates must possess a wide range of skills Nanoparticles, Supramolecular Materials and in order to be competitive in a global market. The Nanomedicine and Micro/Nanotechnology: the ChemBE program successfully satisfies these Science and Engineering of Small Structures. demands. Students take advanced courses in chemistry, physics, mathematics, and biology. Molecular and Cellular Bioengineering Additionally, students are trained in transport, (MCB) Track kinetics, separations,and thermodynamics, which Fields in biotechnology and biomedicine often are essential to solving real-world engineering involve processes at biological, cellular and problems. Students also hone their professional molecular levels. Common areas utilizing skills and communication skills through report writing, in the MCB track include the genetic oral presentations, and teamwork, in courses manipulation of cells for protein and vaccine involving experimental project, process design and production and the study and treatment of product design. diseases such as arteriosclerosis and cancer. Courses in this track include lectures and Depending on their interests and future career laboratory courses in biochemistry and cell goals, students can choose electives from exciting biology, cellular and molecular biotechnology, areas including green engineering, nanotechnology, bioengineering in regenerative medicine, and and bioengineering. These courses, along with computational protein structure prediction. In undergraduate research opportunities offered by addition, students will take a biomolecular our faculty, are designed to prepare graduates for engineering laboratory to learn the hands-on careers in the chemical industry, biotechnology, skills required for future careers in biological systems at the molecular and cellular level. 12
Your First Year in ChemBE Recommended schedule for a student The first two years of the curriculum are dedicated beginning with Calculus I to sciences and mathematics. To get started in the Fall Semester Course # Credits program, during your first semester, you'll take Calculus I 110.108 4 Chemical Engineering Today (540.101), a course Intro Chemistry I 030.101 3 which introduces the different career opportunities Chemistry Lab I 030.105 1 available to graduates from the department. This Physics I 171.101/107 4 course covers real world problems in molecular Physics I Lab 173.111 1 biotechnology, electronics, law, medicine, Chem Eng Today 540.101 1 biopharmaceuticals, energy, and the environment. Humanities/Social Science course 3 A variety of companies and institutions are profiled Optional HEART course 500.111 1 weekly. You will learn how chemical and Total Credits 17-18 biomolecular engineering concepts impact the world and how engineers in industry, academics, Spring Semester Course # Credits medicine, and the not-for-profit sector can make a Calculus II 110.109 4 real contribution. Intro Chemistry II 030.102 3 Chemistry Lab II 030.106 1 You have the option to take the first fundamental Physics II 171.102/108 4 course in chemical and biomolecular engineering Humanities/Social Science course 3 during your second semester, Introduction to Total Credits 15 Chemical and Biological Process Analysis (540.202). This course will also be available during Recommended schedule for a student the first semester of your sophomore year. beginning with Calculus II or III Your Last Year in ChemBE Fall Semester Course # Credits Of particular interest are three senior-level Calculus II 110.109 4 courses entitled "Projects in ChemBE Unit or Calculus III 110.202 Operations with Experiments," "Chemical and Intro Chemistry I 030.101 3 Biomolecular Process Design with Aspen," and Chemistry Lab I 030.105 1 "Chemical and Biomolecular Product Design" Physics I 171.101/107 4 that are designed to develop project Physics I Lab 173.111 1 management and professional skills in chemical Chem Eng Today 540.101 1 engineering. In the first of these courses, you Humanities/Social Science course 3 will work in small teams and learn how to Optional HEART course 500.111 1 operate different types of process equipment, Total Credits 17-18 use your knowledge of engineering to assess Spring Semester Course # Credits their operation, and write a report on your Intro to Chem & Bio 540.202 4 findings. In the second course, you will design a Process Analysis chemical plant, and in the third course, you will Intro Chemistry II 030.102 3 create a chemical or a biochemical product, Chemistry Lab II 030.106 1 design the process, and produce a detailed Physics II 171.102/108 4 forecast of the profit that you expect from the Humanities/Social Science course 3 successful marketing and sales process. Some Total Credits 15 students will have the option to develop a prototype. Students find these courses to be both fun and challenging, as well as an image of real- world problems. 13
Civil Engineering The backbone of our modern society is the built Designing new structures (and retrofitting the environment that we all rely on. The house you old) to withstand natural disasters, such as live in, the road you drive on, the building you hurricanes and earthquakes, and also building work in, the pipes that bring clean water to your them to be sustainable and “green” for home and work or take waste away – all of reduced environmental impact and lower these needs are met through engineered energy usage, are critical to the future. solutions that civil engineers design. The Further, integrating new technologies (new foundation of all of today’s modern engineering materials, new sensors, new design knowledge began with the first engineering field: philosophies and methods etc.) into civil civil engineering. Today, civil engineering remains engineering