Abstract:
To facilitate loading-unloading operation of a battery even when a large-sized battery is mounted, in a battery-powered forklift which is driven with power of a battery mounted on a vehicle body including a fork which is arranged at a front part of the vehicle body, a counter weight which is arranged at a rear part of the vehicle body, and a top plate which is supported at a position to cover an area above a driver seat via a pair of rear stays 44 extended upward from both sides of the rear part of the vehicle body, post members arranged in a raised manner at both sides of the counter weight guide movement of the battery along the front-rear direction of the vehicle body between the post members.
Abstract:
A slide type portable wireless device includes: a first housing; a second housing which slides relative to the first housing, and is positioned at either of a first relative position and a second relative position different from the first relative position; an antenna element which is embedded in the first housing; and a plurality of parasitic elements which are provided in the second housing, and includes first and second parasitic elements capacity coupled with the antenna element. The first parasitic element faces the antenna element at the first relative position. The second parasitic element faces the antenna element at the second relative position.
Abstract:
A battery-powered forklift including a fork placed at an anterior portion of a vehicle body, and a counter weight placed at a posterior portion of the vehicle body, the battery-powered forklift running by electric power of a battery mounted on the vehicle body, wherein a concave portion that is open in a longitudinal direction is formed at an upper surface of the counter weight, the battery is mounted on a position above a rear wheel of the vehicle body while at least a part of the battery overlaps with the counter weight, and the battery is removable toward a rear of the vehicle body through the concave portion of the counter weight.
Abstract:
The present invention is a semiconductor device including: a resistor R11 (first resistor part) and an FET 15 (second resistor part) connected in series between a power supply Vcc (first power supply) and ground (second power supply); an output node N11 provided between the resistor R11 and FET 15 and used for outputting a reference voltage; a feedback node N12 provided between the power supply Vcc and the ground; and a voltage control circuit (19) that maintains a voltage of the feedback node N12 at a constant level by using the reference voltage of the output node N11 and the voltage of the feedback node N12. The present invention can provide a semiconductor device having a reference voltage generating circuit capable of generating the reference voltage that does not greatly depend on a power supply voltage and its control method.
Abstract:
A semiconductor device includes: a first sector (12) having data that are all to be erased and having flash memory cells; a second sector (14) having data that are all to be retained and having flash memory cells; a sector select circuit (16) selecting a pair of sectors from among sectors during erasing the data in the first sector, said pair of sectors being the first sector and the second sector; and an SRAM array (storage) (30) retaining the data of the second sector. The present invention can provide a semiconductor device in which a reduced number of sector select circuits is used so that the area of memory cell array can be reduced and provide a method of controlling the semiconductor device.
Abstract:
A semiconductor device includes: a first sector (12) having data that are all to be erased and having flash memory cells; a second sector (14) having data that are all to be retained and having flash memory cells; a sector select circuit (16) selecting a pair of sectors from among sectors during erasing the data in the first sector, said pair of sectors being the first sector and the second sector; and an SRAM array (storage) (30) retaining the data of the second sector. The present invention can provide a semiconductor device in which a reduced number of sector select circuits is used so that the area of memory cell array can be reduced and provide a method of controlling the semiconductor device.
Abstract:
A core-based multi-bit memory (400) having a dual-bit dynamic referencing architecture (408, 410) fabricated on the memory core (401). A first reference array (408) and a second reference array (410) are fabricated on the memory core (401) such that a reference cell pair (185) comprising one cell (182) of the first reference array (408) and a corresponding cell (184) of the second reference array (410) are read and averaged to provide a reference voltage for reading a data array(s).
Abstract:
The semiconductor device of the present invention includes a column decoder (select and write circuit), which selects multiple pages that are not located adjacently to each other so as to simultaneously program multiple bits in the memory cells of the selected page, when the multiple bits are programmed in the multiple pages. The page is a selection unit and is composed of a given number of the memory cells located on a same word line. An unnecessary stress of programming is not applied to the memory cells that are not to be programmed, by increasing the distance between the memory cells to be programmed simultaneously.
Abstract:
A semiconductor device includes: a first sector (12) having data that are all to be erased and having flash memory cells; a second sector (14) having data that are all to be retained and having flash memory cells; a sector select circuit (16) selecting a pair of sectors from among sectors during erasing the data in the first sector, said pair of sectors being the first sector and the second sector; and an SRAM array (storage) (30) retaining the data of the second sector. The present invention can provide a semiconductor device in which a reduced number of sector select circuits is used so that the area of memory cell array can be reduced and provide a method of controlling the semiconductor device.
Abstract:
A non-volatile semiconductor memory includes a first pump starting to operate at a first timing and producing a first voltage, a second pump starting to operate at a second timing following the first timing and driving a given node at a second voltage, the given node being connected to a non-volatile semiconductor memory cell, and a booster boosting the given node using the first voltage at the second timing.