초록 ▼

The present invention is a friction torque hinge and method for making the same. The friction torque hinge comprises a rotatable shaft, at least one frictional element and an element housing. The frictional elements are mounted on and frictionally engage the shaft. The frictional elements have an ou

The present invention is a friction torque hinge and method for making the same. The friction torque hinge comprises a rotatable shaft, at least one frictional element and an element housing. The frictional elements are mounted on and frictionally engage the shaft. The frictional elements have an outer element shape. The element housing has an inner cavity with a shape that matches the outer element shape of the frictional elements. The element housing contacts substantially the entire outer element shape of the plurality of frictional elements. This prevents relative rotation of the element housing and the frictional elements.

대표청구항 ▼

The present invention is a friction torque hinge and method for making the same. The friction torque hinge comprises a rotatable shaft, at least one frictional element and an element housing. The frictional elements are mounted on and frictionally engage the shaft. The frictional elements have an ou

The present invention is a friction torque hinge and method for making the same. The friction torque hinge comprises a rotatable shaft, at least one frictional element and an element housing. The frictional elements are mounted on and frictionally engage the shaft. The frictional elements have an outer element shape. The element housing has an inner cavity with a shape that matches the outer element shape of the frictional elements. The element housing contacts substantially the entire outer element shape of the plurality of frictional elements. This prevents relative rotation of the element housing and the frictional elements. ncludes creating an interactive runtime application programming interface. 3. The process of claim 2, wherein the step of controlling compiling of the bytecode includes enabling just in time coupling of the bytecode. 4. A process implemented in a data processing system for optimizing compiling of a bytecode, the process comprising the data processing system implemented steps of: extending a language to convert controlling compiling of the bytecode, wherein an extended language is formed; statically scoping the bytecode using the extended language to form a scoped bytecode; running the scoped bytecode; and controlling compiling of the scope bytecode using the extended language. 5. The process of claim 4, wherein the step of statically scoping the bytecode includes specifying a type of optimization for compiling the bytecode. 6. The process of claim 4, wherein the step of statically scoping the bytecode includes specifying just in time compiling the bytecode. 7. The process of claim 4, wherein the step of statically scoping the bytecode includes satisfying not just in time compiling the bytecode. 8. The process of claim 7, wherein the bytecode is at least one of a class, method and code section. 9. A process implemented in a data processing system for optimizing compiling of a bytecode, the process comprising the data processing system implemented step of: extending a language to cover controlling compiling of the bytecode, wherein an extended language is formed and, wherein extending a language comprise adding at least one keyword related to optimizing compiling of the bytecode; running the bytecode; and controlling compiling of the bytecode using the extended language. 10. A process in a data processing system for optimizing compiling of a bytecode, the process comprising the data processing system implemented step of: extending a language to cover controlling compiling of the bytecode, wherein an extended language is formed; running the bytecode; and controlling compiling of the bytecode using the extended language in runtime. 11. The process of claim 10, wherein the step of controlling compiling of the bytecode includes enabling just in time compiling based on frequency of running the bytecode. 12. The process of claim 10, wherein the step of controlling compiling of the bytecode further comprises: interactively monitoring performance of compiling the bytecode; and optimizing the compiling of the bytecode based on the compilation performance. 13. The process of claim 12, wherein the performance is measured by speed of compiling the bytecode. 14. The process of claim 12, wherein the performance is measured by memory space needed to store a compiled bytecode. 15. A process in a data processing system for optimizing compiling of a bytecode, the process comprising the data processing system implemented step of: extending a language to cover controlling compiling of the bytecode, wherein an extended language is formed; running the bytecode; and controlling compiling of the bytecode using the extended language in runtime, wherein the step of controlling compiling of the bytecode includes preventing just in time compiling based on an error in compiling. 16. A process system for optimizing compiling of a bytecode, comprising: language extension, wherein the language extension controls compiling of the bytecode; running means for running the bytecode; and controlling means for controlling compiling of the bytecode using the extended language. 17. The processing system of claim 16, wherein the language extension includes an interactive runtime application programming interface. 18. The processing system of claim 17, wherein the controlling means includes enabling just in time compiling of the bytecode. 19. A processing system for optimizing compiling of a bytecode, comprising: a language extension to cover controlling compiling of the bytecode, wherein an extended language is formed; runni