design is an ever present a dynamic field and one that is vital to people's challenge. Finally, continual refinement of our well-being across the globe. Civil engineers help design methodologies will reduce the costs find solutions to the many challenges posed by associated with uncertainty in applied our housing and work place needs, loadings, material properties, and the transportation demands and a myriad of other intended use of the structure. infrastructure issues. Moreover, the size of the nation’s infrastructure (its buildings, highways, Johns Hopkins University has graduated civil ports and airports, bridges, rails) is not only engineers through an accredited civil growing, but many of these facilities have engineering program since 1934. We have reached the end of their design life and must be strengths in probabilistic methods for design replaced or renovated. and analysis for application to the randomness in many building materials, the uncertainties 14
in the design process, and in the environmental Recommended schedule loading on structures. We are developing new Fall Semester Course # Credits techniques for building thin-walled structures Math course* 4 and designing in ways that incorporate both the Freshman Experiences in knowledge of material properties and the Civil Engineering 560.101 1 response of materials to repeated cycles of Intro Chemistry I 030.101 3 loading on a structure. We are modeling large- Intro Chemistry Laboratory I 030.105 1 scale civil engineering systems related to energy, Humanities/Social Science or transportation, and public health, whose Writing Intensive course optimized performance is critical to the health, (060.113, 660.105, or 661.110) 3 safety, and welfare of the public. We are General Physics I 171.101/107 4 concerned with the soil that must support General Physics Lab I 173.111 1 buildings and how it responds to loading. We Optional HEART course 500.111 1 are also concerned about civil engineering at the Total Credits 17-18 nation’s coastlines and nearshore areas, as the population there continues to grow, while the Spring Semester Course # Credits sea level rises. Math course* 4 Humanities/Social Science, or Professional Looking ahead to senior year... Writing and Communication (661.110) 3 The culmination of the undergraduate civil Perspectives on the Evolution engineering experience at Hopkins is the year of Structures 560.141 3 long senior design project. Students, under the General Physics II 171.102/108 4 guidance of a practicing engineer, take a civil General Physics Lab II 173.112 1 engineering design project through all stages of Total Credits 15 development, from project conception, to budgeting, to final design. Recent projects include *MATH COURSE SELECTION bridge and building design projects and building Students should take a math course each rehabilitation/restoration projects, including one semester, choosing among the required courses involving Frank Lloyd Wright's Fallingwater. shown below. Select a math course according to your level of preparation (as indicated by AP We have designed our undergraduate program Calculus or other exam score; see pages 50-52 in so that our graduates are prepared for advanced the First-Year Academic Guide and JHU math study in engineering or other fields and are placement exam results. prepared for successful engineering practice. We have a long tradition of placing our graduates in Course Name Course # Credits the most prestigious engineering firms and in the Calculus I 110.108 4 top master's and Ph.D. programs in the country, Calculus II 110.109 4 including our own. Calculus III 110.202 4 Linear Algebra & Differential 553.291 4 Currently the department offers Bachelor of Equations Science in Civil Engineering, a Master of Science in Civil Engineering, and a Ph.D. in Civil NOTE: If a student earns AP credit for Physics I, he Engineering. Students also have an opportunity or she MUST still take either General Physics Lab I to pursue a five year combined bachelor's (173.111) or another 1 credit laboratory course. /master's degree program in civil engineering. 15
Computer Science Computer science is the study of models of In their junior and senior years CS students have computation, their physical realizations, and the great flexibility in choosing their upper level CS, application of these models to an incredibly diverse and other distributional courses. In addition to and continually evolving set of applications. As core courses in software engineering, algorithms, such, students who major in computer science and networks, students may choose from courses have a wide range of directions in which to apply in artificial intelligence, sensor-based robotics, their degree. Whether your dream job is to distributed systems, operating systems, develop the latest applications for Google, Apple, cryptography and security, computer integrated or Microsoft, construct a truly secure electronic surgery, natural language processing, machine voting system, invent robots for medical or learning, computational genomics, computer environmental applications, build a universal graphics and more. A key feature of our major is language translator, or run your own e-business (to the tremendous amount of teamwork and name a few), a computer science degree at JHU collaboration that takes place in the upper level can get you started. courses. Many of them provide students with opportunities to develop significant term projects PROGRAMS in small groups, sometimes with an external client, We offer both a Bachelor of Science (BS) and other times of the students' own design. degree and a Bachelor of Arts (BA) degree. This gives computer science students the options FOCUS AREAS of pursing a strongly technical