NO YES. Selected type: Paperback. Added to Your Shopping Cart. Evaluation Copy Request an Evaluation Copy. View on Wiley Online Library. This is a dummy description. An overview of the latest computational materials science methods on an atomic scale. The authors present the physical and mathematical background in sufficient detail for this highly current and important topic, but without unnecessary complications.
They focus on approaches with industrial relevance, covering real-life applications taken from concrete projects that range from tribology modeling to performance optimization of integrated circuits. Following an introduction to the fundamentals, the book describes the most relevant approaches, covering such classical simulation methods as simple and reactive force field methods, as well as highly accurate quantum-mechanical methods ranging from density-functional theory to Hartree-Fock and beyond.
A review of the increasingly important multiscale approaches rounds off this section. This faculty member provides initial guidance in course selection, assists students in exploring academic opportunities and professional pathways, and aids in identifying doctoral research opportunities. MSE does not require formal lab rotations, but students are strongly encouraged to explore research activities in two or three labs during their first academic year.
Students identify their doctoral research adviser prior to the end of February of their first year of study. Most students find an adviser from among the primary faculty members of the department. However, the research adviser may be a faculty member from another Stanford department who is familiar with supervising doctoral students and able to provide both research advising and funding for the duration of the doctoral program.
When the research adviser is from outside the department, the student must also identify a department co-adviser from the department's primary faculty to provide guidance on departmental requirements, core coursework, and opportunities. The faculty Director of Graduate Studies DGS meets with all the doctoral students during the MSE Orientation at the start of the first year and is available during the academic year by email and during office hours.
The MSE student services team is also an important part of the doctoral advising team: they inform students and advisers about University and department requirements, procedures, and opportunities, and they maintain the official records of advising assignments and approvals. Students are encouraged to talk with the DGS and the student services office as they consider adviser selection, or for guidance in working with their adviser s. The department's doctoral students are active contributors to the advising relationship, proactively seeking academic and professional guidance and taking responsibility for informing themselves of policies and degree requirements for their graduate program.
As such the department expects students to read the monthly MSE Updates newsletter which provides deadlines, web links, and other valuable information on graduate degree progress. Brongersma, Bruce M. Clemens, Yi Cui, Reinhold H. Dauskardt, Thomas Devereaux, Persis S. Drell, Paul C. McIntyre, Nicholas A. Melosh, Friedrich B. Dionne, Sarah C. Heilshorn, Aaron M. Lindenberg, Evan J.
Reed, Andrew Spakowitz. Fisher, Curtis W. Gurtner, Michael T. Longaker, Arunava Majumdar, James D. Emeriti: Professors David M. Barnett, Clayton W. Bates Jr. Bravman, Richard H. Bube, Theodore H. Geballe, Robert A. Huggins, William D. Nix, John C. Shyne, William A.
Tiller, Robert L. White, Robert S. Science of the Impossible. Imagine a world where cancer is cured with light, objects can be made invisible, and teleportation is allowed through space and time. The future once envisioned by science fiction writers is now becoming a reality, thanks to advances in materials science and engineering. Attention will be given to both the science and the societal impact of these technologies.
We will begin by investigating breakthroughs from the 20th century that seemed impossible in the early s, such as the invention of integrated circuits and the discovery of chemotherapy. We will then discuss the scientific breakthroughs that enabled modern "impossible" science, such as photodynamic cancer therapeutics, invisibility, and mind-reading through advanced brain imaging. Lastly, we will explore technologies currently perceived as completely impossible, and brainstorm the breakthroughs needed to make such science fiction a reality.
Chemical Principles: From Molecules to Solids. A one-quarter course for students who have taken chemistry previously. This course will introduce the basic chemical principles that dictate how and why reactions occur and the structure and properties of important molecules and extended solids that make up our world. As the Central Science, a knowledge of chemistry provides a deep understanding of concepts in fields ranging from materials and environmental science and engineering to pharmacology and metabolism.
Discussions of molecular structure will emphasize bonding models including Lewis structures, resonance, valence bond theory, and molecular orbital theory. Lectures will reveal the chemistry of materials of different dimensionality, with emphasis on symmetry, bonding, and electronic structure of molecules and solids. We will also discuss the kinetics and thermodynamics that govern reactivity and dictate solubility and acid-base equilibria. A two-hour weekly laboratory section accompanies the course to introduce laboratory techniques and reiterate lecture concepts through hands-on activities.
