View source for Physics Textbook Recommendations

[https://en.wikipedia.org/wiki/Physics Physics] (also known as "natural philosophy") is the analysis of nature that is conducted in order to <u>''model''</u> phenomena to describe how the universe behaves and gain partial understanding of it. One must keep in mind that physical laws and theories are never ''proven'' nor ''refuted'' but examined on how well they are in agreement to observations and in what domain of physical parameters (speed, temperature, pressure, field strength, etc) they remain in acceptable agreement with experimental observations. While it may be very tempting to assume our equations are the unbreakable rules or source code of the universe, we must realize that such absolute knowledge is fundamentally and hopelessly unknowable.

==High School==
High school/Freshman physics is a broad survey of the fundamentals of physics: Kinematics and Mechanics, Waves and Acoustics, Thermodynamics, Electricity and Magnetism, Optics and Light, Special Relativity, and Quantum Mechanics which may or may not be done in that order and may have a brief superficial discussion of further topics like Solid-State, Nuclear, or Particle Physics. The mathematical prerequisite is just [[Mathematics#Precalculus|Precalculus/Trigonometry]] but with the assumption you are at least taking the [[Mathematics#Calculus|Calculus sequence]] at the same time as a co-requisite and topics from calculus will steadily appear as you progress. Of course, already knowing some calculus ahead of time will be an added benefit.

These are 3 gold standard textbooks
*Young and Freedman - University Physics with Modern Physics
*Halliday - Fundamentals of Physics
*Serway - Physics for Scientists and Engineers
The following are "honors" level alternatives to the above tomes but they don't quite cover everything (such as fluids and other small topics) so be aware to supplement them if you insist on studying out of them. Alternatively, you can use them for additional practice and insight with the above text (but don't feel obligated to read them before moving on to undergraduate level books). The level of required math is a bit higher and assumes you already know calculus.
* Kleppner & Kolenkow - An Introduction to Mechanics
* Purcell & Morin - Electricity and Magnetism
* Georgi - [http://www.people.fas.harvard.edu/~hgeorgi/new.htm The Physics of Waves]
* Fermi - Thermodynamics (Dover Books on Physics)
* Eisberg & Resnick - Quantum Physics of Atoms, Molecules, Solids, Nuclei, and Particles

==Undergraduate==
The essential mathematical prerequisites are [[Mathematics#Multivariable_and_Vector_Calculus|Vector Calculus]], [[Mathematics#Matrix_Algebra|Matrix Algebra]], and [[Mathematics#Ordinary_Differential_Equations|Ordinary Differential Equations]]. You're also assumed to be concurrently learning [[Mathematics#Partial_Differential_Equations|Partial Differential Equations]], [[Mathematics#Probability and Randomness|Probability]], [[Mathematics#Fourier_Transforms|Fourier Transforms]], [[Mathematics#Complex_Variables|Complex Variables]], [[Mathematics#Special_Functions|Special Functions]], and [[Mathematics#Calculus_of_Variations|Calculus of Variations]] as you progress. Most books will tend to have some brief introductory remarks on them when needed but it will only cover just enough material to solve the chapter's problems and are really designed to serve as motivation to go out and fully learn them. The more math you know in advance, the clearer the material will be.

Beyond these topics, physics majors are expected to take a number of labs and seminar courses covering [[Universal_Material#Error_Analysis|Error Analysis]], [[Universal_Material#Devices_and_Apparatuses|Electronics and Instrumentation]], [[Universal_Material#Scientific_Integrity_and_Ethics|Scientific Integrity]] (You might think it's unlikely but fraud in physics research does happen. The most famous example being [https://en.wikipedia.org/wiki/Sch%C3%B6n_scandal Jan Hendrik Schön] who was once thought to be [http://www.nature.com/news/2002/020923/full/news020923-9.html on his way to the Nobel Prize in Physics] with completely fraudulent fabricated research), and Experimental Modern Physics.

