Translator (computing): Difference between revisions

Revision as of 14:32, 22 May 2024

Latest revision as of 17:44, 16 July 2025

(8 intermediate revisions by 7 users not shown)

Line 5:

{{Use dmy dates|date=February 2020|cs1-dates=y}}

A '''translator''' or '''programming language processor''' is a [[computer program]] that converts the programming instructions written in human convenient form into machine language codes that the computers understand and process. It is a generic term that can refer to a [[compiler]], [[assembler (computing)|assembler]], or [[interpreter (computing)|interpreter]]&mdash;anything that converts code from one computer language into another.<ref name="MCT"/><ref name="Intel_1983_SH"/> These include translations between [[high-level language|high-level]] and human-readable computer languages such as [[C++]] and [[Java (programming language)|Java]], intermediate-level languages such as [[Java bytecode]], [[low-level language]]s such as the [[assembly language]] and [[machine code]], and between similar levels of language on different [[computing platform]]s, as well as from any of these to any other of these.<ref name="MCT"/> Software and hardware represent different levels of abstraction in computing. Software is typically written in high-level programming languages, which are easier for humans to understand and manipulate, while hardware implementations involve low-level descriptions of physical components and their interconnections. Translator computing facilitates the conversion between these abstraction levels.<ref>{{Cite web |last=Beaulieu |first=Adrien |date=2022 |title=A15. Front-End and Back-End Technologies: The Importance of Proficiency in Multiple Programming Languages |url=https://product.house/front-end-and-back-end-technologies-the-importance-of-proficiency-in-multiple-programming-languages/}}</ref> Overall, translator computing plays a crucial role in bridging the gap between software and hardware implementations, enabling developers to leverage the strengths of each platform and optimize performance, power efficiency, and other metrics according to the specific requirements of the application.<ref>{{Cite web |last=Pagadala |first=Santosh Kumar |date=2004 |title=Portable implementation of computer aided design environment for composite structures |url=https://researchrepository.wvu.edu/cgi/viewcontent.cgi?article=2455&context=etd}}</ref>

Software and hardware represent different levels of abstraction in computing. Software is typically written in high-level programming languages, which are easier for humans to understand and manipulate, while hardware implementations involve low-level descriptions of physical components and their interconnections. Translator computing facilitates the conversion between these abstraction levels.<ref>{{Cite web |last=Beaulieu |first=Adrien |date=2022 |title=A15. Front-End and Back-End Technologies: The Importance of Proficiency in Multiple Programming Languages |url=https://product.house/front-end-and-back-end-technologies-the-importance-of-proficiency-in-multiple-programming-languages/}}</ref> Overall, translator computing plays a crucial role in bridging the gap between software and hardware implementations, enabling developers to leverage the strengths of each platform and optimize performance, power efficiency, and other metrics according to the specific requirements of the application.<ref>{{Cite web |last=Pagadala |first=Santosh Kumar |date=2004 |title=Portable implementation of computer aided design environment for composite structures |url=https://researchrepository.wvu.edu/cgi/viewcontent.cgi?article=2455&context=etd}}</ref>

== Programming Language Processors ==

== Programming Languagelanguage Processorsprocessors ==

The software development process is noticeably different depending on the type of translator used by a developer, this of course differs from translator to translator. Stages of the development process that are influenced by a translator include the initial programming stage, the [[debugging]] stage, and most notably the execution process. Factors that are affected during these stages include code performance, feedback speed for the debugging process, language features, and platform independence. Some of the more notable programming language processors used to translate code are [[Compiler|compilers]], [[Interpreter (computing)|interpreters]], and [[Assembly language|assemblers]].<ref name=":0">{{Cite web |date=2018-08-09 |title=Language Processors: Assembler, Compiler and Interpreter |url=https://www.geeksforgeeks.org/language-processors-assembler-compiler-and-interpreter/ |access-date=2024-03-15 |website=GeeksforGeeks |language=en-US}}</ref>

=== Compilers ===

Compiler software interacts with [[source code]] by converting it typically from a higher-level programming language into [[object code]] that can later be executed by the computer's [[Centralcentral processing unit|Central Processing Unit]] (CPU).<ref name=":1">{{Cite web |title=CSE 5317/4305: Design and Construction of Compilers |url=https://lambda.uta.edu/cse5317/notes/short.html |access-date=2024-03-15 |website=lambda.uta.edu}}</ref> The object code created by the compiler consists of [[Machine code|machine-readable code]] that the computer can process. This stage of the computing process is known as compilation. Utilizing a compiler leads to separation in the translation and execution process. After compilation, the new object code is saved separately from the source code resulting in the source code no longer being required for the execution process. With compiler programs, the translation processis occursa one-time process which results in efficient code that can be executed quickly for any number of times.<ref name=":1" />

There are clear benefits when translating high-level code with a compiler.<ref name=":2">{{Cite web |date=March 15, 2024 |title=Translator Types |url=https://adacomputerscience.org/concepts/trans_assembler_compiler_interpreter?examBoard=all&stage=all |access-date=March 15, 2024 |website=Ada Computer Science}}</ref>

Line 20 ⟶ 22:

There are clear disadvantages when translating high-level code with a compiler.<ref name=":2" />

[[File:Compiler scheme (en).pngsvg|thumb|This image represents the translation process through a compiler.]]

* Object code produced during compilation is specific to a machine's [[instruction set architecture]] (ISA). This results in object code that is dependent on a specific type of machine in order to run.

Line 34 ⟶ 36:

* [[PL/I]]

* [[Java (programming language)|Java]]

* [[Rexx|REXX]]

=== Interpreters ===

Line 62 ⟶ 64:

Commonly used assemblers include:

* [[X86 assembly language|x86 assembly languages]] (used in intelIntel and AMD processors)<ref name=":4">{{Cite journal |last=Stokoe |first=William |date=May 6, 2024 |title=sign language structure |url=https://www.lenovo.com/us/en/glossary/assembly-language/ |access-date=2024-03-15 |journal=Annual Review of Anthropology |volume=9 |pages=365–390 |doi=10.1146/annurev.an.09.100180.002053 |language=English|url-access=subscription }}</ref>

* [[ARM Assembly Language Programming|ARM assembly language]] (used in mobile devices)<ref name=":4" />

* [[MIPS architecture|MIPS]] assembly language (used in gaming consoles)<ref name=":4" />

* [[PowerPC]] assembly language<ref name=":4" />

* [[Little Computer 3|LC-3]] assembly language (used primarily in education and to program the LC-3 computer) <ref name=":3" />

==See also==

Line 94 ⟶ 93:

[[Category:Programming language implementation]]

{{software-type-stub}}