Abstract: The invention concerns a method for controlling a hybrid power generation plant comprising a plurality of power sources among a hydro plant, a solar plant and a battery storage system, said method comprising: receiving from a grid to which the plant is connected at least one data among a power demand, a peak hour, a frequency, a ramp, a reactive power, a voltage; varying a power production of at least one of the plurality of power sources, depending on said at least one data received from the grid and at least one characteristic of each of said plurality of power sources.

Abstract: An apparatus includes a first semiconductor device including a NAND flash memory core. The apparatus also includes a second semiconductor device including periphery circuitry associated with the NAND flash memory core.

Abstract: An apparatus includes a first semiconductor device including a memory core. The apparatus also includes a second semiconductor device including periphery circuitry associated with the memory core. The second semiconductor device includes a second serializer/deserializer communication interface coupled to a first serializer/deserializer communication interface of a memory controller.

Abstract: A respiratory therapy device has both a standard positive expiratory pressure (PEP) device and an oscillatory PEP device packaged together. A manually operable member is movable to select which of the standard and oscillatory PEP device is placed in communication with a patient's airway. A nebulizer connector may also be provided for connection of a nebulizer.

Abstract: An apparatus includes a semiconductor device that includes a multi-ported three-dimensional (3D) memory. The multi-ported 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The multi-ported 3D memory includes circuitry associated with operation of the multiple memory cells.

Abstract: An apparatus includes a first memory die including a first memory core, a second memory die including a second memory core, and a periphery die coupled to the first memory die and to the second memory die. The periphery die includes periphery circuitry corresponding to the first memory core and periphery circuitry corresponding to the second memory core. The periphery die is responsive to a memory controller and configured to initiate a first memory operation at the first memory core and a second memory operation at the second memory core.

Abstract: An apparatus includes a first semiconductor device including a three-dimensional (3D) memory. The 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The 3D memory further includes circuitry associated with operation of the multiple memory cells. The apparatus includes a second semiconductor device coupled to the first semiconductor device. The second semiconductor device includes a charge pump, and the 3D memory does not include a charge pump.

Abstract: An apparatus includes a semiconductor device including a three-dimensional (3D) memory. The 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The 3D memory includes circuitry associated with operation of the multiple memory cells and includes a differential signaling interface.

Abstract: An apparatus includes a semiconductor device that includes a three-dimensional (3D) memory. The 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The 3D memory includes circuitry associated with operation of the multiple memory cells and includes a serializer/deserializer interface.

Abstract: A method may be performed at a data storage device that includes a memory and a controller. The method includes providing user data to a variable-bit error correction coding (ECC) encoder. The ECC encoder generates a first set of parity bits. A first number of parity bits in the first set of parity bits is determined based on stored counts of read errors. The method also includes storing the user data and the first set of parity bits to a memory of the data storage device.

Abstract: An apparatus includes a semiconductor device including a three-dimensional (3D) memory. The 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The 3D memory includes circuitry associated with operation of the multiple memory cells and includes a differential signaling interface.

Abstract: An apparatus includes a semiconductor device that includes a three-dimensional (3D) memory. The 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The 3D memory includes circuitry associated with operation of the multiple memory cells and includes a serializer/deserializer interface.

Abstract: An apparatus includes a semiconductor device that includes a multi-ported three-dimensional (3D) memory. The multi-ported 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The multi-ported 3D memory includes circuitry associated with operation of the multiple memory cells.

Abstract: An apparatus includes a first semiconductor device including a three-dimensional (3D) memory. The 3D memory includes multiple memory cells arranged in multiple physical levels above a substrate. The 3D memory further includes circuitry associated with operation of the multiple memory cells. The apparatus includes a second semiconductor device coupled to the first semiconductor device. The second semiconductor device includes a charge pump, and the 3D memory does not include a charge pump.

Abstract: A method may be performed at a data storage device that includes a memory and a controller. The method includes providing user data to a variable-bit error correction coding (ECC) encoder. The ECC encoder generates a first set of parity bits. A first number of parity bits in the first set of parity bits is determined based on stored counts of read errors. The method also includes storing the user data and the first set of parity bits to a memory of the data storage device.

Abstract: A respiratory therapy device has both a standard positive expiratory pressure (PEP) device and an oscillatory PEP device packaged together. A manually operable member is movable to select which of the standard and oscillatory PEP device is placed in communication with a patient's airway. A nebulizer connector may also be provided for connection of a nebulizer.

Abstract: An apparatus includes a first memory die including a first memory core, a second memory die including a second memory core, and a periphery die coupled to the first memory die and to the second memory die. The periphery die includes periphery circuitry corresponding to the first memory core and periphery circuitry corresponding to the second memory core. The periphery die is responsive to a memory controller and configured to initiate a first memory operation at the first memory core and a second memory operation at the second memory core.

Abstract: An apparatus includes a first semiconductor device including a NAND flash memory core. The apparatus also includes a second semiconductor device including periphery circuitry associated with the NAND flash memory core.

Abstract: An apparatus includes a first semiconductor device including a memory core. The apparatus also includes a second semiconductor device including periphery circuitry associated with the memory core. The second semiconductor device includes a second serializer/deserializer communication interface coupled to a first serializer/deserializer communication interface of a memory controller.

Abstract: A positive expiratory pressure device (PEP) has one or more of the following features, alone or in any combination: 1) a combination of oscillation PEP therapy and standard PEP therapy, 2) use of microwavable materials, 3) use of an oscillation rocker that produces a venturi effect, 4) use of a flexible tube to create the air pressure oscillation, 5) use of a rotating wheel to open and close the air channel and create air pressure oscillation, 6) use of a variable cross section air channel to generate different air flow resistance for providing multiple levels of constant pressure therapy, 7) use of a flexible air flow stopper plate with adjustable pivot point to generate different air flow resistance for providing multiple levels of constant pressure therapy, and 8) use of a selection switch that allows the device to switch between standard PEP therapy and oscillatory PEP therapy.