System and method for network-based computing

• US 7,707,563 B2
• Filed: 01/09/2004
• Issued: 04/27/2010
• Est. Priority Date: 01/10/2003
• Status: Expired due to Fees

• Current Assignee: EMC Corporation (Dell Technologies Inc.), Nexaweb Inc., Nfxawfb Technologies Incorporated
• Original Assignee: Nexaweb Technologies Inc.
• Inventors: Wei, Coach K.
• Primary Examiner(s): Vo; Ted T
• Application Number:
  US10/754,782
• Publication Number:
  US 20040143823A1
• Time in Patent Office: 2,300 Days
• Field of Search: 717100-108, 717114-118, 717136-148, 717/165, 717/124, 709/203
• US Class Current: 717/140
• CPC Class Codes: G06F 8/41 Compilation
• CPC Class Codes: H04L 67/142 Managing session states for stateless protocols; Signalling session states; State transitions; Keeping-state mechanisms

Abstract

A network-based computing system that automates, simplifies, and optimizes the compilation, deployment, and execution of an application by any type of a client machine connected to a server via any type of a network connection. The system includes a client runtime environment, a server runtime environment and an object-oriented markup-business logic binding mechanism. The client runtime environment manages client side code and screen definitions. The server runtime environment dynamical compiles code to ensure client platform compatibility. The system delivers network applications on demand, by separating them into lightweight modules and delivering these modules.

Claims

1. A universal compiler stored in a computer and adapted to receive a plurality of input files, and convert any of said plurality of input files into an output file, wherein said plurality of input files comprise a source code of an application written in a plurality of different programming languages, respectively, and said output file comprises an executable code of said application, and wherein said executable code is directly executable by an execution engine, said universal compiler comprising;

a plurality of specific programming language compilers, wherein each of said plurality of specific programming language compilers is adapted to receive an input file from said plurality of input files comprising said source code of said application written in a specific programming language and to convert said input file into a specific executable code of said application, wherein said specific executable code is directly executable by a specific execution engine; and

a control logic for selecting a specific programming language compiler from said plurality of specific programming language compilers.

2. The universal compiler of claim 1 wherein said programming languages are selected from a group consisting of Java™

, JavaScript™

, C#, C+, C++, Visual Basic™

, J#, ActionScript, XSL, XQuery, and XPath™

.

3. The universal compiler of claim 1 wherein said executable code comprises a Java™

Virtual Machine bytecode and said execution engine comprises a Java™

Virtual Machine.

4. The universal compiler of claim 1 wherein said executable code comprises a .NET Common Language Runtime (CLR) bytecode and said execution engine comprises a .NET CLR engine.

5. The universal compiler of claim 1 wherein said executable code comprises a Flash player bytecode and said execution engine comprises a Flash player.

6. A compiler system stored in a computer and adapted to receive a plurality of input files, and convert any of said plurality of input files into a plurality of output files, wherein said plurality of input file comprises a source code of an application written in a plurality of different programming languages, respectively, and said plurality of output files comprise a plurality of executable codes of said application, respectively, and wherein said plurality of executable codes are executable by a plurality of execution engines, respectively, said compiler system comprising;

a plurality of universal compilers wherein each universal compiler comprises a plurality of specific programming language compilers, and wherein said plurality of specific programming language compilers are adapted to receive an input file from said plurality of input files comprising said source code of said application written in a specific programming language and to convert said input file into a specific executable code of said application, wherein said specific executable code is executable by a specific execution engine; and

a first control logic for selecting a universal programming language compiler from said plurality of universal programming language compilers.

7. The compiler system of claim 6 further comprising a second control logic for caching said plurality of executable codes.

8. The compiler system of claim 6 wherein said programming languages are selected from a group consisting of Java™

, JavaScript™

, C#, C+, C++, Visual Basic™

, J#, ActionScript, XSL, XQuery, and XPath™

.

9. The compiler system of claim 6 wherein said executable codes are selected from a group consisting of a Java™

Virtual Machine bytecode, a .NET CLR bytecode, a Flash player bytecode, a Palm™

OS bytecode, Symbian OS™

bytecode, and Qualcomm Brew bytecode, and said corresponding execution engines are selected from a group consisting of a Java™

Virtual Machine, a .NET CLR engine, a Flash player, Palm™

OS, Symbian OS™

, and Qualcomm Brew engine, respectively.

10. A distributed computing system comprising:

a server including a universal compiler, wherein said universal compiler is adapted to receive a plurality of input files, and convert any of said plurality of input files into an output file, wherein said plurality of input files comprise a source code of an application written in a plurality of programming languages, respectively, and said output file comprises an executable code of said application, said universal compiler comprising a plurality of specific programming language compilers, wherein each of said plurality of specific programming language compilers is adapted to receive an input file from said plurality of input files comprising said source code of said application written in a specific programming language and to convert said input file into a specific executable code of said application, wherein said specific executable code is executable by a specific execution engine and said universal compiler further comprising a control logic for selecting a specific programming language compiler from said plurality of specific programming language compilers; and

at least one client machine adapted to connect to said server via a network and comprising an execution engine adapted to receive said output file over said network and to execute said executable code.