Sooner or later, physics majors pick up a computer algebra system like Maple, MuPAD (Matlab's Symbolic Math Toolbox), Mathematica, or Python + SymPy to help symbolically solve tricky problems. Similarly, depending on what field and research they pursue, they also learn programming in [[Programming Textbook Recommendations#C.2B.2B|C++]], [[Programming Textbook Recommendations#Fortran|Fortran]], [[Programming Textbook Recommendations#Matlab|Matlab]], [[Programming Textbook Recommendations#Python|Python]], IDL and/or LabVIEW as well as others. If you're aiming to get familiar with programming before you need it, it's recommended to start with [[Computer Science and Engineering#Basic Programming .26 Data Structures|C++ and learning data structures]]. While data structures aren't often used for computational physics work, they make excellent subject matter for practice material.

=== <u>Supplemental Reading</u> ===
* Feynman - [http://www.feynmanlectures.caltech.edu/ Lectures on Physics] (Supplement for insight into physics)
* Joos - Theoretical Physics (Dover Books on Physics)

=== <u>Classical Mechanics</u> ===
* Taylor - Classical Mechanics (Great for self study and contains a nice chapter on SR)
* Gregory - Classical Mechanics (More to the point than Taylor)
* Woodhouse - Introduction to Analytical Dynamics (Mathematical oriented complement to the above)
*Sussman and Wisdom - Structure and Interpretation of Classical Mechanics 
**Sussman has also authored the classical computer science text, Structure and Interpretation of Computer Programs. The book takes an idiosyncratic approach to classical mechanics that uses the functional programming language Scheme to program various equations, and asks students to do the same, as a conceptual aid to eliminate ambiguity from traditional mathematical notation. The book is freely available [https://mitpress.mit.edu/sites/default/files/titles/content/sicm_edition_2/book.html here] in HTML format. Related materials may be found [https://groups.csail.mit.edu/mac/users/gjs/6946/ here].

=== <u>Special Relativity</u> ===
* Taylor and Wheeler - Spacetime Physics: Introduction to Special Relativity (Low level but good for conceptual understanding)
* Woodhouse - Special Relativity (Nice brisk mathematical treatment of SR. See also Woodhouse's General Relativity book for a continuation)
* Wolfgang Rindler - Introduction to Special Relativity

=== <u>Electrodynamics</u> ===
* Griffiths - Introduction to Electrodynamics<sup>[[http://academic.reed.edu/physics/faculty/griffiths.html Errata]]</sup> (The standard at most universities)
* Wangsness - Electromagnetic Fields (an alternative to Griffiths and a good transition to Jackson)
* Shadowitz - The Electromagnetic Field (Dover Books on Physics) (A cheap alternative and/or supplement to Griffiths, it does electricity and magnetism side by side rather than segregating them)
* Schwartz - Principles of Electrodynamics (Dover Books on Physics) (Another cheap supplement to Griffiths, it's a tad more advanced and mathematical and with an emphasis on SR.)
For more on applications when you're done, see EEE's [[Electrical and Electronics Engineering#Electromagnetics and Transmission Lines|Electromagnetics]] recommendations.

=== <u>Thermal Physics</u> ===
The books on Thermal Physics aren't as great as you would hope they be. If you have the time, try to work through an [[Mechanical and Aerospace Engineering#Thermodynamics|Engineering Thermodynamics]] textbook to build up your familiarity with the subject matter before attempting to dive into the theory.
* Schroeder - An Introduction to Thermal Physics <sup>[http://physics.weber.edu/thermal/ <nowiki>[Site]</nowiki>]</sup>
* Kittel and Kroemer - Thermal Physics
* Reif - Fundamentals of Statistical and Thermal Physics
* Blundell & Blundell - Concepts in Thermal Physics<sup>[https://users.ox.ac.uk/~sjb/ctp/errata.html <nowiki>[Errata]</nowiki>]</sup>
A short and insightful supplement or second pass on thermodynamics is Pippard's "Elements of Classical Thermodynamics". For deeper historical and conceptual understanding, check out some the writings of the creators of the subject like Maxwell, Botzmann, Ehrenfest, and Planck on the [[History#Thermodynamics and Statistical Mechanics|History page]].