Specific discussions and laboratories will emphasize the structure, properties, and applications of molecules used in medicine, perovskites and organic dyes used in solar cells, and the dramatically different properties of materials made with only carbon atoms: diamond, graphite, graphene. There will be three lectures, one two-hour laboratory session, an optional minute problem solving session each week. The course will assume familiarity with stoichiometry, unit conversions, and gas laws.
Bioengineering Materials to Heal the Body. Preference to freshmen. Real-world examples of materials developed for tissue engineering and regenerative medicine therapies. How scientists and engineers design new materials for surgeons to use in replacing body parts such as damaged heart or spinal cord tissue.
How cells interact with implanted materials. Students identify a clinically important disease or injury that requires a better material, proposed research approaches to the problem, and debate possible engineering solutions. This seminar will explore 'impossible' technologies - those that have shaped our past and those that promise to revolutionize the future.
We will then discuss the scientific breakthroughs that enabled modern 'impossible' science, such as photodynamic cancer therapeutics, invisibility, and psychokinesis through advanced mind-machine interfaces. Lastly, we will explore technologies currently perceived as completely impossible and brainstorm the breakthroughs needed to make such science fiction a reality. The course will include introductory lectures and in-depth conversations based on readings. Students will also be given the opportunity to lead class discussions on a relevant 'impossible science' topic of their choosing.
Great Inventions That Matter. This introductory seminar starts by illuminating on the general aspects of creativity, invention, and patenting in engineering and medicine, and how Stanford University is one of the world's foremost engines of innovation. We then take a deep dive into some great technological inventions which are still playing an essential role in our everyday lives, such as fiber amplifier, digital compass, computer memory, HIV detector, personal genome machine, cancer cell sorting, brain imaging, and mind reading.
The stories and underlying materials and technologies behind each invention, including a few examples by Stanford faculty and student inventors, are highlighted and discussed. Health Fab: Making Stuff for Life. Semiconductor-based chip technology is all around us; in our phones, computers, and cars. However, not all capabilities developed for silicon processing are directed towards computers and mobile devices.
A new field has emerged using these fabrication and patterning techniques for medical devices, health monitoring, and human-machine interfaces. We can now create chips that flow not electrons, but liquids, taking samples and performing analyses. These liquid based functions can be integrated together with silicon electronic devices for sensing, control, or manipulation.
FitBits and Apple Watches are examples of the first generation of 'wearable' electronics, while more advanced devices that incorporate both liquid based sensors and electronics are on their way. We will cover what is possible with current microfabrication techniques, including direct-write lithography, laser cutting, three-dimensional two photon patterning, polymer deposition and metal patterning. Students will learn how to design, fabricate, and test microfluidic and biomedically related devices. In addition to teaching and hands-on training in microfluidic fabrication, the class will include four team-based projects, each with a different device goal.
These projects requirements will be submitted by leading research groups at Stanford, providing up-to-date and real world challenges. Each team will work together to identify specific device needs, invent solutions, and built prototype devices. At the end of the course each team will present its designs to the sponsoring research program and describe how they met the required objectives.
No prior experience with device fabrication is needed. Resilience, Transformation, and Equilibrium: the Science of Materials. In this course, we will explore the fundamentals of the kinetics of materials while relating them to different phenomena that we observe in our everyday lives. We will study the mechanisms and processes by which materials obtain the mechanical, electronic, and other properties that make them so useful to us. How can we cool water below freezing and keep it from turning into ice? Why is it that ice cream that has been in the freezer for too long does not taste as good?
What are crystal defects and why do they help create some of the most useful semiconductors and beautiful gemstones things we have? This introductory seminar is open to all students, and prior exposure to chemistry, physics, or calculus is NOT required. Undergraduate Independent Study. Independent study in materials science under supervision of a faculty member. Quantum Mechanics of Nanoscale Materials. Introduction to quantum mechanics and its application to the properties of materials.
No prior background beyond a working knowledge of calculus and high school physics is presumed. Topics include: The Schrodinger equation and applications to understanding of the properties of quantum dots, semiconductor heterostructures, nanowires, and bulk solids. Tunneling processes and applications to nanoscale devices; the scanning tunneling microscope, and quantum cascade lasers.
