Abstract: A drive motor control system performs control of a drive motor of a vehicle that includes the drive motor and a battery. The drive motor control system includes a control processor that controls an electric current supply from the battery to the drive motor and includes an operational state determiner that determines whether a condition that the vehicle is being stopped, a condition that a parking brake is being released, and a condition that a parking range is being selected are satisfied. When the operational state determiner determines that all the conditions are satisfied upon a reception of a trigger signal instructing a start of the control of the drive motor, the control processor performs control of an inverter such that the electric current supply is performed to cause the drive motor to repeat small revers rotations and thereby induce small movements of the vehicle in front and rear directions.

Abstract: An information processing apparatus includes one or more processors and one or more storage media storing a program. The program includes one or more instructions that cause the one or more processors to execute acquiring information on a current location of a vehicle and a destination of the vehicle; acquiring one or more scheduled travel routes for reaching the destination from the current location; acquiring current weather information; predicting a standstill section in which a standstill situation is likely to occur on the one or more scheduled travel routes; predicting a standstill time during which a standstill situation occurs in the predicted standstill section; calculating heating power consumption due to use of heating over the predicted standstill time; performing a determination as to whether to additionally charge a traveling battery of the vehicle in accordance with the heating power consumption; and presenting information corresponding to a result of the determination.

Abstract: A vehicle driving device mounted on a hybrid vehicle includes an engine coupled to wheels of the vehicle via a power transmission path, a transmission mechanism disposed on the power transmission path, a motor generator, a first power transmission mechanism, and a second power transmission mechanism. The motor generator is disposed on a path coupling the engine and transmission mechanism, the first power transmission mechanism is disposed on a path coupling the engine and motor generator, the second power transmission mechanism is disposed on a path coupling the motor generator and transmission mechanism. These paths are included in the power transmission path. The first power transmission mechanism includes a large-diameter rotator and a small-diameter rotator coupled to the engine and the motor generator respectively. The second power transmission mechanism includes a small-diameter rotator and a large-diameter rotator coupled to the motor generator and the transmission mechanism respectively.

Abstract: A vehicle driving device mounted on a hybrid vehicle includes an engine coupled to wheels of the vehicle via a power transmission path, a transmission mechanism disposed on the power transmission path, a motor generator, a first power transmission mechanism, and a second power transmission mechanism. The motor generator is disposed on a path coupling the engine and transmission mechanism, the first power transmission mechanism is disposed on a path coupling the engine and motor generator, the second power transmission mechanism is disposed on a path coupling the motor generator and transmission mechanism. These paths are included in the power transmission path. The first power transmission mechanism includes a large-diameter rotator and a small-diameter rotator coupled to the engine and the motor generator respectively. The second power transmission mechanism includes a small-diameter rotator and a large-diameter rotator coupled to the motor generator and the transmission mechanism respectively.

Abstract: A vehicle control apparatus, configured to control a vehicle, includes an engine that is configured to drive wheels via a power transmission device. The vehicle control apparatus includes a towing state detector and an engine controller. The towing state detector is configured to detect whether the vehicle is in a towing state. The engine controller is configured to stop the engine in a case where a predetermined engine stopping condition is satisfied during traveling of the vehicle. The engine controller is configured to vary, in a case where the towing state detector detects that the vehicle is in the towing state, the predetermined engine stopping condition to reduce an operational range in which the engine is to be stopped compared with an operational range in a case where the towing state detector does not detect that the vehicle is in the towing state.

Abstract: A vehicle includes a transmission shiftable by hydraulic pressure, a main oil passage that delivers operating oil, a first oil passage that delivers the operating oil from the main oil passage to the transmission, a first valve that opens/closes the first oil passage, a controller that controls the first valve, a second oil passage that delivers the operating oil from the main oil passage to the transmission, and a manually drivable second valve that opens/closes a section of the first oil passage that is closer to the main oil passage than the first valve and the second oil passage. The second valve is switchable between the automatic control state in which the first oil passage is opened and the second oil passage is closed and the manual control state in which the first oil passage is closed and the second oil passage is opened.

Abstract: A vehicle includes a transmission shiftable by hydraulic pressure, a main oil passage that delivers operating oil, a first oil passage that delivers the operating oil from the main oil passage to the transmission, a first valve that opens/closes the first oil passage, a controller that controls the first valve, a second oil passage that delivers the operating oil from the main oil passage to the transmission, and a manually drivable second valve that opens/closes a section of the first oil passage that is closer to the main oil passage than the first valve and the second oil passage. The second valve is switchable between the automatic control state in which the first oil passage is opened and the second oil passage is closed and the manual control state in which the first oil passage is closed and the second oil passage is opened.

Abstract: A vehicle control apparatus, configured to control a vehicle, includes an engine that is configured to drive wheels via a power transmission device. The vehicle control apparatus includes a towing state detector and an engine controller. The towing state detector is configured to detect whether the vehicle is in a towing state. The engine controller is configured to stop the engine in a case where a predetermined engine stopping condition is satisfied during traveling of the vehicle. The engine controller is configured to vary, in a case where the towing state detector detects that the vehicle is in the towing state, the predetermined engine stopping condition to reduce an operational range in which the engine is to be stopped compared with an operational range in a case where the towing state detector does not detect that the vehicle is in the towing state.

