Courses tagged with "Nutrition" (6413)

Data structures play a central role in modern computer science. You interact with data structures even more often than with algorithms (think Google, your mail server, and even your network routers). In addition, data structures are essential building blocks in obtaining efficient algorithms. This course covers major results and current directions of research in data structure.

Acknowledgments

Thanks to videographers Martin Demaine and Justin Zhang.

In 6.635, topics covered include: special relativity, electrodynamics of moving media, waves in dispersive media, microstrip integrated circuits, quantum optics, remote sensing, radiative transfer theory, scattering by rough surfaces, effective permittivities, random media, Green's functions for planarly layered media, integral equations in electromagnetics, method of moments, time domain method of moments, EM waves in periodic structures: photonic crystals and negative refraction.

This course is an exciting look at the advanced study of rigid bodies in motion (dynamics) as applied to engineering systems and structures.

This course is a workshop for students with some experience in writing essays, nonfiction prose. Our focus will be negotiating and representing identities grounded in gender, race, class, nationality, sexuality, and other categories of identity, either our own or others', in prose that is expository, exploratory, investigative, persuasive, lyrical, or incantatory. We will read nonfiction prose works by a wide array of writers who have used language to negotiate and represent aspects of identity and the ways the different determinants of identity intersect, compete, and cooperate.

This course is a workshop for students with some experience in writing essays, nonfiction prose. Our focus will be negotiating and representing identities grounded in gender, race, class, nationality, sexuality, and other categories of identity, either our own or others', in prose that is expository, exploratory, investigative, persuasive, lyrical, or incantatory. We will read nonfiction prose works by a wide array of writers who have used language to negotiate and represent aspects of identity and the ways the different determinants of identity intersect, compete, and cooperate.

Designed to familiarize students with theories and analytical tools useful for studying research literature, this course is a survey of fluid mechanical problems in the water environment. Because of the inherent nonlinearities in the governing equations, we shall emphasize the art of making analytical approximations not only for facilitating calculations but also for gaining deeper physical insight. The importance of scales will be discussed throughout the course in lectures and homeworks. Mathematical techniques beyond the usual preparation of first-year graduate students will be introduced as a part of the course. Topics vary from year to year.

This course is a survey of principal concepts and methods of fluid dynamics. Topics include mass conservation, momentum, and energy equations for continua; Navier-Stokes equation for viscous flows; similarity and dimensional analysis; lubrication theory; boundary layers and separation; circulation and vorticity theorems; potential flow; introduction to turbulence; lift and drag; surface tension and surface tension driven flows.

1.364 examines site characterization and geotechnical aspects of the design and construction of foundation systems. Topics include: site investigation (with emphasis on in situ testing), shallow (footings and raftings) and deep (piles and caissons) foundations, excavation support systems, groundwater control, slope stability, soil improvement (compaction, soil reinforcement, etc.), and construction monitoring. This course is a core requirement for the Geotechnical Master of Engineering program at MIT.

This course provides the opportunity to discuss, orally and in writing, cultural, ethical, and social issues on a stylistically sophisticated level. It explores representative and influential works from the nineteenth century to the present, through literary texts (prose, drama, poetry), radio plays, art, film, and architecture, as well as investigates topics such as the human and the machine, science and ethics, representation of memory, and issues of good and evil. Taught in German.

Advanced Igneous Petrology covers the history of and recent developments in the study of igneous rocks. Students review the chemistry and structure of igneous rock-forming minerals and proceed to study how these minerals occur and interact in igneous rocks. The course focuses on igneous processes and how we have learned about them through studying a number of significant sites worldwide.

Learn how to elevate your teaching by studying what some of the most successful virtual teachers are doing to propel their students forward. We will investigate what teaching strategies make the biggest impact in virtual education, connect with innovative and experienced teachers, and apply core strategies to the key areas of K-12 virtual instruction.

This college-level, calculus-based Introductory Newtonian Mechanics course covers all of the topics and learning objectives specified in the College Board Course Description for Advanced Placement®Physics C (Mechanics). It covers Newton’s Laws, Kinematics, Energy, Momentum, Rigid Body Rotation, and Angular Momentum. The course covers applications of these basic principles to simple harmonic motion, orbital motion, and to problems that involve more than one basic principle. These principles also underlie the 12 online laboratory activities.

