Terumo Kabushiki Kaisha

Nissan North America, Inc.

Nissan Motor Company Limited

Takeharu Iwata

Takashi Morita

Bobby Fuentes

Yoshihisa Sugawara

Youko Hatanaka

A vehicle hood lever assembly has a latch mechanism, a latch lever and a striker structure. The latch mechanism has a latching member movable between a hood locking orientation and a hood unlocking orientation. The latch lever attaches to the latch mechanism at a location spaced apart from the latching member movable between a hood catching orientation and a hood release orientation. The striker structure has a main striker member and a secondary striker member. With the striker structure moving toward the latch mechanism, a surface of the secondary striker member contacts a portion of the latch lever moving the latch lever from the hood release orientation to the hood catching orientation. In response to continued movement of the striker structure toward the latch mechanism, the main striker member engages the latching member and is restrained against further movement with the latching member being moved into the hood locking orientation.

Vehicle hood lever assembly

A release lever cover assembly for a vehicle includes a bracket assembly, a first release lever, and a release lever cover. The bracket assembly is configured to be connected to a vehicle body structure of the vehicle. The first release lever is pivotally connected to the bracket assembly. The first release lever is movable between a first position and a second position in which a vehicle component is released. The release lever cover is slidably connected to the bracket assembly. The release lever cover is movable between a first position preventing movement of the first release lever and a second position allowing movement of the first release lever.

Hood release lever cover assembly for a vehicle

An extracorporeal circulation device having high safety without increases in the circuit scale and the power consumption includes a main control unit responsible for control of a motor drive circuit so as to yield a blood flow rate per unit time set by a user. The motor drive circuit applies a drive signal corresponding to the set blood flow rate to a motor. A sub-control unit configured by a field programmable gate array (FPGA) detects the drive signal applied to the motor and monitors whether or not the drive signal falls within an allowable range corresponding to the set blood flow rate. If the drive signal outside the allowable range is applied, the main control unit is deemed to be in an abnormal state and the main control unit is completely stopped. Then, the sub-control unit takes over the subsequent processing.

Extracorporeal circulation device and control method

A controller for a life support device, the controller having a control section in charge of sequence control, the controller includes: a first interface section transmitting an output state of the control section to each part in the life support device, and transmitting an output state of each part in the life support device to the control section; and a second interface section setting an output state in response to detection of a predetermined data sequence output from the control section, and maintaining the set output state until the second interface section receives the predetermined data sequence anew. A part of the life support device is driven via the second interface section.

Growing community of inventors

Kanagawa, Japan

Takeharu Iwata