program (BS), or As students progress through the program, many crafting a more traditional liberal arts program discover a special interest and want to concentrate (BA). Both degrees start with a balanced their studies in that area. To facilitate this, we foundation in computer science, so that majors have developed several focus areas within the don’t have to decide whether to pursue a BS or a major. These include natural language BA until mid-way through their undergraduate processing, software engineering, information studies. The first two years of study focus on core security, robotics, data-intensive computing, courses within the major: programming in Java, C, computing fundamentals, systems & networking, and C++, data structures and algorithms, computational biology, and business computing. computer system fundamentals, automata and Together these 9 areas represent faculty research computation theory. This core gives students a strengths and typical career directions, offering strong understanding of how computers work and specialization options for undergraduate how we can use them to manipulate data. To exploration within the department. Regardless of complement these required courses, students take whether you pursue a particular focus or not, our distributional courses in math, science, humanities bachelor programs provide excellent preparation and social science, and may also start exploring the for research within the department, summer field of CS through courses such as databases, user internships, and post-graduation industry interfaces and mobile applications, parallel employment or graduate work. programming, or software engineering. 16
COMMUNITY Due to the close relationship between computer Students majoring in computer science form a science and many other fields, it may be difficult strong community and support system. This is to choose the right course of study. Students facilitated through course team projects, as well as who are interested in the intersection of our own undergraduate computer labs. Students computer science and electrical engineering are have 24/7 access to these labs, as well as to our encouraged to pursue a Bachelor of Science in compute servers either directly on the lab Computer Engineering (CE), which is jointly machines or remotely from their own laptops. The sponsored by the computer science and collaboration lab in particular provides a common electrical and computer engineering gathering place to work on projects, get advice departments. CE majors take core courses from and homework help, and generally socialize with both departments, and may choose advisors and others in the department. upper level courses from either department. The department is also home to four student Do you want to build the next generation of groups: ACM, ACM-W, UPE and HopHacks. ACM computer hardware or design smart surgical is our chapter of the Association for Computing tools? If so, think about majoring in electrical Machinery, which you can read about later in this engineering or computer engineering. Both of booklet. ACM-W is the affiliated Women in CS these programs combine a rigorous education group which meets informally every week for in engineering and the sciences with research "coding circles," as well as sponsoring a mentorship experience that lets you put your knowledge program and other events throughout the year. to work in the world of high-tech engineering UPE stands for Upsilon Pi Epsilon which is the and in advanced studies. You can find more computer science honor society. Students in this information about these programs elsewhere in group typically help with open house events and this booklet. hold tutoring sessions HopHacks is the student organizing team for our 36-hour hackathon held At the graduate level, students may pursue a on campus every semester. combined bachelor's/master's program, which allows undergraduates to begin a masters degree PROGRAM COMBINATIONS before completing their undergraduate courses. Because of our flexible program requirements, Because it is not necessary for both the students frequently combine studies in CS with bachelor's and master's degrees to be in the minors, other majors, and sometimes even same field, some students use the combined masters programs in CS or related areas. Some of program as an opportunity to combine their the most popular minors among CS majors are bachelor in CS with a specialized masters Entrepreneurship & Management, Robotics, program in information security, robotics, or Computational Medicine, Computer Integrated engineering management, or a more traditional Surgery, and Math (traditional or applied). We also graduate field such as applied math or computer offer a minor in computer science for those engineering. pursuing other majors. Double majors may combine studies in CS with almost any other On the next page you will find our recommended major offered in Engineering or Arts & Sciences. courses for the first year of study as a computer science major. More details on all our programs are readily available on our department website: https://cs.jhu.edu. 17