Simple models for the electronic properties and band structure of materials including semiconductors, insulators and metals and applications to semiconductor devices. Time-dependent perturbation theory and interaction of light with materials with applications to laser technology. Formerly Materials Structure and Characterization. Students will study the theory and application of characterization techniques used to examine the structure of materials at the nanoscale. Students will learn to classify the structure of materials such as semiconductors, ceramics, metals, and nanotubes according to the principles of crystallography.
Methods used widely in academic and industrial research, including X-ray diffraction and electron microscopy, will be demonstrated along with their application to the analysis of nanostructures. Prerequisites: E or equivalent introductory materials science course. Thermodynamic Evaluation of Green Energy Technologies. Understand the thermodynamics and efficiency limits of modern green technologies such as carbon dioxide capture from air, fuel cells, batteries, and solar-thermal power.
Kinetics of Materials Synthesis. The science of synthesis of nanometer scale materials. Examples including solution phase synthesis of nanoparticles, the vapor-liquid-solid approach to growing nanowires, formation of mesoporous materials from block-copolymer solutions, and formation of photonic crystals. Relationship of the synthesis phenomena to the materials science driving forces and kinetic mechanisms. Materials science concepts including capillarity, Gibbs free energy, phase diagrams, and driving forces.
Microstructure and Mechanical Properties. Primarily for students without a materials background. Mechanical properties and their dependence on microstructure in a range of engineering materials. Elementary deformation and fracture concepts, strengthening and toughening strategies in metals and ceramics. Topics: dislocation theory, mechanisms of hardening and toughening, fracture, fatigue, and high-temperature creep.
Undergraduates register in for 4 units; graduates register for in 3 units.
Electronic Materials Engineering. Materials science and engineering for electronic device applications. Kinetic molecular theory and thermally activated processes; band structure; electrical conductivity of metals and semiconductors; intrinsic and extrinsic semiconductors; elementary p-n junction theory; operating principles of light emitting diodes, solar cells, thermoelectric coolers, and transistors. Semiconductor processing including crystal growth, ion implantation, thin film deposition, etching, lithography, and nanomaterials synthesis. Operating principles and applications of emerging technological solutions to the energy demands of the world.
The scale of global energy usage and requirements for possible solutions. Basic physics and chemistry of solar cells, fuel cells, and batteries. Performance issues, including economics, from the ideal device to the installed system. The promise of materials research for providing next generation solutions. Undergraduates register in for 4 units; graduates register in for 3 units. The relationships between molecular structure, morphology, and the unique physical, chemical, and mechanical behavior of polymers and other types of soft matter are discussed.
Topics include methods for preparing synthetic polymers and examination of how enthalpy and entropy determine conformation, solubility, mechanical behavior, microphase separation, crystallinity, glass transitions, elasticity, and linear viscoelasticity. Case studies covering polymers in biomedical devices and microelectronics will be covered. Japanese Companies and Japanese Society. Preference to sophomores. The structure of a Japanese company from the point of view of Japanese society.
Visiting researchers from Japanese companies give presentations on their research enterprise. The Japanese research ethic. Preference to sophomores and juniors. Hands-on approach to synthesis and characterization of nanoscale materials. How to make, pattern, and analyze the latest nanotech materials, including nanoparticles, nanowires, and self-assembled monolayers.
Techniques such as soft lithography, self-assembly, and surface functionalization. The VLS mechanism of nanowire growth, nanoparticle size control, self-assembly mechanisms, and surface energy considerations. Laboratory projects. Enrollment limited to Energy Materials Laboratory. From early church architecture through modern housing, windows are passages of energy and matter in the forms of light, sound and air. By letting in heat during the summer and releasing it in winter, windows can place huge demands on air conditioning and heating systems, thereby increasing energy consumption and raising greenhouse gas levels in the atmosphere.
Most macroscopic systems in nature evolve in time in the presence of either extrinsic or intrinsic noise. Opportunity: The development of stimuli-responsive materials, like cells, that can perform precise functions. Students who have passed the Ph. The samples must be very clean to reduce background contamination down to the level that fluorescence from contaminants is well below the emission of the target fluorophore. It has been shown that when the no-density region is larger than the electron density region, the phase information is uniquely encoded in the diffraction pattern and can be recovered directly by an iterative process that takes advantage of the knowledge that the electron density outside the object is zero and within the object is positive.
