Abstract:
The disclosure relates to an electronic memory system, and more specifically, to a system for adaptive bit rate programming of a memory device, and a method for adaptive bit rate programming of a memory device. According to an embodiment, a system for adaptive bit rate programming of a memory device including a plurality of memory cells is provided, wherein the memory cells are configured to be electrically programmable by application of a current supplied by a current source, the system including selection devices for selecting memory cells for programming based on availability of current from the current source.
Abstract:
A method of operating an integrated circuit includes determining at least one characteristic of at least one memory cell and conducting an operation for the at least one memory cell, wherein based on the at least one characteristic determined a disturbance for at least one additional memory cell is adjusted.
Abstract:
A method for reconstructing a physically unclonable function (PUF) A for use in an electronic appliance is provided. The method includes producing a checksum C, producing a defective PUF B and reconstructing the PUF A from the defective PUF B using an error correction algorithm. The algorithm produces a plurality of ambiguous results (A1, A2, . . . , An) for the PUF A in a fraction of the cases and a single result, which may be incorrect, in all other cases. The method also includes determining by means of the checksum C which of the plurality of ambiguous results (A1, A2, . . . , An) is the correct PUF A or of whether a single result corresponds to the correct PUF A.
Abstract translation:提供了一种用于重建用于电子设备的物理不可克隆功能(PUF)A的方法。 该方法包括产生校验和C,产生缺陷PUF B,并使用纠错算法从缺陷PUF B重构PUF A. 在所有其他情况下,该算法在一小部分情况下为PUF A产生多个模糊结果(A1,A2,...,An)和单个结果,这可能是不正确的。 该方法还包括通过校验和C来确定多个模糊结果(A1,A2,...,An)中的哪一个是正确的PUF A或单个结果是否对应于正确的PUF A.
Abstract:
An apparatus includes a sensor module. The sensor module includes an electromagnetic radiation sensor configured to provide electromagnetic radiation sensor data. The sensor module further includes a coded mask configured to modulate electromagnetic radiation incident to the electromagnetic radiation sensor and from which the electromagnetic radiation sensor data is generated. The apparatus further includes a computation module configured to obtain the electromagnetic radiation sensor data from the electromagnetic radiation sensor. The computation module is further configured to detect a property from the electromagnetic radiation sensor data using an artificial neural network. The computation module is further configured to output information related to the detected property via an output.
Abstract:
A device comprises an electronic data memory and a control unit configured to store a bit sequence in the electronic data memory as a stored bit sequence. The control unit is configured to check the stored bit sequence for bit errors, to generate error correction information having information about a correct bit value in the stored bit sequence, and to store the error correction information.
Abstract:
A determination is made that error-correcting code functionality detected a first number of erroneous bits within a memory device. Bits within the memory device are evaluated to identify a subset of the bits as candidate bits. The candidate bits are evaluated to determine whether the error-correcting code functionality returns a non-error state, where no error correction is performed, based upon one or more combinations of candidate bits being inverted. Responsive to the error-correcting code functionality returning the non-error state for only one combination of the one or more combinations of candidate bits being inverted, the one combination of candidate bits is corrected.
Abstract:
A position of a memory cell to be accessed within a memory field of a memory device is identified. A region associated with the memory field within which the position is located is identified. A compensation parameter comprising a fixed electric step value for the region is identified. The compensation parameter may be selected from a set of compensation parameters or may be calculated based upon the position of the memory cell. The compensation parameter is applied to an action performed on a line connected to the memory cell during the access of the memory cell.
Abstract:
An embodiment relates to a method for determining a health state of a non-volatile memory comprising: determining the health state based on at least one indicator for determining a predictable failure of the non-volatile memory.
Abstract:
According to one embodiment, a chip is described comprising a substrate; an energy source configured to provide energy to the substrate; an energy receiver configured to receive energy from the energy source via the substrate and a determiner configured to determine a value of a parameter of the energy transmission between the energy source and the energy receiver, to check whether the value matches a predetermined value of the parameter and to output a signal depending on the result of the check.
Abstract:
An embodiment relates to a method for data processing that includes reading data, the data comprising overhead information and payload information, and determining a state of each portion of the data, wherein the state is one of a first binary state, a second binary state, and an undefined state. The method also includes decoding at least one portion of data that has an undefined state based on its location and based on the overhead information.