Abstract:
PURPOSE: A feature vector classification device and a recognition device using the same are provided to reduce a running time and size of hardware in a process of feature vector extraction and classification. CONSTITUTION: A feature vector extractor(10) generates and extracts a feature vector and a normalized value from an inputted image. A feature vector classifier(20) normalizes the feature vector based on the normalized value and recognizes the inputted image through classification of the normalized feature vector. A search window inputted in a recognition device(1) is classified according to an index of the classified feature vector. [Reference numerals] (10) Feature vector extractor; (20) Feature vector classifier; (AA) Searching window; (BB) Feature vector
Abstract:
PURPOSE: A method for detecting an entity and a system thereof are provided to perform an entity detection algorithm in the remaining areas excluding the area in which a target detection object does not exist. CONSTITUTION: An image is inputted to an entity detection system(S410). The entity detection system extracts a search area for the image(S420). When the search area has been extracted, the entity detection system extracts feature data from the image(S430). After extracting the feature data, the entity detection system finally detects an entity through a boosting classifier based model such as Adaboost algorithm, and so on(S440).
Abstract:
데이터 프로세싱 회로는, 동작 제어 신호 및 메모리 제어 신호를 출력하는 제어 유닛과, 각각이 상기 메모리 제어 신호에 응답해서 명령을 출력하는 복수의 프로그램 메모리들, 그리고 각각이 상기 동작 제어 신호에 응답해서 상기 복수의 프로그램 메모리들로부터의 명령들 중 어느 하나를 선택적으로 수행하는 연산기들을 포함하여 동작 환경에 따라서 유연하게 동작 모드 변환이 가능하다.
Abstract:
PURPOSE: A data processing circuit is provided to convert efficiently an operating mode according to the operating environment by implementing a multi-mode of a parallel processing. CONSTITUTION: A control unit(110) outputs the operating control signal and memory control signal. Program memories(121-123) output a command in response to the memory control signal. Computing units(131-133) respond to the operating control signal and selectively perform one command among the program memories. The operating control signal outputted from the control unit includes SIMD mode signal and memory selection control signal on SIMD(Single Instruction stream Multiple Data stream) mode.
Abstract:
A reconfigurable SoC(System on Chip) system and a method of implementing the same are provided to perform dynamic reconfiguration by operating based on the automatic sensing of an IP necessary for the reconfiguration of an SoC. A flash memory(130) stores plural IPs(Internet Protocols), and an intrinsic code detecting unit(120) detects the intrinsic code of an IP called from a system software(110). A reconfigurable SoC(140) has a processor. The reconfigurable SoC unit configures an SoC by reading out an IP corresponding to the sensed intrinsic code.
Abstract:
본 발명은 SIMD 병렬 프로세서에 관한 것으로, SIMD 병렬 프로세서는 명령어 레지스터, 명령어 디코더, 레지스터 파일 선택 회로, 및 레지스터 파일을 포함하며, 명령어에 의하여 SIMD 동작, SISD 동작, Row 동작, 또는 Column 동작에 필요한 레지스터 파일의 데이터를 선택적으로 제어함으로써 응용에 따라서 SIMD 동작, SISD 동작, Row 동작, 및 Column 동작 중 어느 하나의 동작을 수행한다. 본 발명에 의하면, 활용도, 효율도 및 유연성이 뛰어난 SIMD 병렬 프로세서를 구현할 수 있다. 병렬 프로세서, SIMD, 레지스터 파일, 명령어(instruction)
Abstract:
A low power clock gating circuit is provided to realize a high speed and low power by using a low threshold voltage device and a high threshold voltage device, respectively. A low power clock gating circuit(450) comprises PMOS transistors and NMOS transistors. The PMOS transistors are electrically connected between a power terminal and a first inverter(402), between the power terminal and a second inverter(422), and between the power terminal and an end gate(444), respectively. The PMOS transistors are controlled by a sleep controlling signal applied through a sleep controlling terminal and have a high threshold voltage. The NMOS transistors are electrically connected between a ground and the first inverter, between the ground and the second inverter, and between the ground and the end gate, respectively. The NMOS transistors are controlled by the sleep controlling signal and have a high threshold voltage.