Canon Kabushiki Kaisha

Toshihiko Ichise

Keiji Ishizuka

Yuzo Kataoka

Tetsuo Asaba

Hidekazu Takahashi

Hayao Ohzu

Kei Fujita

Shunichi Kaizu

Osamu Ikeda

Shunsuke Inoue

Tsuguhide Sakata

Shigeyuki Matsumoto

Toshiaki Sato

Yukihiko Sakashita

Hiroyuki Nakamura

Hisashi Kawai

Fumio Murooka

Seiji Kamei

Hiroshi Nakano

Shunichi Morita

A semiconductor device has a device region, and a device separation region formed on a semiconductor substrate doped with impurities. And, the device separation region has a metal wiring formed on the surface of the device region or the back surface of the substrate. An aluminum region extending in the longitudinal direction connected to the metal wiring is formed within the device separation region.

Device separation structure and semiconductor device improved in wiring

A semiconductor device with a high-density wiring structure, and a producing method for such device are provided. The semiconductor device has a substrate such as silicon, an insulation layer laminated on the substrate and having a groove or a hole, and a wiring of a conductive material formed in the groove or hole in the insulation layer. The wiring is formed by depositing a conductive material such as aluminum or an aluminum alloy in the groove or hole of the insulation layer by a CVD method utilizing alkylaluminum hydride gas and hydrogen. The groove or hole can be formed by an ordinary patterning method combined with etching.

Method of making a planar wiring in an insulated groove using

A semiconductor device has transistors, each transistor having a first conduction type of a first semiconductor region including a first main electrode region, a second conduction type of second semiconductor region including a channel region which is provided in the first semiconductor region, a second main electrode region provided in the second semiconductor region, a gate electrode on the channel region extending through a gate insulating film between the first and second main electrode regions. A portion of the first main electrode region which contacts the channel region is a high-resistance region. The semiconductor device also has buried-type element isolation regions which prevent the occurrence of latch up and bird's beaks in the device.

Semiconductor device for driving heat generator

A driver circuit comprises a current mirror circuit including an output transistor, a load connected to a main electrode of the output transistor, and current supplying device for supplying a current to a control electrode of the output transistor. The output transistor controls a current flowing through the load.

Semiconductor light emitting element driver circuit

A semiconductor device including a bipolar transistor, has a collector region including a first semiconductor region of the first conductivity type and a second semiconductor region of the first conductivity type having higher resistance than the first semiconductor region, a base region including a semiconductor region of the second conductivity type, and an emitter region including a semiconductor region of the first conductivity type. The semiconductor device further comprises a metal layer region for connecting the first semiconductor region and the collector electrode on the collector region provided within the second semiconductor region layer of the collector region.

Method of making a semiconductor device with buried electrode

Semiconductor device with buried electrode

An ink jet recording apparatus having a recording head wherein an electrothermal converting element for generating the emission energy and a semiconductor functional element are integrally formed within a semiconductor substrate. The functional element with its base and collector shorted is electrically connected to the electrothermal converting element. Thereby, variation in ink emission is limited so that the recording head can record high quality images.

Recording head

Semiconductor device with isolating groove containing single crystalline

A phase locked loop circuit including a controllable oscillator, a phase detector for detecting a phase difference between an output signal of the oscillator and an input signal, and a control signal generator for generating a control signal for controlling an oscillation frequency of the oscillator on the basis of the output of the phase detector. The phase locked loop circuit also includes a feedback circuit for controlling a level of the control signal on the basis of a DC level thereof. The feedback circuit is able to temperature compensate for changes in the oscillator output signal thereby keeping the lock range of the phase locked loop circuit constant against variations in temperature.

Phase locked loop circuit having temperature compensated VCO control

Growing community of inventors

Kawasaki, Japan

Toshihiko Ichise