Logical and Mathematical Methods for the IBM Microcomputers will teach professionals how to best understand and use the mathematical capabilities of the IBM microcomputers. It is the first book to combine both logic programming and mathematical programming concepts within an understandable and useable framework. The book focuses on the 8087 family of coprocessors, including the 8087, 80287, and the 80387 coprocessors. It shows the manipulation of matrix structures in the computerized solution of linear systems, develops combinatorial and brute-force methods for finding heuristic solutions to mathematical problems that defy traditional analytical procedures, and features coverage of the logical foundation of computer simulations and modeling, including the modeling of human intelligence in neural networks. Discussions regarding the use of Boolean Algebra in the design of electronic circuits are also presented. Logical and Mathematical Methods for the IBM Microcomputers is ideal for computer scientists, computer engineers, electrical engineers, mathematicians and other scientists who use the current family of IBM coprocessors in their computers.

Crash course in computer numbering systems; Introduction to Assembly language programming; Using an Assembler; The 8088 instruction set; High-precision mathematics; Operating on data structures; Using the system resources; Graphics made easy; Let there be sound! Macros; Object libraries; Structured programming; 8087 math coprocessor.

The most comprehensive treatment of advanced assembler programming ever published, this book presents a way of programming that involves intuitive, right-brain thinking. Also probes hardware aspects that affect code performance and compares programming techniques.

Software requirements for engineering and scientific applications are almost always computational and possess an advanced mathematical component. However, an application that calls for calculating a statistical function, or performs basic differentiation of integration, cannot be easily developed in C++ or most programming languages. In such a case, the engineer or scientist must assume the role of software developer. And even though scientists who take on the role as programmer can sometimes be the originators of major software products, they often waste valuable time developing algorithms that lead to untested and unreliable routines. Software Solutions for Engineers and Scientists addresses the ever present demand for professionals to develop their own software by supplying them with a toolkit and problem-solving resource for developing computational applications. The authors' provide shortcuts to avoid complications, bearing in mind the technical and mathematical ability of their audience. The first section introduces the basic concepts of number systems, storage of numerical data, and machine arithmetic. Chapters on the Intel math unit architecture, data conversions, and the details of math unit programming establish a framework for developing routines in engineering and scientific code. The second part, entitled Application Development, covers the implementation of a C++ program and flowcharting. A tutorial on Windows programming supplies skills that allow readers to create professional quality programs. The section on project engineering examines the software engineering field, describing its common qualities, principles, and paradigms. This is followed by a discussion on the description and specification of software projects, including object-oriented approaches to software development. With the introduction of this volume, professionals can now design effective applications that meet their own field-specific requirements using modern tools and technology.

This introduction to the organization and programming of the 8086 family of microprocessors used in IBM microcomputers and compatibles is comprehensive and thorough. Includes coverage of I/O control, video/graphics control, text display, and OS/2. Strong pedagogy with numerous sample programs illustrates practical examples of structured programming.

Unlike high-level languages such as Java and C++, assembly language is much closer to the machine code that actually runs computers; it's used to create programs or modules that are very fast and efficient, as well as in hacking exploits and reverse engineering Covering assembly language in the Pentium microprocessor environment, this code-intensive guide shows programmers how to create stand-alone assembly language programs as well as how to incorporate assembly language libraries or routines into existing high-level applications Demonstrates how to manipulate data, incorporate advanced functions and libraries, and maximize application performance Examples use C as a high-level language, Linux as the development environment, and GNU tools for assembling, compiling, linking, and debugging