=== <u>Quantum Mechanics</u> ===
* Griffiths - Introduction to Quantum Mechanics<sup>[[http://academic.reed.edu/physics/faculty/griffiths.html Errata]]</sup> (better for students with little exposure to QM)
* Townsend - A Modern Approach to Quantum Mechanics (undergrad version of Sakurai)
* Shankar - Principles of Quantum Mechanics (better for students with stronger preparation)
Additionally, the following books take a more conceptual and foundational approach rather than problem solving focus the above have.
* Schumacher and Westmoreland - Quantum Processes, Systems, and Information
* David Bohm - Quantum Theory (Dover Books on Physics) (Sadly no Bohmian Mechanics, does a great job linking the development of quantum mechanics from classical mechanics)
* Peres - Quantum Theory: Concepts and Methods
And for philosophy of QM (by physicists who know what the fuck they're talking about):
* Bell - Speakable and Unspeakable in Quantum Mechanics: Collected Papers on Quantum Philosophy
* Max Jammer - The Philosophy of Quantum Mechanics: The Interpretations of Quantum Mechanics in Historical Perspective

==== Problem Books in QM ====
* Galitski, Karnakov, Kogan, and Galitski Jr - Exploring Quantum Mechanics: A Collection of 700+ Solved Problems for Students, Lecturers, and Researchers (Expanded version of Problems in Quantum Mechanics (Dover Books on Physics) by Kogan and Galitskiy)
* ter Haar - Problems in Quantum Mechanics (Dover Books on Physics)
* Squires - Problems in Quantum Mechanics: With Solutions
* Tamvakis - Problems and Solutions in Quantum Mechanics

=== <u>Special Topics</u> ===

==== <u>Optics</u> ====
* Fowles - Introduction to Modern Optics (Dover Books on Physics)
Unfortunately this is pretty much the only good book on Optics at this level, the standard books at most universities are Hecht's "Optics" and Pedrotti, Pedrotti & Pedrotti's "Introduction to Optics", both of these books are severely flawed and would be impossible to use for self-study.

For more information on optics, see EEE's [[Electrical and Electronics Engineering#Photonics and Optics|Photonics and Optics]] recommendations.

==== <u>Fluid Mechanics</u> ====
* Acheson - Elementary Fluid Dynamics
* Batchelor - An Introduction to Fluid Dynamics

==== <u>Acoustics</u> ====
* Kinsler - Fundamentals of Acoustics

==== <u>Solid State</u> ====
* Simon - The Oxford Solid State Basics (2013) <sup>[[https://podcasts.ox.ac.uk/series/oxford-solid-state-basics Online lectures by the author], [http://www-thphys.physics.ox.ac.uk/people/SteveSimon/book.html Site]]</sup>
* Harrison - Solid State Theory (1970) (Dover Books on Physics)
*Kittel - Introduction to solid state physics (2005)
* Ashcroft & Mermin - Solid State Physics (1976)
* Ziman - Principles of the Theory of Solids (1979)
* Mihály & Martin - Solid State Physics: Problems and Solutions (Supplement)
For more information on semiconductors, see EEE's [[Electrical and Electronics Engineering#Semiconductor Device Physics|Semiconductor Device Physics]] recommendations.

==== <u>Atomic Physics</u> ====
* Foot - Atomic Physics
* Bransden and Joachain - Physics of Atoms and Molecules
* Haken and Wolf - The Physics of Atoms and Quanta: Introduction to Experiments and Theory

==== <u>Nuclear Physics</u> ====
* Krane - Introductory Nuclear Physics
* Walecka - Theoretical Nuclear & Subnuclear Physics
See also [[Nuclear Science and Engineering]]

==== <u>Particle Physics</u> ====
* Griffiths - Introduction to Elementary Particles<sup>[[http://academic.reed.edu/physics/faculty/griffiths.html Errata]]</sup>
* Thomson - Modern Particle Physics
* Martin & Halzen - Quarks & Leptons 

==== <u>Astrophysics</u> ====
*Carroll and Ostlie - An Introduction to Modern Astrophysics
*Ryden - Introduction to Cosmology
*Choudhuri - Astrophysics for Physicists
See the [[Astronomy Textbook Recommendations]] for more advanced material on astrophysics.