Abstract: The method of routing configuration accesses applied from the primary port to a plurality of secondary ports includes the steps of: distributing a plurality of configuration accesses received from the primary bus to the plurality of secondary ports in accordance with a predetermined algorithm, such that each of the devices on the secondary ports receives and responds to exactly a single access; and terminating configuration cycles after distributing the plurality of configuration accesses.

Abstract: An input section inputs vertex data from a host CPU or a geometry process section to a rendering main process section. The rendering main process section performs a rendering process in accordance with the vertex data inputted into the input section. Therefore, the host CPU can directly write the vertex data, which does not require a geometry process, to a rendering process apparatus and a processing speed of an overall graphics system can be thereby improved.

Abstract: An input section inputs vertex data from a host CPU or a geometry process section to a rendering main process section. The rendering main process section performs a rendering process in accordance with the vertex data inputted into the input section. Therefore, the host CPU can directly write the vertex data, which does not require a geometry process, to a rendering process apparatus and a processing speed of an overall graphics system can be thereby improved.

Abstract: A clock control unit (7) detects completion of data processing based on a busy signal BSY1 output by a geometry processing unit (4) and a busy signal BSY2 output by a rendering processing unit (5). The clock control unit (7) controls supply of a clock signal CLK1 to the geometry processing unit (4) and supply of a clock signal CLK2 to the rendering processing unit (5) so as to cause the geometry processing unit (4) and the rendering processing unit (5) to alternately operate.

Abstract: An instruction analyzing unit sequentially analyzes instructions of a program which is inputted to a program inputting unit. A NOP instruction analyzing part encodes continuous NOP instructions as one continuous NOP instruction. An instruction code outputting unit outputs the instruction encoded by the instruction analyzing unit as an object code. Therefore, the size of the object code can be reduced.

Abstract: A square root extraction circuit and a floating-point square root extraction device which simplify a circuit structure and improve an operation speed are provided. Portions for generating square root partial data (q3 to q8) include carry output prediction circuits (3 to 8), respectively. The carry output prediction circuit (i) (i equals any one of 3 to 8) receives condition flags (AHin, ALin), the most significant addition result (SUM), and square root partial data (q(i−1)) from the preceding square root partial data generating portion, and also receives a carry input (Cin) to output condition flags (AHout, ALout) for the next square root partial data generating portion, and square root partial data (q(i)). The condition flags (AHout, ALout) serve as the condition flags (AHin, ALin) for the carry output prediction circuit (i+1), respectively.

Abstract: A graphic processor includes first and second buses and a plurality of geometric operation units having an output connected to the second bus, and a circuit to allocate a plurality of ordered data blocks formed of data to be operated upon to the plurality of geometric operation units, and an input of at least one of the plurality of geometric operation units is connected to the first bus. The plurality of geometric operation units include all arbitrating circuit to arbitrate the order of output between an output buffer to store a result of processing by the allocated data blocks and another geometric operation unit, and output data resulting from processing onto the second bus in an order corresponding to the sequence of the plurality of data blocks of data to be operated upon.

Abstract: A clock control unit (7) detects completion of data processing based on a busy signal BSY1 output by a geometry processing unit (4) and a busy signal BSY2 output by a rendering processing unit (5). The clock control unit (7) controls supply of a clock signal CLK1 to the geometry processing unit (4) and supply of a clock signal CLK2 to the rendering processing unit (5) so as to cause the geometry processing unit (4) and the rendering processing unit (5) to alternately operate.

Abstract: An apparatus for manipulating a face image such as a portrait which produces visual effects to keep interesting a user with simple processes without requiring preparation of a complex model and a number-crunching process for processing the model is provided.

Abstract: A logarithmic arithmetic unit includes first logarithmic operation part multiplying an exponent part of floating-point data by a prescribed value, a logarithmic table memory outputting a logarithmic value corresponding to bit data expressing a digit higher than a prescribed digit of a fixed-point part of the floating-point data, divisional precision decision part deciding divisional precision on the basis of the exponent part, division part performing division on a dividend obtained by subtracting the bit data from the fixed-point part and a divisor of the bit data and obtaining a result of division of a number of digits set on the basis of the divisional precision, second logarithmic operation part obtaining the logarithmic value of a value obtained by dividing the fixed-point part by the bit data and sum operation part adding outputs from the first and second logarithmic operation parts and the logarithmic table memory to each other.

Abstract: An FIFO data transfer control device includes an instruction analyzing portion for analyzing an instruction for data transfer to an FIFO storage device including a plurality of banks, and calculating an amount of data to be transferred; a data count portion for calculating, from the data amount calculated by the instruction analyzing portion, an amount of the data written in the bank being in an outputting state, and issuing a determination flag indicating whether the free space of the bank being in the outputting state satisfies predetermined conditions or not; and a full check portion for inhibiting processing of a next instruction until the determination flag sent from the data count portion or the full flag issued from the FIFO storage device is reset.

Abstract: A bridge includes a first port connected to a Primary bus, and second ports respectively connected to second buses. The first port includes a PCI master, a PCI slave and an AGP master. Each of the second ports includes a PCI master, a PCI target and an AGP Target. The bridge further includes a plurality of first-in-first-out memories forming asynchronous data paths between the first port and the second ports and arbitrators for arbitrating a contention between the transactions on the data paths formed by the first-in-first-out memories based on the protocols related to the transactions.