11. A distributed computing system comprising:

a server including a compiler system adapted to receive a plurality of input files, and convert any of said plurality of input files into a plurality of output files, wherein said plurality of input files comprise a source code of an application written in a plurality of different programming languages, respectively, and said plurality of output files comprise a plurality of corresponding executable codes of said application, respectively, said compiler system comprising a plurality of universal compilers wherein each universal compiler comprises a plurality of specific programming language compilers, and wherein said plurality of specific programming language compilers are adapted to receive an input file from said plurality of input files comprising said source code of said application written in a specific programming language and to convert said input file into a specific executable code of said application, wherein said specific executable code is executable by a specific execution engine, and said compiler system further comprising a first control logic for selecting a universal programming language compiler from said plurality of universal programming language compilers; and

a plurality of client machines, wherein each of said plurality of client machines is adapted to connect to said server via a network and comprises an execution engine adapted to receive one of said output files and to execute the corresponding executable code.

12. A universal XML compiler stored in a computer and adapted to receive a plurality of input files, and convert any of said plurality of input files into an output file, wherein said plurality of input files comprise a plurality of markup documents written in a plurality of different XML languages, respectively, and said output file comprises an executable code, and wherein said executable code is executable by a certain execution engine, said universal XML compiler comprising:

a plurality of specific XML language compilers, wherein each of said plurality of specific XML language compilers is adapted to receive an input file from said plurality of input files comprising said markup documents written in a specific XML language and to convert said input file into an executable code, wherein said executable code is executable by a certain execution engine; and

a control logic for selecting a specific XML language compiler from said plurality of specific XML language compilers.

13. The universal XML compiler of claim 12 wherein said XML languages are selected from a group consisting of XML, XUL, SVG, Xforms, XAML, HTML, XHTML™

, HTML related languages, and combinations thereof.

14. The universal compiler of claim 12 wherein said executable code comprises an XML language format and said certain execution engine comprises an XML execution engine.

15. The universal compiler of claim 12 wherein said executable code comprises a binary format and said certain execution engine comprises an engine that executes said binary format.

16. The universal compiler of claim 15 wherein said binary format is selected from a group consisting of Java™

Virtual Machine bytecode, .NET CLR bytecode, Palm™

OS bytecode, Flash player bytecode, Symbian OS™

bytecode, and Qualcomm Brew bytecode.

17. The universal compiler of claim 16 wherein said certain execution engine is selected from a group consisting of Java™

Virtual Machine, .NET CLR, Palm™

OS, Flash player, Symbian OS™

, and Qualcomm Brew.

18. A method of compiling a source code of an application by a universal compiler comprising:

providing a plurality of input files wherein said plurality of input files comprise said source code written in a plurality of different programming languages, respectively;

compiling any of said plurality of input files into an executable code, wherein said executable code is executable by an execution engine;

wherein said universal compiler comprises a plurality of specific programming language compilers, wherein each of said plurality of specific programming language compilers is adapted to receive an input file comprising said source code written in a specific programming language and to convert said input file into a specific executable code of said application, wherein said specific executable code is executable by a specific execution engine; and

wherein said universal compiler further comprises a control logic for selecting a specific programming language compiler from said plurality of specific programming language compilers.

19. The method of claim 18 wherein said programming languages are selected from a group consisting of Java™

, JavaScript™

, C#, C+, C++, Visual Basic™

, J#, ActionScript, XSL, XQuery, and XPath™

.

20. The method of claim 18 wherein said executable code comprises a Java™

bytecode and said execution engine comprises a Java Virtual Machine.

21. The method of claim 18 wherein said executable code comprises a .NET CLR bytecode and said execution engine comprises a .NET CLR engine.

22. The method of claim 18 wherein said executable code comprises a Flash player bytecode and said execution engine comprises a Flash player.

23. A method of compiling a source code of an application by a compiler system comprising:

providing a plurality of input files wherein said input files comprise said source code written in a plurality of different programming languages, respectively; and

compiling any of said plurality of input files into a plurality of output files wherein said plurality of output files comprise a plurality of executable codes of said source code, respectively, wherein said executable codes are executable by a plurality of corresponding execution engines, respectively;

wherein said compiler system comprises a plurality of universal compilers wherein each universal compiler comprises a plurality of specific programming language compilers, and wherein said plurality of specific programming language compilers are adapted to receive an input file from said plurality of input files comprising said source code of said application written in a specific programming language and to convert said input file into a specific executable code of said application, wherein said specific executable code is executable by a specific execution engine; and

wherein said compiler system further comprises a first control logic for selecting a universal programming language compiler from said plurality of universal programming language compilers.

24. The method of claim 23 wherein said programming languages are selected from a group consisting of Java™

, JavaScript™

, C#, C+, C++, Visual Basic™

, J#, ActionScript, XSL, XQuery, and XPath™

.

25. The method of claim 23 wherein said executable codes are selected from a group consisting of Java™

Virtual Machine bytecode, .NET CLR bytecode, Palm™

OS bytecode, Flash player bytecode, Symbian OS™

bytecode, and Qualcomm Brew bytecode and said corresponding execution engines are selected from a group consisting of a Java™

Virtual Machine, a .NET CLR, a Palm™

OS, a Flash Player, a Symbian OS™

, and a Qualcomm Brew, respectively.