摘要:
Provided is a Java bytecode translating method which includes: a bytecode fetch step (S1 10) that fetches a Java bytecode from a Java class file; a static field address detection and data processing step (S140) which gains access to a field (130) according to a first field address (FA1) and processes data; a static field address storage step (S 150) that stores a first upper field address (FAU1) including upper bits among bits of the first field address (FA1) in a first storage portion (110), and which stores a first lower field address (FAD1) including remainder lower bits excluding the first upper field address (FAU1) among the bits of the first field address (FA1) in an operand field (120b); a static operation code translating step (S 160) that translates an operation code stored in an operation code field (120a) into a new static field accessing operation code (NOPA); a first field address creation step (S240) that creates a second field address (FA2); and a first data processing step (S250) that gains access to the field (130) according to a second field address (F A2) and processes data.
摘要:
Provided is a Java bytecode translating method which includes: a bytecode fetch step (S1 10) that fetches a Java bytecode from a Java class file; a static field address detection and data processing step (S140) which gains access to a field (130) according to a first field address (FA1) and processes data; a static field address storage step (S 150) that stores a first upper field address (FAU1) including upper bits among bits of the first field address (FA1) in a first storage portion (110), and which stores a first lower field address (FAD1) including remainder lower bits excluding the first upper field address (FAU1) among the bits of the first field address (FA1) in an operand field (120b); a static operation code translating step (S 160) that translates an operation code stored in an operation code field (120a) into a new static field accessing operation code (NOPA); a first field address creation step (S240) that creates a second field address (FA2); and a first data processing step (S250) that gains access to the field (130) according to a second field address (F A2) and processes data.
摘要:
Provided is a bytecode conversion acceleration device and a method for the same: allowing a reduction in the size of a storage unit for a look-up table including a decoding table, a link table and a native code table; increasing the number of bytecodes that can be processed by hardware by using the look-up table to thereby enhance the overall performance of a virtual machine; and allowing an execution portion to immediately execute the first native code to thereby enhance performance of the virtual machine.
摘要:
A semiconductor device includes a semiconductor substrate having a first conductivity type, at least two first well regions which have a second conductivity type and a predetermined depth in the semiconductor substrate, at least one second well region which has the first conductivity type and a predetermined depth in each of the first well regions, and a guard-ring region which has the second conductivity type and a predetermined depth and is positioned between the first well regions to be separated by a predetermined distance from the first well regions. The guard-ring region is connected to a ground voltage.
摘要:
A bushing including a tip plate having an orifice region including orifices to permit flow of a molten fiberizable material therethrough; a reservoir for supplying molten fiberizable material to the orifices; and a substantially planar perforated plate positioned within the reservoir generally parallel to and substantially coextensive with the orifice region of the tip plate, the perforated plate including a central region and a peripheral region surrounding the central region, each of the central region and the peripheral region of the perforated plate having a plurality of openings to permit flow of molten fiberizable material therethrough, wherein average head loss of molten material flowing through the central region of the perforated plate is greater than average head loss of molten material flowing through the peripheral region of the perforated plate.