In this course, we will spend the whole quarter on a project to make and characterize dynamic windows based on one of the electrochromic material systems, the reversible electroplating of metal alloys. There will be an emphasis in this course on characterization methods such as scanning electron microscopy, x-ray photoelectron spectroscopy, optical spectroscopy, four-point probe measurements of conductivity and electrochemical measurements cyclic voltammetry. The course will finish with students giving presentations on the prospects of using dynamic windows and generic radiation control in cars, homes, commercial buildings or airplanes.
Undergraduates register for for 4 units; graduates register for for 3 units. X-Ray Diffraction Laboratory.
Experimental x-ray diffraction techniques for microstructural analysis of materials, emphasizing powder and single-crystal techniques. Diffraction from epitaxial and polycrystalline thin films, multilayers, and amorphorous materials using medium and high resolution configurations. Determination of phase purity, crystallinity, relaxation, stress, and texture in the materials.
Advanced experimental x-ray diffraction techniques: reciprocal lattice mapping, reflectivity, and grazing incidence diffraction. Mechanical Behavior Laboratory. Technologically relevant experimental techniques for the study of the mechanical behavior of engineering materials in bulk and thin film form, including tension testing, nanoindentation, and wafer curvature stress analysis. Metallic and polymeric systems.
Register for lecture section in addition to one lab section. Undergraduates register for in 4 units; graduates register in for 3 units. Electronic and Photonic Materials and Devices Laboratory. Lab course. Current electronic and photonic materials and devices. Device physics and micro-fabrication techniques. Students design, fabricate, and perform physical characterization on the devices they have fabricated. Established techniques and materials such as photolithography, metal evaporation, and Si technology; and novel ones such as soft lithography and organic semiconductors.
Students are required to sign up for lecture and one lab section. Nanoscale Materials Physics Computation Laboratory. Computational exploration of fundamental topics in materials science using Java-based computation and visualization tools. Emphasis is on the atomic-scale origins of macroscopic materials phenomena. Simulation methods include molecular dynamics and Monte Carlo with applications in thermodynamics, kinetics, and topics in statistical mechanics.
Organic and Biological Materials. Unique physical and chemical properties of organic materials and their uses. The relationship between structure and physical properties, and techniques to determine chemical structure and molecular ordering. Examples include liquid crystals, dendrimers, carbon nanotubes, hydrogels, and biopolymers such as lipids, protein, and DNA. An introduction to the fundamental physical chemical principles underlying materials properties. Topics for the course include molecular symmetry, molecular orbital theory, solid-state chemistry, coordination compounds, and nanomaterials chemistry.
Using both classroom lectures and journal discussions, students will gain an understanding of and be well-positioned to contribute to the frontiers of materials chemistry, ranging from solar-fuel generation to next-generation cancer treatments. Atomic Arrangements in Solids. Atomic arrangements in perfect and imperfect solids, especially important metals, ceramics, and semiconductors. Elements of formal crystallography, including development of point groups and space groups. Thermodynamics and Phase Equilibria. The principles of heterogeneous equilibria and their application to phase diagrams.
Thermodynamics of solutions; chemical reactions; non-stoichiometry in compounds; first order phase transitions and metastability; thermodynamics of surfaces, elastic solids, dielectrics, and magnetic solids. Waves and Diffraction in Solids. The elementary principals of x-ray, vibrational, and electron waves in solids. Basic wave behavior including Fourier analysis, interference, diffraction, and polarization.
Examples of wave systems, including electromagnetic waves from Maxwell's equations. Diffracted intensity in reciprocal space and experimental techniques such as electron and x-ray diffraction. Lattice vibrations in solids, including vibrational modes, dispersion relationship, density of states, and thermal properties. Free electron model. Basic quantum mechanics and statistical mechanics including Fermi-Dirac and Bose-Einstein statistics.
Defects in Crystalline Solids. Thermodynamic and kinetic behaviors of 0-D point , 1-D line , and 2-D interface and surface defects in crystalline solids. Influences of these defects on the macroscopic ionic, electronic, and catalytic properties of materials, such as batteries, fuel cells, catalysts, and memory-storage devices. Rate Processes in Materials. Diffusion and phase transformations in solids. Diffusion topics: Fick's laws, atomic theory of diffusion, and diffusion in alloys. Phase transformation topics: nucleation, growth, diffusional transformations, spinodal decomposition, and interface phenomena.
