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AI Programming Languages of the Future!





AI Programming Languages of the Future!


An assortment of AI madness that is shaping up the world into the future!




DeepCoder

We develop a first line of attack for solving programming competition-style problems from input-output examples using deep learning. The approach is to train a neural network to predict properties of the program that generated the outputs from the inputs. We use the neural network's predictions to augment search techniques from the programming languages community, including enumerative search and an SMT-based solver. Empirically, we show that our approach leads to an order of magnitude speedup over the strong non-augmented baselines and a Recurrent Neural Network approach, and that we are able to solve problems of difficulty comparable to the simplest problems on programming competition websites.”

Link

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2017-09-22 15_30_24-DeepCoder_ Microsoft's New AI Writes Code For People Who Don't Know Coding.jpg








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2017-09-22 15_30_52-DeGuard _ Statistical Deobfuscation for Android.jpg



2017-09-22 15_31_02-JS NICE_ Statistical renaming, Type inference and Deobfuscation.jpg



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Facebook researchers were able to reduce the time to train the ImageNet-1k dataset of over 1.2 million images from multiple days to one hour with leading classification accuracy. The team achieved this result with Caffe2 and the Gloo library for collective communication — both available on GitHub — and Big Basin, Facebook's next-generation GPU server, the design for which was contributed to the Open Compute Project earlier this year.

Similar ideas have been used for planning in game environments but have never been applied to language because the number of possible actions is much higher. To improve efficiency, the researchers first generated a smaller set of candidate utterances to say, and then for each of these, they repeatedly simulated the complete future of the dialog in order to estimate how successful they were. The prediction accuracy of this model is high enough that the technique dramatically improved negotiation tactics in the following areas:

Negotiating harder: The new agents held longer conversations with humans, in turn accepting deals less quickly. While people can sometimes walk away with no deal, the model in this experiment negotiates until it achieves a successful outcome.

Intelligent maneuvers: There were cases where agents initially feigned interest in a valueless item, only to later “compromise” by conceding it — an effective negotiating tactic that people use regularly. This behavior was not programmed by the researchers but was discovered by the bot as a method for trying to achieve its goals.

Producing novel sentences: Although neural models are prone to repeating sentences from training data, this work showed the models are capable of generalizing when necessary.

Paradigms of AI Programming Source Code
This page is the index for the Lisp source code files for the book Paradigms of Artificial Intelligence Programming. The code is offered as open source freeware under this license. You can browse all the files in this directory.
Installation Instructions
   Download the file paip.zip and unzip it.   You must have a lisp compiler/interpreter.   To test all the code, start lisp and do the following at the interactive prompt:
   (load "auxfns.lisp")   (requires "examples")   (do-examples :all)
   This should print out a long list of inputs and outputs, and the last output should be the total number of errors. If all goes well, this should be "0".

Use
To use the code, edit any of the files or add new files. You will always have to do (load "auxfns.lisp") first, and you will typically have to do (requires "file"), for various instances of file that you want to use.

The function "requires" is used for a primitive form of control over what files require other files to be loaded first. If "requires" does not work properly on your system you may have to alter its definition, in the file "auxfns.lisp". For more complicated use of these files, you should follow the guidelines for organizing files explained in Chapter 24.

The function do-examples, which takes as an argument either :all or a chapter number or a list of chapter numbers, can be used to see examples of the use of various functions. For example, (do-examples 1) shows the examples from chapter 1.
The Files
The index below gives the chapter in the book, file name, and short description for each file.