Our emphasis is on helping students learn expert-like ways of solving challenging problems, many of which are similar to problems on previous Advanced Placement Examinations in Mechanics C. We stress a key insight: mechanics is about forces changing motion. We apply this concept to organizing the core knowledge in a way that helps students apply it to sophisticated multi-concept problems. We feel this is the best way to prepare students for success not only on the AP Examination but also in other college-level science, technology, engineering and math courses that emphasize problem-solving.

If you are a teacher looking to learn better ways to teach your students, or are interested in using some of our MOOC materials in your own classroom—possibly as a private online course for your students—we strongly encourage you to sign up for our teacher’s discussion cohort, a “private discussion room” for teachers to share pedagogical ideas and instructional techniques.To join these discussions, verify yourself as a teacher by clicking this link, and we will enroll you in the teacher’s discussion cohort.

FAQ

How long is this course?

The course consists of 13 weeks of required (graded) material and 2 weeks of optional (ungraded) material. You do not need to complete the optional weeks in order to receive a certificate, but we strongly encourage you to complete these units, especially if you are preparing for the College Board’s AP Physics C: Mechanics exam.

Is there a required textbook?

You do not need to buy a textbook. A complete eText, including worked-examples and some video lectures, is included in this edX course and is viewable online. If you would like to use a textbook with the course (for example, as a reference), most calculus-level books are suitable. Introductory physics books by Young and Freedman, Halliday, Resnick, & Walker, or Knight are all appropriate (and older editions are fine).

My physics is a little rusty. How should I prepare for this course?

If you would like to brush-up on basic mechanics skills before taking this course, we recommend the brief warm-up course, On-Ramp to AP Physics C: Mechanics. 

What if I take a vacation?

The course schedule is designed with this in mind! Course content is always released at least 3 weeks ahead of the deadline, providing you with the opportunity for flexibility in scheduling.

How are grades assigned?

There are five parts of the course that are worth points: (1) Checkpoint problems are incorporated into the reading; (2) most weeks have an interactive lab component; (3) more involved homework problems occur at the end of each week and (4) quizzes at the end of every 1-2 weeks; (5) the course culminates in a final exam. Each category is worth a varying number of points; and you are allowed several attempts on each problem. A final grade of at least 60% is needed for certification; hence you will not have to do every problem.

Note: Taking this Course Involves Using Some Experimental Materials

The RELATE group that authors and administers this course is a physics education research group. We are dedicated to understanding and improving education, especially online. In one of the only published studies measuring learning in a massive open online course (MOOC), we showed that a previous iteration of this course produced slightly more conceptual learning than a traditionally taught on-campus course. Currently, we are working to find just what caused this learning.  

In this course, the RELATE group will be comparing learning from different types of online activities that will be administered to randomly assigned sub-groups of course participants. At certain points in the course, new vs. more traditional sequences of activities will be assigned to different sub-groups. We will then use common questions to compare the amount of associated learning. Which group receives the new activities will be switched so that all groups will have some new activities and some traditional ones.

Our experimental protocol has been approved by the MIT Committee on Use of Human Subjects. As part of this approval we have the obligation to inform you about these experiments and to assure you that:

• We will not divulge any information about you that may be identified as yours personally (e.g. a discussion post showing your user name). 
• The grade for obtaining a certificate will be adjusted downwards (from 60%) to compensate if one group has slightly harder materials.

Note: By clicking on the “Enroll Now” button, you indicate that you understand that everyone who participates in this course is randomly assigned to one of the sub-groups described above.

This course covers lessons 22 through 27 of Japanese: The Spoken Language by Eleanor H. Jordan with Mari Noda. The goal of the course is to continue to build oral proficiency by expanding your knowledge of vocabulary and grammar. Class hours will be devoted to developing speaking skills in a variety of circumstances; making requests, invitations, apologies, suggestions, dealing with problems, expressing your opinions, etc. Grammatical and social appropriateness on your utterances will be stressed. Keep in mind that daily tape-work is essential.

