The National Science Foundation (NSF) Mathematical Sciences Institutes are a network of research institutes in the United States that focus on various areas of mathematical sciences, including pure mathematics, applied mathematics, statistics, and interdisciplinary fields. These institutes are supported by the NSF to promote research, training, and collaboration among mathematicians and scientists across different disciplines.
The Centre de Recherches Mathématiques (CRM) is a research center located in Montreal, Canada, that specializes in the field of mathematics. It is affiliated with the Université de Montréal and serves as a hub for mathematical research and collaboration. Founded in 1969, the CRM focuses on promoting and facilitating advanced mathematical research through various programs, including workshops, conferences, and collaborative research projects.
The Max Planck Institute for Mathematics in the Sciences (MPI MiS) is a research institution located in Leipzig, Germany. It is part of the Max Planck Society, which is renowned for its advanced scientific research across various disciplines. The MPI MiS focuses on the application of mathematical methods to address problems in the natural and social sciences. Established in 1996, the institute aims to foster interdisciplinary collaboration and promote innovations in areas such as mathematical physics, computational science, and data analysis.
The Norbert Wiener Center for Harmonic Analysis and Applications is a research center associated with the University of Maryland that focuses on various aspects of harmonic analysis and its applications in different fields. Named after the mathematician Norbert Wiener, who made significant contributions to areas such as harmonic analysis, control theory, and the foundations of cybernetics, the center serves as a hub for research, collaboration, and education in these areas.
The TIFR Centre for Applicable Mathematics (TCAM) is a research institution affiliated with the Tata Institute of Fundamental Research (TIFR) in India. Established in 2007 and located in Bengaluru (formerly Bangalore), TCAM focuses on the advancement of mathematical research and its applications in various fields. The center aims to promote research in critical areas of applied mathematics, including but not limited to areas such as mathematical modeling, numerical analysis, and computational methods.
The Borel hierarchy is a classification of certain sets in a topological space, particularly in the context of the real numbers and standard Borel spaces. This hierarchy ranks sets based on their complexity in terms of open and closed sets. The Borel hierarchy is crucial in descriptive set theory, a branch of mathematical logic and set theory dealing with the study of definable subsets of Polish spaces (completely metrizable separable topological spaces).
A. H. Lightstone is likely a reference to a specific individual, institution, or concept, but without additional context, it's difficult to provide a precise answer.
Agata Ciabattoni is a mathematician recognized for her contributions to various fields, including mathematical logic and set theory. She has worked on topics related to non-classical logics, forcing, model theory, and the foundations of mathematics. Ciabattoni is also known for her research in proof theory and has been involved in developing frameworks for understanding the structure of proofs.
Arthur Prior was a New Zealand philosopher and logician, best known for his contributions to the fields of modal logic and tense logic. He was born in 1914 and passed away in 1969. One of his most significant contributions is the development of "tense logic," which deals with the logical properties of statements that refer to time. Prior's work sought to formalize the way we discuss propositions in relation to time, distinguishing between past, present, and future events.
As of my last update in October 2023, there is no widely known person, book, or concept specifically identified as "Grant Olney." It's possible that it could refer to a private individual, a lesser-known figure, or a term that has gained relevance after my last update.
Henk Barendregt is a prominent Dutch mathematician and computer scientist known for his contributions to the fields of logic, type theory, and lambda calculus. He has worked extensively on topics related to the foundations of mathematics, automated theorem proving, and the formalization of mathematical concepts. Barendregt is particularly recognized for his work on the untyped and typed lambda calculi, as well as for his role in the development of proof assistants and formal verification methods.
Robert Goldblatt is a notable figure primarily known for his contributions to the fields of set theory and mathematical logic. He is recognized for his work on the foundations of mathematics, particularly in areas related to forcing, large cardinals, and the philosophy of mathematics. Goldblatt has also authored significant texts in mathematical logic, including books that explore set theory and logic from a philosophical perspective.
Models of computation are formal systems that describe how computations can be performed and how problems can be solved using different computational paradigms. They provide a framework for understanding the capabilities and limitations of different computational processes. Various models of computation are used in computer science to study algorithms, programming languages, and computation in general.
A color model is a mathematical representation of colors in a standardized way, allowing consistent communication and reproduction of colors across various devices and media. Color models are designed to represent colors using numbers and can be used in graphic design, photography, printing, and other applications. Here are some commonly used color models: 1. **RGB (Red, Green, Blue)**: This model is based on the additive color theory, where colors are created by combining red, green, and blue light.