CH
    Filename    Description
-
    README.html    This file: explanation and index
-
    examples.lisp    A list of example inputs taken from the book
-
    tutor.lisp    An interpreter for running the examples
24
    loop.lisp    Load this first if your Lisp doesn't support ANSI LOOP
-
    auxfns.lisp    Auxiliary functions; load this before anything else
1
    intro.lisp    A few simple definitions
2
    simple.lisp    Random sentence generator (two versions)
3
    overview.lisp    14 versions of LENGTH and other examples
4
    gps1.lisp    Simple version of General Problem Solver
4
    gps.lisp    Final version of General Problem Solver
5
    eliza1.lisp    Basic version of Eliza program
5
    eliza.lisp    Eliza with more rules; different reader
6
    patmatch.lisp    Pattern Matching Utility
6
    eliza-pm.lisp    Version of Eliza using utilities
6
    search.lisp    Search Utility
6
    gps-srch.lisp    Version of GPS using the search utility
7
    student.lisp    The Student Program
8
    macsyma.lisp    The Macsyma Program
8
    macsymar.lisp    Simplification and integration rules for Macsyma
9-10
         (no files; important functions in auxfns.lisp   
11
    unify.lisp    Unification functions
11
    prolog1.lisp    First version of Prolog interpreter
11
    prolog.lisp    Final version of Prolog interpreter
12
    prologc1.lisp    First version of Prolog compiler
12
    prologc2.lisp    Second version of Prolog compiler
12
    prologc.lisp    Final version of Prolog compiler
12
    prologcp.lisp    Primitives for Prolog compiler
13
    clos.lisp    Some object-oriented and CLOS code
14
    krep1.lisp    Knowledge Representation code: first version
14
    krep2.lisp    Knowledge Representation code with conjunctions
14
    krep.lisp    Final KR code: worlds and attached functions
15
    cmacsyma.lisp    Efficient Macsyma with canonical form
16
    mycin.lisp    The Emycin expert system shell
16
    mycin-r.lisp    Some rules for a medical application of emycin
17
    waltz.lisp    A Line-Labeling program using the Waltz algorithm
18
    othello.lisp    The Othello playing program and some strategies
18
    othello2.lisp    Additional strategies for Othello
18
    edge-tab.lisp    Edge table for Iago strategy
19
    syntax1.lisp    Syntactic Parser
19
    syntax2.lisp    Syntactic Parser with semantics
19
    syntax3.lisp    Syntactic Parser with semantics and preferences
20
    unifgram.lisp    Unification Parser
21
    grammar.lisp    Comprehensive grammar of English
21
    lexicon.lisp    Sample Lexicon of English
22
    interp1.lisp    Scheme interpreter, including version with macros
22
    interp2.lisp    A tail recurive Scheme interpreter
22
    interp3.lisp    A Scheme interpreter that handles call/cc
23
    compile1.lisp    Simple Scheme compiler
23
    compile2.lisp    Compiler with tail recursion and primitives
23
    compile3.lisp    Compiler with peephole optimizer
23
    compopt.lisp    Peephole optimizers for compile3.lisp




TensorFlow

TensorFlow™ is an open source software library for numerical computation using data flow graphs. Nodes in the graph represent mathematical operations, while the graph edges represent the multidimensional data arrays (tensors) communicated between them. The flexible architecture allows you to deploy computation to one or more CPUs or GPUs in a desktop, server, or mobile device with a single API. TensorFlow was originally developed by researchers and engineers working on the Google Brain Team within Google's Machine Intelligence research organization for the purposes of conducting machine learning and deep neural networks research, but the system is general enough to be applicable in a wide variety of other domains as well.

GitHub

An open-source software library for Machine Intelligence

https://www.tensorflow.org/




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Programming Languages For (AI):




LISP:




In the 1970s and 1980s, Lisp was the best developed and most widely used language that offered the following set of features:



  1. Easy dynamic creation of new objects, with automatic garbage collection,
  2. A library of collection types, including dynamically-sized lists and hashtables,
  3. A development cycle that allows interactive evaluation of expressions and re-compilation of functions or files while the program is running,
  4. Well-developed compilers that could generate efficient code,
  5. A macro system that let developers create a domain-specific level of abstraction on which to build the next level.
These five features are valuable for programming in general, but especially for exploratory problems where the solution is not clear at the onset; thus Lisp was a great choice for AI research.  Over the years, these features started migrating into other languages, and Lisp no longer had a unique position; today, (5) is the only remaining feature in which Lisp excels compared to other languages.



