Abstract:
An endoscope apparatus includes: a reading unit which reads video data and control data from a recording medium, the recording medium containing the video data including a plurality of image data and the control data used to control a measurement operation; a measuring unit which performs the measurement operation on the basis of the image data of the video data read by the reading unit; and a control unit which controls the measuring unit on the basis of the control data read by the reading unit.
Abstract:
An apparatus and method is provided to enable precision and fast laser frequency tuning. For instance, a fast tunable slave laser may be dynamically offset-locked to a reference laser line using an optical phase-locked loop. The slave laser is heterodyned against a reference laser line to generate a beatnote that is subsequently frequency divided. The phase difference between the divided beatnote and a reference signal may be detected to generate an error signal proportional to the phase difference. The error signal is converted into appropriate feedback signals to phase lock the divided beatnote to the reference signal. The slave laser frequency target may be rapidly changed based on a combination of a dynamically changing frequency of the reference signal, the frequency dividing factor, and an effective polarity of the error signal. Feed-forward signals may be generated to accelerate the slave laser frequency switching through laser tuning ports.
Abstract:
An image processing apparatus of the present invention includes: a video input section to which live video obtained by picking up an image of an object is inputted; a frame interpolation processing section which, by inserting an interpolated image between images of frames constituting the live video, performs processing for generating and outputting interpolated video of a frame rate set in advance; and a control section which, when an instruction for freezing video displayed on a display section is made, operates so as to cause a still image of a frame constituting the live video to be displayed on the display section.
Abstract:
A semiconductor integrated circuit including a region of a memory macro function block is divided into memory core function block and interface function block regions. The interface function block includes a test circuit, a command decoder for a test, an address decoder for the test, a memory core input/output circuit which inputs a command and address into the memory core function block and transmits!receives data with the memory core function block, a configuration memory block in which information of a memory capacity of the memory core function block and configuration of a memory core is stored, and a configuration memory block which controls a data path and address path of the memory core function block based on the stored information.
Abstract:
A semiconductor integrated circuit device capable of changing the product specification. The semiconductor integrated circuit device includes an integrated circuit section containing a first circuit section having a first function and a second circuit section having a second function, and an active signal generator means for producing an active signal for activating the first circuit section or the second circuit section. To change the product specification, the integrated circuit device further includes a receiving for taking in a decision signal for determining the product specification a, switching signal generator, connected to the receiving device, for producing a switching signal for changing the product specification based on the decision signal, and switching device which receives the active signal and the switching signal, and which, based on the switching signal, changes the supply of the active signal to either the first circuit section or to the second circuit section.
Abstract:
A semiconductor memory device includes a memory cell array, row decoder, bit line pairs, sense amplifier, sense amplifier control circuit, data latch, transfer gate, transfer gate control circuit, and write circuit. The memory cell array has dynamic memory cells arranged in an array form. The row decoder decodes a row address signal to select a desired one of rows of the memory cell array. Each of the bit line pairs is connected to those of the memory cells which are arranged on a corresponding one of columns of the memory cell array. The sense amplifier amplifies data read out on the paired bit lines and positively feeding data back to the paired bit lines to hold the data. The sense amplifier control circuit controls the operation of the sense amplifier. The data latch latches readout data and write data. The transfer gate transfers data between the data latch and the sense amplifier. The transfer gate control circuit controls the transfer gate. The write circuit writes data into the data latch in synchronism with a clock signal. At the time of writing data into the memory cells, data is previously supplied to the data latch by the write circuit and latched in the data latch, and after the transfer gate control circuit controls the transfer gate to supply data to the bit line pairs from the data latch, the sense amplifier control circuit activates the sense amplifier.
Abstract:
A semiconductor memory device includes a cell array having a plurality of memory cells grouped into a plurality of cell blocks and arranged in a matrix form, a plurality of word lines, a plurality of bit lines, bit line sense amplifiers (S/A), a cell block selection circuit, a plurality of data I/O lines, row decoders, a plurality of column selection signal lines, column decoders and a data buffer circuit. The data buffer circuit includes a first precharge circuit, connected to the data I/O lines, for precharging the data I/O lines to the same potential as a precharge potential of the bit lines, a second precharge circuit, connected to the data I/O lines, for precharging the data I/O lines to a potential different from the precharge potential of the bit lines, and selective drive circuit for generating control signals to be supplied to the first and second precharge circuit, and selectively driving the first and second precharge circuits to sense the data read out to the data I/O lines on the basis of the control signals.
Abstract:
A semiconductor device of a memory-macro type can be designed within a short time to have a desired storage capacity, which does not occupy a large area, so as to reduce the chip cost. The semiconductor device includes a memory macro having sub-memory macros, each sub-memory macro having a DRAM memory-cell array, and a row decoder and a column decoder for selecting any desired memory-cell from the memory cell of the array. The memory macro also includes a control-section macro having a DC potential generating circuit for generating various DC potentials required to drive the sub-memory macros. At least one of the sub-memory macros is combined with the control-section macro to form the memory macro as a one-chip memory capable of storing an integral multiple of N bits.
Abstract:
A semiconductor integrated circuit capable of changing a product specification comprises a first circuit section having a first function, a second circuit section having a second function, and active signal generator means for producing an active signal for activating either the first circuit section or the second circuit section. To change the product specification, the integrated circuit further comprises means for receiving a decision signal, switching signal generator means, connected to said receiving means, for producing a switching signal for changing the product specification according to the decision signal, and switching means for receiving the active signal and the switching signal and for supplying the active signal to either the first circuit section or the second circuit section according to the switching signal.
Abstract:
A semiconductor memory device comprises a plurality of memory cells including at least a first memory cell and a second memory cell, a first bit line connected to the first memory cell, a second bit line connected to the second memory cell and paired with the first bit line, an equalizer connected between the first and second bit lines, an amplifier connected between the first and second bit lines, a first driving signal line connected to the amplifier and drives the amplifier, a second driving signal line connected to the amplifier and paired with the first driving signal line, a driver for driving the amplifier and connected to the first and second driving signal lines and containing a precharger for presetting the potentials of the first and second driving signal lines to a predetermined precharge potential and a driving signal supply circuit for supplying a driving signal to the first and second driving signal lines, and a control circuit for controlling the equalizer and the driver, wherein the control circuit controls the equalizer and the precharger independently so that the precharger continues supplying the precharge potential to the first and second driving signal lines until essentially immediately before the driving signal supply circuit supplies the driving signal to the first and second driving signal lines.