This course covers lessons 22 through 27 of Japanese: The Spoken Language by Eleanor H. Jordan with Mari Noda. The goal of the course is to continue to build oral proficiency by expanding your knowledge of vocabulary and grammar. Class hours will be devoted to developing speaking skills in a variety of circumstances; making requests, invitations, apologies, suggestions, dealing with problems, expressing your opinions, etc. Grammatical and social appropriateness on your utterances will be stressed. Keep in mind that daily tape-work is essential.

This course covers Lessons 27 through 30 of Japanese: The Spoken Language by Eleanor H. Jordan with Mari Noda. The goal of the course is to continue expanding grammar and vocabulary by further developing four skills: speaking, listening, reading, and writing. The goal is to acquire the ability to use Japanese appropriately with increasing spontaneity emphasized, and to be prepared to become an independent learner to the point where you are capable of handling authentic Japanese by yourself, without fear or hesitation.

This course covers Lessons 27 through 30 of Japanese: The Spoken Language by Eleanor H. Jordan with Mari Noda. The goal of the course is to continue expanding grammar and vocabulary by further developing four skills: speaking, listening, reading, and writing. The goal is to acquire the ability to use Japanese appropriately with increasing spontaneity emphasized, and to be prepared to become an independent learner to the point where you are capable of handling authentic Japanese by yourself, without fear or hesitation.

This seminar will be a scientific exploration of the food we eat and enjoy. Each week we shall have a scientific edible experiment that will explore a specific food topic. This will be a hands-on seminar with mandatory attendance of at least 85%. Topics include, but are not limited to, what makes a good experiment, cheese making, joys of tofu, food biochemistry, the science of spice, what is taste?

This course is the second in a series of two courses in kitchen chemistry. The prerequisite to Advanced Kitchen Chemistry is ES.287 Kitchen Chemistry, which is also on OCW.

This professional education course is designed for engineers either currently holding a management position or preparing for one. If it’s your ambition to become a truly, effective leader, this course taught by internationally renowned experts in the field will help you to develop the skills you need to effectively lead organizations, projects and people to successful outcomes.

Why leadership for engineers? Engineers have unique mindsets that give them the potential to be highly competent business leaders. As leaders, engineers have clear advantages: they are analytical, technically skilled, project-based, good with numbers and well-used to problem-solving.

However, engineers cannot rely on this skillset alone when exercising leadership in today’s world. The problems business leaders are required to deal with are often unstructured and lack a single correct solution. The increasingly non-hierarchical nature of our world complicates this further. Problems have to be solved within complex networks of actors, each with their own interests and perspectives.

In this business and management course you will learn how to develop and apply a new mindset for leadership – a process-based mindset - through mastering captivating concepts and engaging in challenging assignments. There are risks associated with this new type of mindset and the course will show how they can be managed effectively. An integrated approach combining elements of the more common project-based and the process-based mindsets will be presented.

You will learn how to lead in an organization of autonomous knowledge workers and find the answers to questions such as: “How should you deal with information asymmetry?” “How can you deal with resistance?” “How to build trust with players with other interests?”

You will gain experience of leading groups and learn to define roles and norms as well as how to deal with group dynamics such as conflict and cooperation. Furthermore, you learn how to motivate group members to ensure successful group performance.

The content of the course is diverse and includes videos, real-world assignments and practical skills such as negotiation and dealing with group issues. You will also have the opportunity to exchange cases and experiences with the course staff as well as with like-minded professionals who are also seeking to develop their leadership skills just like you.

14.461 is an advanced course in macroeconomics that seeks to bring students to the research frontier. The course is divided into two sections. The first half is taught by Prof. Iván Werning and covers topics such as how to formulate and solve optimal problems. Students will study fiscal and monetary policy, among other issues. The second half, taught by Prof. George-Marios Angeletos, covers recent work on multiple equilibria, global games, and informational fictions.

Professor Blanchard will discuss shocks, labor markets and unemployment, and dynamic stochastic general equilibrium models (DSGE models). Professor Lorenzoni will cover demand shocks, macroeconomic effects of news (with or without nominal rigidities), investment with credit constraints, and liquidity with its aggregate effects.