Lisp fares well in the AI field because of its excellent prototyping capabilities and its support for symbolic expressions. It's a powerful programming language and is used in major AI projects, such as Macsyma, DART, and CYC. There are many dialects of Lisp in use today, among which are Common Lisp, Scheme, and Clojure.



The Lisp language is mostly used in the Machine Learning/ ILP sub-field because of its usability and symbolic structure. Peter Norvig, the famous computer scientist who works extensively in the AI field, and also the writer of the famous AI book, “Artificial Intelligence: A modern approach,” explains why Lisp is one of the top programming languages for AI development in a Quora answer.



PROLOG:




Prolog is a high-level programming language based on formal logic. Unlike traditional programming languages that are based on performing sequences of commands, Prolog is based on defining and then solving logical formulas. Prolog is sometimes called a declarative language or a rule-based language because its programs consist of a list of facts and rules. Prolog is used widely for artificial intelligence applications, particularly expert systems.



Prolog stands alongside Lisp when it comes to usefulness and usability. According to the literature, Prolog Programming for Artificial Intelligence, Prolog is one of those programming languagesfor some basic mechanisms, which can be extremely useful for AI programming. For example, it offers pattern matching, automatic backtracking, and tree-based data structuring mechanisms. Combining these mechanisms provides a flexible framework to work with.



Prolog is extensively used in expert systems for AI and is also useful for working on medical projects.





Java:




Java uses several ideas from Lisp, most notably garbage collection. Its portability makes it desirable for just about any application, and it has a decent set of built-in types. Java is still not as high-level as Lisp or Prolog, and not as fast as C.



Java is also a great choice. It is an object-oriented programming language that focuses on providing all the high-level features needed to work on AI projects, it's portable, and it offers in-built garbage collection. The Java community is also a plus point as there will be someone to help you with your queries and problems.



Java is also a good choice as it offers an easy way to code algorithms, and AI is full of algorithms, be they search algorithms, natural language processing algorithms or neural networks. Not to mention that Java also allows for scalability, which is a must-have feature for AI projects.



Python:




Python is the preferred choice of many to start with artificial intelligence because Python is one of the easiest and the fastest programming language out there, Mostly AI developers suggest Python for Artificial Intelligence development.



Python is one of the most widely used programming languages in the AI field of Artificial Intelligence thanks to its simplicity. It can seamlessly be used with the data structures and other frequently used AI algorithms.



The choice of Python for AI projects also stems from the fact that there are plenty of useful libraries that can be used in AI. For example, Numpy offers scientific computation capability, Scypy for advanced computing and Pybrain for machine learning in Python.



Haskell AI:




Most of the major algorithms are already available via cabal. Additionally, Haskell has CUDA bindings and is compiled to bytecode, and because it’s stateless and functional, programs can easily be executed on multiple CPUs in the cloud. So overall it’s an excellent language for AI development.



C++




C++ is the fastest programming language in the world. Its ability to talk at the hardware level enables developers to improve their program execution time. C++ is extremely useful for AI projects, which are time-sensitive. Search engines, for example, can utilize C++ extensively.



In AI, C++ can be used for statistical AI techniques like those found in neural networks. Algorithms can also be written extensively in the C++ for speed execution, and AI in games is mostly coded in C++ for faster execution and response time.

Modules

Each time your bot responds, that reply corresponds with a "Module".

Collectively, a series of modules create and define the flow of conversation. It is possible to create complex flows of conversation through the use of Connections.

There are several types of modules, each of which have slightly different behavior. The types of modules you choose to utilize depends on the type of bot you're creating, and the data you would like to gather.

   

Module Types    

When you click the "Add Module" button for your bot, you will see a list of module types. Below is our current set of offered module types, with a description and example of usage.   

The simplest of modules, bot statement is best for situations when you have no expectation of what the user's response might be. Think of it as a free-form text field.

Intended for situations where a number of defined options or answers exist to a given question.






