Abstract:
PROBLEM TO BE SOLVED: To provide a method for maintaining interests of an ASIC (Application Specific Integrated Circuit) process, simplifying supply in a quicker and more general form, providing on-the-fly-customization and creating design. SOLUTION: A plurality of circuit elements are configured by a first configuration to execute application. According to the method, a computerized device is used to monitor execution of the application in the plurality of circuit elements to generate monitor information and the monitor information is stored to a storage configuration. According to the method, the monitor information is selectively transmitted to external elements independent of the computerized device. The external elements convert the first configuration into a second configuration on the basis of the monitor information. The computerized device receives the second configuration from the external elements and reconfigures a plurality of elements into the second configuration. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
The invention relates to the use of calibration signals to correct multi-voltage level data signals. A multi-level data signal and a calibration signal representing the maximum possible amplitude of the data signal are sent from a first device 15 to a second device 30 in a network 10. The second device stores the calibration signal in unit 18, compares its amplitude to that of the data signal and corrects the data signal accordingly. Similarly, the calibration unit of the first device stores calibration signals corresponding to the other devices connected to the network and uses the appropriate calibration signal to correct signals received from these devices. Initially, the first device may inquire whether multi-level communication with a second device is possible and if not, revert to binary data signals. In this way, the system is able to automatically handle the transfer of signals to devices which are not multi-level compatible.
Abstract:
A heat conductive layer 308 is deposited on a first surface of a wafer of semiconductor chips 332. An insulating layer 312 is then deposited on top of the heat conducting layer. The heat conductive layer is etched to form vias that expose through-electrodes 305 on the first surface of each semiconductor chip. Conductive pads 316 are deposited on the through-electrodes on a second surface of each semiconductor chip. The semiconductor chips are stacked, wherein the conductive bumps of a second one of the semiconductor chips electrically contact the through-electrodes of a first one of the semiconductor chips through the vias of the first semiconductor chip and the conductive bumps of a third one of the semiconductor chips electrically contact the through-electrodes of the second semiconductor chip through the vias of the second semiconductor chip. The holes in the thermally conductive layer and the insulating layer may be formed by etching. The through electrodes may be copper pillars and an underfill may be applied between the bottom semiconductor chip and a substrate.
Abstract:
A calibrated multi-voltage level system is disclosed having a network of devices, including a first and a second device. The first device comprises a processor for generating data, an encoding unit for encoding the data into a first data signal having multiple voltage levels, and a transmitting unit for transmitting the encoded data signal to the second device. The first device also comprises a calibration unit for sending a first calibration signal to the second device, and for storing a second calibration signal from the second device; and an adaptation unit for correcting the second data signal from the second device with the stored second calibration signal.