Recommended schedule for a student without AP Recommended schedule for a student with Computer Science AP Computer Science Fall Semester Course # Credit Fall Semester Course # Credit Calculus I* 110.108 4 Calculus I* 110.108 4 Discrete Math 553.171 4 Discrete Math 553.171 4 Gateway Computing: Java ** 500.112 3 Intermediate Programming 601.220.02 4 Optional HEART course 500.111 1 Optional HEART course 500.111 1 Writing Course*** 3 Writing Course** 3 Total Credits 13-14 Total Credits 15-16 Spring Semester Course # Credit Spring Semester Course # Credit Calculus II* 110.109 4 Calculus II* 110.109 4 Intermediate Programming 601.220 4 Data Structures 601.226 4 Free Elective 3 Free Elective 3 Humanities/Social Science course 3 Humanities/Social Science course 3 Total Credits 14 Total Credits 14 * Select a math course according to your level of preparation (as indicated by AP Calculus or other exam score; see pages 50-52 in the First Year Academic Guide) and JHU math placement exam results. Course choices include Calculus I, II, III, or Linear Algebra. ** Sections 06 and 07 are reserved for Computer Science majors! *** Select a writing course from the following choices: 060.113, 220.105, 661.111. Electrical and Computer Engineering Electrical engineering is concerned with a wide program that lets you focus on the areas of the field variety of topics in electronics, integrated where your interest lies. Students who are interested circuits, signals, systems, and communications; in the intersection of electrical engineering and in photonics and optoelectronics; in medical computer science are encouraged to pursue a Bachelor imaging; and in computer hardware. of Science in Computer Engineering (CE), which is jointly sponsored by the electrical/computer Computer engineering is concerned with the engineering and computer science departments. CE design and application of analog and digital devices majors take core courses from both departments, and systems, including computer systems. In the and may choose advisors and upper level courses computer engineering program, you can select from either department. advanced courses with orientations towards microsystems, computer-integrated surgery, Research is an essential tool software, or robotics and sensors. Hands-on research is one of the best tools for learning. Right from the beginning, you’ll work with your Design a program that fits your interests instructors in their area of research as well as on The department centers its teaching and research projects of your own. Some of the areas that faculty are in three major areas: communications and signal currently researching include parallel signal processing, processing, photonics and optoelectronics, and VLSI analog architectures for machine vision, nonlinear computer engineering systems. Working closely systems, photonics, optical communications, with your advisor, you can put together an semiconductor devices, biomorphic systems for electrical engineering or computer engineering robotics and sensory information processing, medical imaging, and much more. 18
You’re only as good as your tools What you’ll study The department maintains extensive facilities for The freshman program is almost the same for teaching and research in Barton Hall and Computer Engineering and Electrical Hackerman Hall. The two main teaching labs Engineering. During your sophomore year, you’ll (ECE lab and MicroSystems Design lab) make begin to prepare for upper-level courses by extensive use of state-of-the-art design completing specific pre-requisite courses. environments such as CADENCE, Xilinx Tools, TI Depending on the major and area of emphasis DSP systems, VHDL, and Verilog. In addition, the you decide to pursue, you’ll have the chance to department also includes the computational choose from a wide range of courses including: sensory-motor microsystem lab, the control • Mastering Electronics systems design lab, the parallel computing and • Signals and Systems imaging lab, the photonics and optoelectronics lab, • Electromagnetics the semiconductor microstructures lab, and the • Intro to VLSI • Control Systems sensory communication and microsystems lab. • Optical and Electronic Properties of Materials • Photonics Current and recent noteworthy • FiberOptics accomplishments • Optoelectronic Devices • ECE researchers have developed smart • Image Processing and Analysis optical tools that will help revolutionize • Speech and Audio Processing microsurgeries. • Computer Architecture • Algorithms for speech processing that were • Medical Imaging Systems pioneered by ECE researchers can be found in • Information Theory and Coding most speech recognition applications • Microwaves and High Speed Circuits • CAD of Digital VLSI Systems worldwide. • Semiconductor Devices • ECE researchers are developing a dynamic • Telecommunications electronic surface to allow blind or visually impaired people to "feel" mathematical You’ll also take courses in the social sciences and graphs, diagrams and other visuals now humanities. These classes sharpen your thinking and displayed on computer screens. improve writing and communication skills. • ECE researchers have received national attention for developing biologically inspired Learning in the real world smart vision sensors and motor control chips. Join many of your fellow Hopkins students who These chips are being used to develop take part in an internship at some point in their humanoid robots, smart toys, robot-assisted college career. Recent internships include: surgery and prosthesis for amputees and for • Medtronic patients with spinal injuries. • IT intern, Eli Lilly and Company • Teams of students have developed an • Programmer, IBM intelligent ground vehicle using custom • Northrup Grumman designed software and hardware, to • Columbia Telecom • Ernst & Young participate in the annual Intelligent Ground • NASA Vehicle competition. • Java developer, onepage.com • ECE researchers have developed a satellite • Decision Systems, Inc. based, high-power fiber-optic laser system to • Researcher, University of California, Super monitor air pollution and atmospheric Nike Computer Center changes associated with global warming and • Intel ozone depletion. • National Semiconductor • AMD • Applied Physics Laboratory • Google • Facebook • Duolingo 19
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