==== <u>Relativity</u> ====
* Schutz - A First Course in General Relativity
* Kolecki/NASA - [http://ntrs.nasa.gov/archive/nasa/casi.ntrs.nasa.gov/20050175884.pdf Foundations of Tensor Analysis for Students of Physics and Engineering With an Introduction to the Theory of Relativity]
* Woodhouse - General Relativity (A continuation of his Special Relativity book, also mathematically brisk)
See also the Astronomy [[Astronomy Textbook Recommendations#General Relativity|General Relativity]] recommendations

==Graduate==

=== <u>Required Reading</u> ===
*Landau & Lifshitz - Course of Theoretical Physics Volumes 1-10:
*# Mechanics (Covers classical mechanics without special or general relativity, in the Lagrangian and Hamiltonian formalisms)
*# The Classical Theory of Fields (Covers relativistic mechanics of particles and classical field theory; specifically special relativity and electromagnetism, general relativity and gravitation)
*# Quantum Mechanics: Non-Relativistic Theory
*# Quantum Electrodynamics
*# Statistical Physics, Part 1 (Covers general statistical mechanics and thermodynamics and applications, including chemical reactions, phase transitions, and condensed matter physics)
*# Fluid Mechanics
*# Theory of Elasticity
*# Electrodynamics of Continuous Media
*# Statistical Physics, Part 2: Theory of the Condensed State
*# Physical Kinetics
*Pauli Lectures on Physics: Volumes 1-6 (Dover Books on Physics)
*# Electrodynamics
*# Optics and the Theory of Electrons
*# Thermodynamics and the Kinetic Theory of Gases
*# Statistical Mechanics
*# Wave Mechanics
*# Selected Topics in Field Quantization
*Sommerfeld - Lectures on Theoretical Physics: Volumes 1-6 (Oldie and lesser known but still deserves love)
*#Mechanics
*#Mechanics of Deformable Bodies
*#Electrodynamics
*#Optics
*#Thermodynamics and Statistical Mechanics
*#Partial Differential Equations in Physics

=== <u>Analytical Mechanics</u> ===
* Goldstein - Classical Mechanics<sup>[http://astro.physics.sc.edu/goldstein/ <nowiki>[Errata and Bibliography]</nowiki>]</sup>
* Scheck - Mechanics
* Corben and Stehle - Classical Mechanics (Dover Books on Physics)
* Arnold - Mathematical Methods of Classical Mechanics
* Abraham and Marsden - Foundations of Mechanics (very advanced)
* Whittaker - [https://archive.org/details/treatisanalytdyn00whitrich A Treatise on the Analytical Dynamics of Particles and Rigid Bodies] (Classic reference)

=== <u>Classical Electrodynamics</u> ===
* Jackson - Classical Electrodynamics (Required hazing - no exceptions)
* Panofsky and Phillips - Classical Electricity and Magnetism (Dover Books on Physics)
* Smythe - Static And Dynamic Electricity (Harder than Jackson)
* Schwinger - Classical Electrodynamics
* Zangwill - Modern Electrodynamics
* Scheck - Classical Field Theory

=== <u>Statistical Mechanics</u> ===
* Reichl - A Modern Course in Statistical Physics
* Pathria and Beale - Statistical Mechanics
* Kardar - Statistical Physics of Particles

==== SM2: Statistical Field Theory ====
* Kardar - Statistical Physics of Fields
* Mussardo - Statistical Field Theory: An Introduction to Exactly Solved Models in Statistical Physics
* Giorgio Parisi - Statistical Field Theory

==== Computational Statistical Mechanics ====
* Tuckerman - Statistical Mechanics: Theory and Molecular Simulation
* Krauth - Statistical Mechanics: Algorithms and Computations

=== <u>Quantum Theory</u> ===
* Sakurai - Modern Quantum Mechanics
* Sakurai - Advanced Quantum Mechanics (dated but useful to bridge QM to QFT)
* Gottfried and Yan - Quantum Mechanics: Fundamentals[https://www.classe.cornell.edu/books/QM-I/ <sup><nowiki>[Errata]</nowiki></sup>] (Modern, rigorous, and complete)
2 more idiosyncratic books:
* Ballentine - Quantum Mechanics: A Modern Development (Uses the Ensemble interpretation rather than the Copenhagen interpretation)
* Weinberg - Lectures on Quantum Mechanics

==== QM References ====
* Messiah - Quantum Mechanics (Dover Books on Physics)
* Dirac - The Principles Of Quantum Mechanics (Classic)
* Cohen-Tannoudji, Diu, and Laloë - Quantum Mechanics: Volumes 1&2
* Schwinger - Quantum Mechanics: Symbolism of Atomic Measurements (An unique and different perspective on QM)
For culture and insight, see some of the influential papers on Quantum Theory on the [[History#Quantum Theory|History page]]

