Mathematical modeling | Randomized algorithms | Decision theory | Algorithmic information theory | Fuzzy logic | Information theory

Linear partial information

Linear partial information (LPI) is a method of making decisions based on insufficient or fuzzy information. LPI was introduced in 1970 by Polish–Swiss mathematician Edward Kofler (1911–2007) to simplify decision processes. Compared to other methods the LPI-fuzziness is algorithmically simple and particularly in decision making, more practically oriented. Instead of an indicator function the decision maker linearizes any fuzziness by establishing of linear restrictions for fuzzy probability distributions or normalized weights. In the LPI-procedure the decision maker linearizes any fuzziness instead of applying a membership function. This can be done by establishing stochastic and non-stochastic LPI-relations. A mixed stochastic and non-stochastic fuzzification is often a basis for the LPI-procedure. By using the LPI-methods any fuzziness in any decision situation can be considered on the base of the linear fuzzy logic. (Wikipedia).

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How to Determine if Functions are Linearly Independent or Dependent using the Definition

How to Determine if Functions are Linearly Independent or Dependent using the Definition If you enjoyed this video please consider liking, sharing, and subscribing. You can also help support my channel by becoming a member https://www.youtube.com/channel/UCr7lmzIk63PZnBw3bezl-Mg/join Th

From playlist Zill DE 4.1 Preliminary Theory - Linear Equations

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Every Subset of a Linearly Independent Set is also Linearly Independent Proof

Please Subscribe here, thank you!!! https://goo.gl/JQ8Nys A proof that every subset of a linearly independent set is also linearly independent.

From playlist Proofs

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Determining if a vector is a linear combination of other vectors

Please Subscribe here, thank you!!! https://goo.gl/JQ8Nys Determining if a vector is a linear combination of other vectors

From playlist Linear Algebra

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How to determine if an equation is a linear relation

👉 Learn how to determine if an equation is a linear equation. A linear equation is an equation whose highest exponent on its variable(s) is 1. The variables do not have negative or fractional, or exponents other than one. Variables must not be in the denominator of any rational term and c

From playlist Write Linear Equations

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What is a linear equation

👉 Learn about graphing linear equations. A linear equation is an equation whose highest exponent on its variable(s) is 1. i.e. linear equations has no exponents on their variables. The graph of a linear equation is a straight line. To graph a linear equation, we identify two values (x-valu

From playlist ⚡️Graph Linear Equations | Learn About

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Summary for graph an equation in Standard form

👉 Learn about graphing linear equations. A linear equation is an equation whose highest exponent on its variable(s) is 1. i.e. linear equations has no exponents on their variables. The graph of a linear equation is a straight line. To graph a linear equation, we identify two values (x-valu

From playlist ⚡️Graph Linear Equations | Learn About

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When do you know if a relations is in linear standard form

👉 Learn how to determine if an equation is a linear equation. A linear equation is an equation whose highest exponent on its variable(s) is 1. The variables do not have negative or fractional, or exponents other than one. Variables must not be in the denominator of any rational term and c

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Review of Linear Time Invariant Systems

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From playlist Introduction and Background

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Linear differential equations: how to solve

Free ebook http://bookboon.com/en/learn-calculus-2-on-your-mobile-device-ebook How to solve linear differential equations. In mathematics, linear differential equations are differential equations having differential equation solutions which can be added together to form other solutions.

From playlist A second course in university calculus.

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The quantum query complexity of sorting under (...) - J. Roland - Main Conference - CEB T3 2017

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From playlist 2017 - T3 - Analysis in Quantum Information Theory - CEB Trimester

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Lecture 5: Differential Forms (Discrete Differential Geometry)

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From playlist Discrete Differential Geometry - CMU 15-458/858

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Applied ML 2020 - 11 - Model Inspection and Feature Selection

Course materials at https://www.cs.columbia.edu/~amueller/comsw4995s20/schedule/

From playlist Applied Machine Learning 2020

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17 Machine Learning: Artificial Neural Networks

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From playlist Machine Learning

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Sascha Kurz : Divisible codes

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From playlist Combinatorics

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Sascha Husa (2) - Introduction to theory and numerics of partial differential equations

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From playlist Numerical Relativity

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Stanford CS224N: NLP with Deep Learning | Winter 2019 | Lecture 3 – Neural Networks

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From playlist Stanford CS224N: Natural Language Processing with Deep Learning Course | Winter 2019

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PDE FIND

We propose a sparse regression method capable of discovering the governing partial differential equation(s) of a given system by time series measurements in the spatial domain. The regression framework relies on sparsity promoting techniques to select the nonlinear and partial derivative

From playlist Research Abstracts from Brunton Lab

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Part IV: Matrix Algebra, Lec 4 | MIT Calculus Revisited: Multivariable Calculus

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From playlist MIT Calculus Revisited: Multivariable Calculus

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ML Tutorial: Probabilistic Numerical Methods (Jon Cockayne)

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From playlist Machine Learning Tutorials

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Linear Dependence of {x^2-1, x^2+x, x+1} Using Wronskian

ODEs: Consider the set of functions S = {x^2-1, x^2+x, x+1}. Is S a linearly dependent set? If not, find a relation in S. We test linear independence by computing the Wronskian.

From playlist Differential Equations

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Defuzzification | Uncertainty | Weight function | Expected value | Fuzzy set | List of set theory topics | Game theory | Indicator function | Fuzzy logic | Probability distribution | Stochastic | Algorithm | Vagueness | Stochastic process | Convolution