Material builds on the mathematical, thermodynamic, and statistical mechanical foundations in the prerequisites. Mechanical Properties of Materials. Introduction to the mechanical behavior of solids, emphasizing the relationships between microstructure and mechanical properties.
An overview of the latest computational materials science methods on an atomic In-vitro Materials Design: Modern Atomistic Simulation Methods for Engineers. Request PDF on ResearchGate | In-vitro Materials Design: Modern Atomistic Simulation Methods for Engineers | An overview of the latest computational.
Elastic, anelastic, and plastic properties of materials. The relations between stress, strain, strain rate, and temperature for plastically deformable solids. Application of dislocation theory to strengthening mechanisms in crystalline solids. The phenomena of creep, fracture, and fatigue and their controlling mechanisms. Electronic and Optical Properties of Solids. The concepts of electronic energy bands and transports applied to metals, semiconductors, and insulators. The behavior of electronic and optical devices including p-n junctions, MOS-capacitors, MOSFETs, optical waveguides, quantum-well lasers, light amplifiers, and metallo-dielectric light guides.
Emphasis is on relationships between structure and physical properties. Elementary quantum and statistical mechanics concepts are used. Applied Quantum Mechanics I. Emphasis is on applications in modern devices and systems. Offered online for grad students in summer quarter, while an in-person course for grads and undergrads will be available in winter quarter Biochips and Medical Imaging. The course covers state-of-the-art and emerging bio-sensors, bio-chips, imaging modalities, and nano-therapies which will be studied in the context of human physiology including the nervous system, circulatory system and immune system.
Medical diagnostics will be divided into bio-chips in-vitro diagnostics and medical and molecular imaging in-vivo imaging. In-depth discussion on cancer and cardiovascular diseases and the role of diagnostics and nano-therapies. Materials Science Colloquium. Mechanical Behavior of Nanomaterials. Mechanical behavior of the following nanoscale solids: 2D materials metal thin films, graphene , 1D materials nanowires, carbon nanotubes , and 0D materials metallic nanoparticles, quantum dots.
This course will cover elasticity, plasticity and fracture in nanomaterials, defect-scarce nanomaterials, deformation near free surfaces, coupled optoelectronic and mechanical properties e. Prerequisites: Mechanics of Materials ME80 or equivalent. Introduction to Materials Science, Biomaterials Emphasis.
Topics include: the relationship between atomic structure and macroscopic properties of man-made and natural materials; mechanical and thermodynamic behavior of surgical implants including alloys, ceramics, and polymers; and materials selection for biotechnology applications such as contact lenses, artificial joints, and cardiovascular stents. No prerequisite. Educational opportunities in high-technology research and development labs in industry. Qualified graduate students engage in internship work and integrate that work into their academic program.
Following the internship, students complete a research report outlining their work activity, problems investigated, key results, and any follow-on projects they expect to perform. Student is responsible for arranging own employment. See department student services manager before enrolling. Engineering Energy Policy Change.
Public policy and economic decisions profoundly affect all aspects of the energy ecosystem, including its supply, distribution, storage and utilization. These decisions can also influence the pace and focus of innovation of new technologies, including through government-funded research and development programs or regulatory efforts. This course will equip graduate students, who have strong science and engineering backgrounds, with a basic ability to understand and shape the ideation and implementation of sound energy and, related economic, policy.
Building on case studies of both aspirational and reactive U. In particular, students will choose a moonshot goal designed to reduce U. These proposals may focus on specific mobility technologies e. Students will also be introduced to gunshot scenarios, moments of energy crisis that require robust response and can create openings for dramatic change to the energy ecosystem. In the last 15 years, the solar power market has grown in size by times while solar modules prices have fallen by 20 times. Unsubsidized, solar power projects now compete favorably against fossil fuels in many countries and is on track to be the largest energy provider in the future.
How did this happen? We will then look at the undisputed king silicon based solar cells ; how do they work today and how will they develop in the future. Finally, we will look at why past challengers have failed and how future challengers can succeed.