=== <u>Path Integrals</u> ===
* Feynman, Hibbs, and Styer - Quantum Mechanics and Path Integrals: Emended Edition (Dover Books on Physics)
* Schulman - Techniques and Applications of Path Integration (Dover Books on Physics)
* Kleinert - Path Integrals in Quantum Mechanics, Statistics, Polymer Physics, and Financial Markets

=== <u>Quantum Field Theories</u> ===
*Peskin & Schroeder - An Introduction to Quantum Field Theory [http://physics.weber.edu/schroeder/qftbook.html <sup><nowiki>[Errata]</nowiki></sup>]
*Schwartz - Quantum Field Theory and the Standard Model <sup>[http://www.schwartzqft.com/index.html <nowiki>[Errata]</nowiki>]</sup>
*Srednicki - Quantum Field Theory <sup>[[http://web.physics.ucsb.edu/~mark/qft.html Draft and errata]]</sup>
*Weinberg - The Quantum Theory of Fields
*Ryder - Quantum Field Theory 
*Itzykson & Zuber - Quantum Field Theory

=== <u>Many-Body Physics</u> ===
* Fetter and Walecka - Quantum Theory of Many-Particle Systems (Dover Books on Physics)
* Negele and Orland - Quantum Many-particle Systems
* Mahan - Many-Particle Physics
* Coleman - Introduction to Many-Body Physics
* Altland and Simons - Condensed Matter Field Theory

=== <u>General Relativity</u> ===
*Schutz - Geometrical Methods of Mathematical Physics
*Wald - General Relativity
*Misner, Thorne, & Wheeler - Gravitation
*Lightman, Press, Price, & Teukolsky - Problem Book in Relativity and Gravitation (supplement)

=== <u>Mathematics Resources</u> ===
* Hassani - Mathematical Physics: A Modern Introduction to Its Foundations
* Szekeres - A Course in Modern Mathematical Physics: Groups, Hilbert Space and Differential Geometry
* Nakahara - Geometry, Topology and Physics
* Frankel - The Geometry of Physics
* Reed & Simon - Methods of Modern Mathematical Physics I: Functional Analysis; II: Fourier Analysis, Self-Adjointness; III: Scattering Theory; IV: Analysis of Operators

=== <u>Quantum Field Theory in Curved Spacetime</u> ===
* Mukhanov and Winitzki - Introduction to Quantum Effects in Gravity
* Birrell and Davies - Quantum Fields in Curved Space
* Parker and Toms - Quantum Field Theory in Curved Spacetime: Quantized Fields and Gravity

=== <u>String Theory</u> ===
* Becker, Becker, and Schwarz - String Theory and M-Theory: A Modern Introduction
* Polchinski - String Theory, Volume I: An Introduction to the Bosonic String; II: Superstring Theory and Beyond
* Zwiebach - A First Course in String Theory (Approachable by an advanced undergraduate)
* Green, Schwarz and Witten - Superstring Theory 

== External Links ==

=== <u>Book Recommendations</u> ===
[https://www.ocf.berkeley.edu/~abhishek/chicphys.htm Chicago Undergraduate Physics Bibliography]

[http://www.staff.science.uu.nl/~gadda001/goodtheorist/index.html Gerard 't Hooft's guide on becoming a good theoretical physicist]

[http://physics.stackexchange.com/questions/12175/book-recommendations Stack Exchange Physics Book Recommendations]

[http://math.ucr.edu/home/baez/physics/Administrivia/booklist.html A Physics Book List: Recommendations from the Net]

[https://math.ucr.edu/home/baez/books.html#classical_mechanics How to Learn Math and Physics from John Baez]

[https://www.susanrigetti.com/physics So You Want To Learn Physics...]

[https://www.facebook.com/notes/science-and-mathematics/so-you-want-to-become-a-physicist/297531410342787 So You want To Become a Physicist? (A collection of physics books and notes for almost any subject.)]

[http://geometry.org/tex/conc/gauge_theory_qft_books.html a sketchy chronology of gauge theory and quantum field theory literature]

[https://theoreticalminimum.com/ The Theoretical Minimum (Website containing lectures from Leonard Susskind)]

=== <u>Other</u> ===
[http://scienceworld.wolfram.com/physics/ Wolfram Physics World]


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