The Schrödinger equation is a fundamental equation in quantum mechanics that describes how the quantum state of a physical system changes over time. It is a key principle in understanding wave functions and the behavior of particles at the quantum level. There are two forms of the Schrödinger equation: 1. **Time-dependent Schrödinger equation**: This form is used to describe how the quantum state evolves over time.
The Hilbert–Bernays paradox is a philosophical and logical issue related to the foundations of mathematics and formal systems, particularly concerning the relationship between provability and truth. The paradox arises in the context of formal systems and the principles that govern them. It highlights a potential clash between two different forms of reasoning: syntactic (formal proofs) and semantic (truth in models). Specifically, the paradox involves certain statements that can be proven within a formal system but that also have implications about their own provability.
The Society for Mathematics and Computation in Music (SMCM) is an organization dedicated to fostering research and collaboration at the intersection of mathematics, computation, and music. It serves as a platform for researchers, composers, musicians, and educators who are interested in exploring the mathematical and computational aspects of music theory, analysis, composition, and performance. SMCM typically organizes conferences, workshops, and seminars that promote the exchange of ideas and findings related to the application of mathematical concepts and computational methods to music.
Analytical mechanics is a branch of mechanics that uses mathematical methods to analyze physical systems, particularly in relation to motion and forces. It provides a framework for understanding classical mechanics through principles derived from physics and mathematics. The two primary formulations of analytical mechanics are: 1. **Lagrangian Mechanics**: This formulation is based on the principle of least action and utilizes the Lagrangian function, which is defined as the difference between the kinetic and potential energy of a system.

Pinned article: Introduction to the OurBigBook Project

Welcome to the OurBigBook Project! Our goal is to create the perfect publishing platform for STEM subjects, and get university-level students to write the best free STEM tutorials ever.
Everyone is welcome to create an account and play with the site: ourbigbook.com/go/register. We belive that students themselves can write amazing tutorials, but teachers are welcome too. You can write about anything you want, it doesn't have to be STEM or even educational. Silly test content is very welcome and you won't be penalized in any way. Just keep it legal!
We have two killer features:
  1. topics: topics group articles by different users with the same title, e.g. here is the topic for the "Fundamental Theorem of Calculus" ourbigbook.com/go/topic/fundamental-theorem-of-calculus
    Articles of different users are sorted by upvote within each article page. This feature is a bit like:
    • a Wikipedia where each user can have their own version of each article
    • a Q&A website like Stack Overflow, where multiple people can give their views on a given topic, and the best ones are sorted by upvote. Except you don't need to wait for someone to ask first, and any topic goes, no matter how narrow or broad
    This feature makes it possible for readers to find better explanations of any topic created by other writers. And it allows writers to create an explanation in a place that readers might actually find it.
    Figure 1.
    Screenshot of the "Derivative" topic page
    . View it live at: ourbigbook.com/go/topic/derivative
  2. local editing: you can store all your personal knowledge base content locally in a plaintext markup format that can be edited locally and published either:
    This way you can be sure that even if OurBigBook.com were to go down one day (which we have no plans to do as it is quite cheap to host!), your content will still be perfectly readable as a static site.
    Figure 2.
    You can publish local OurBigBook lightweight markup files to either https://OurBigBook.com or as a static website
    .
    Figure 3.
    Visual Studio Code extension installation
    .
    Figure 4.
    Visual Studio Code extension tree navigation
    .
    Figure 5.
    Web editor
    . You can also edit articles on the Web editor without installing anything locally.
    Video 3.
    Edit locally and publish demo
    . Source. This shows editing OurBigBook Markup and publishing it using the Visual Studio Code extension.
    Video 4.
    OurBigBook Visual Studio Code extension editing and navigation demo
    . Source.
  3. https://raw.githubusercontent.com/ourbigbook/ourbigbook-media/master/feature/x/hilbert-space-arrow.png
  4. Infinitely deep tables of contents:
    Figure 6.
    Dynamic article tree with infinitely deep table of contents
    .
    Descendant pages can also show up as toplevel e.g.: ourbigbook.com/cirosantilli/chordate-subclade
All our software is open source and hosted at: github.com/ourbigbook/ourbigbook
Further documentation can be found at: docs.ourbigbook.com
Feel free to reach our to us for any help or suggestions: docs.ourbigbook.com/#contact