NumPy




NumPy is the fundamental package for scientific computing with Python. It contains among other things:



  • a powerful N-dimensional array object
  • sophisticated (broadcasting) functions
  • tools for integrating C/C++ and Fortran code
  • useful linear algebra, Fourier transform, and random number capabilities
Besides its obvious scientific uses, NumPy can also be used as an efficient multi-dimensional container of generic data. Arbitrary data-types can be defined. This allows NumPy to seamlessly and speedily integrate with a wide variety of databases.



NumPy is licensed under the BSD license, enabling reuse with few restrictions.






For more information on the SciPy Stack (for which NumPy provides the fundamental array data structure), see scipy.org.



SciPy (pronounced “Sigh Pie”) is a Python-based ecosystem of open-source software for mathematics, science, and engineering. In particular, these are some of the core packages:
numpy

NumPy

Base N-dimensional array package
scipy

SciPy library

Fundamental library for scientific computing
matplotlib

Matplotlib

Comprehensive 2D Plotting
ipython

IPython

Enhanced Interactive Console
sympy

Sympy

Symbolic mathematics
pandas badge

pandas

Data structures & analysis



PyBrain is a modular Machine Learning Library for Python. Its goal is to offer flexible, easy-to-use yet still powerful algorithms for Machine Learning Tasks and a variety of predefined environments to test and compare your algorithms.
PyBrain is short for Python-Based Reinforcement Learning, Artificial Intelligence and Neural Network Library. In fact, we came up with the name first and later reverse-engineered this quite descriptive "Backronym".

How is PyBrain different?

While there are a few machine learning libraries out there, PyBrain aims to be a very easy-to-use modular library that can be used by entry-level students but still offers the flexibility and algorithms for state-of-the-art research. We are constantly working on more and faster algorithms, developing new environments and improving usability.

What PyBrain can do

PyBrain, as its written-out name already suggests, contains algorithms for neural networks, for reinforcement learning (and the combination of the two), for unsupervised learning, and evolution. Since most of the current problems deal with continuous state and action spaces, function approximators (like neural networks) must be used to cope with the large dimensionality. Our library is built around neural networks in the kernel and all of the training methods accept a neural network as the to-be-trained instance. This makes PyBrain a powerful tool for real-life tasks.

Using PyBrain

PyBrain is open source and free to use for everyone (it is licensed under the BSD Software Licence). Just download it and start using the algorithms and modules in your own project or have a look at the provided tutorials and examples. If you use PyBrain for your research, we kindly ask you to cite us in your publications. Use the reference below or import this bibtex reference.



You will also have no problems learning Python for AI as there are tons of resources available online.




Other AI Languages



      AIML: ( "Artificial Intelligence Markup Language") a XML dialect with A.L.I.C.E.-type chatterbots.



  Smalltalk used for simulations, neural networks, machine learning and genetic algorithms; a form of object-oriented programming using message passing.

   IPL: first language developed for artificial intelligence. Includes features intended to support programs that perform general problem solving like in lists, associations, schemas , dynamic memory allocation, data types, recursion, associative retrieval, functions as arguments, generators, & cooperative multitasking.



Haskell  another programming language for AI. Lazy evaluation and the list and LogicT monads make it easy to express non-deterministic algorithms. Infinite data structures for search trees. The language's features enable a compositional way of expressing the algorithms.
   POP-11 a reflective, incrementally compiled programming language with many of the features of an interpreted language; a core language of Poplog programming environment developed originally by University of Sussex, and recently in the School of Computer Science at the University of Birmingham  - often used to introduce symbolic programming techniques to programmers of more conventional languages like Pascal, who find POP syntax more familiar than that of Lisp. POP-11's features is that it supports first-class functions.



   Wolfram Language includes a wide range of integrated machine learning capabilities, from highly automated functions like Predict and Classify to functions based on specific methods and diagnostics. The functions work on many types of data, including numerical, categorical, time series, textual, and image.



   STRIPS a language for expressing automated planning problem instances. It expresses an initial state, the goal states, and a set of actions. For each action preconditions and postconditions are specified.

   Planner a hybrid between procedural and logical languages. It gives a procedural interpretation to logical sentences where implications are interpreted with pattern-directed inference.
  
   
   MATLAB   Perl





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