156results about How to "Simplify device configuration" patented technology

A cooling water circulation system (100) is configured so that cooling water is delivered from a water pump (113) toward a cylinder head (111) via a pump delivery pipe (114). Further, the system (100) is configured so that an engine block cooling switching section (170) changes the supply of the cooling water from the cylinder head (111) to a cylinder block (112) in accordance with a cooling water temperature. An EGR cooler branch pipe (151), which branches off from the pump delivery pipe (114), is connected to an EGR cooler (150). The EGR cooler branch pipe (151) is provided with an EGR cooler cooling switching valve (153) that opens or closes in accordance with an operating state.

Measurement of blood flow rate in a convenient manner has been enabled by using a simple device constitution and a simple signal processing technique. A measurement mechanism having both the function of measuring temperature of the measurement site and the function of applying a thermal load to the measurement site is used, and a process of extracting temperature change associated with the recovery of the surface temperature by the blood flow is conducted from the measurement results obtained by the measurement mechanism.

There is provided a display device which quenches ambient light by using only an optical interference effect without additionally using an optical filter such as a color filter, and can provide good visibility out of doors in the daylight. The display device includes a plurality of organic EL elements each having a light extraction electrode, a reflective electrode, and a plurality of organic compound layers disposed between the electrodes, wherein the plurality of organic EL elements include at least organic EL elements which emit a red light, a green light, and a blue light, respectively; a layer comprised of a material having anomalous dispersion is disposed at a location which is on a light extraction side with respect to the reflective electrode in each of the plurality of organic EL elements; and an ambient light reflectance of the display device shows a minimal in a region of 535 nm or more and 575 nm or less.

The liquid crystal display device with a simple configuration is capable of emitting light with a desired color temperature, achieving high light use efficiency, and displaying high quality images. The liquid crystal display device includes a planar lighting device and a liquid crystal display panel. The planar lighting device includes a light source having LED chips for emitting blue light, a transparent light guide plate having a light entrance plane admitting light emitted by the light source and a light exit plane emitting planar light, and a fluorescent member disposed between the light emission plane and the light entrance plane and having one or more fluorescent substance coated areas for emitting white light by converting blue light from the light source into white light and one or more blue light passing areas passing blue light as blue light. The liquid crystal display panel essentially includes red, green and blue filters.

The invention discloses a microvia-superfilling copper plating technology. The microvia-superfilling copper plating technology comprises the following steps of a, carrying out activation treatment on a blind hole plate to be plated in a dilute sulphuric acid solution for 1-10min, carrying out water washing and drying, vertically fixing the blind hole plate to be plated to the middle of a Hull cell having the volume of 1500mL, and putting phosphor-containing copper plates as anodes having phosphor content of 0.04-0.065% at two ends of the cell, b, preparing a plating solution, c, switching on a power supply, carrying out electroplating at current density of 0.5-2ASD for 5-30min, increasing current density to 0.5-4ASD, carrying out electroplating for 10-20min, wherein the whole electroplating process is finished in a static state, then switching off the power supply, taking out the blind hole plate as a cathode, flushing the blind hole plate by distilled water, and blow-drying the blind hole plate by cold air to obtain a sample. Under the condition of absolutely no forced convection of the plating solution, the microvia-superfilling copper plating technology does not increase surface copper thickness and guarantees a high microvia-filling rate of the blind hole device.

An automatic analysis device 1a includes: an intermediate disk (intermediate unit) 20 on which a disposable container (intermediate container) 21 for carrying out a pretreatment by pretreatment liquid for a sample dispensed from a sample container 11 or a reaction with a reagent is arranged; a reaction disk (main analysis unit) 60 for carrying out a test of an item having a relatively large number of test requests, on which a reaction vessel 61 for carrying out a reaction of a reagent with the sample obtained after the pretreatment is arranged; and flow-based analysis mechanisms (sub analysis units) 30a to 30c for carrying out a test for the sample obtained after the reaction with the reagent in the disposable container 21, which is the item having a relatively small number of test requests.

It is possible to provide a device and a method for combusting particulate substances which particulate matters discharged from an internal combustion engine can be effectively combusted, and the device configuration is simple and does not become large and heavy. The combustion device has: an introduction portion 8 used to introduce a particulate matter-containing gas 5 discharged from the exhaust port of an internal combustion engine; a charging unit 11 which is provided on the downstream side of the introduction portion 8, and in which all or part of the particulate matters 6′ are e negatively charged by bringing the particulate matter-containing gas into contact with; an electric discharge unit 15 which is provided in an insulation pipe 100 which is connected to the downstream side of the charging unit 11, and in which the particulate matters 6′, all or part of which are negatively charged, are introduced into a silent discharge area A1 and are combusted with an increased retention time, the silent discharge area being generated between an anode and a cathode; a discharge portion 9 which is connected to the insulation pipe 100 at the downstream side of the electric discharge unit and which discharges the combusted gas; and a power source unit which applies an electric field to the charging unit and the electric discharge unit.

When light is made incident into antenna layers 11a, 11b, and 11c of a photodetector 1, specific wavelength components of light contained in the incident light combine with surface plasmons of the antenna layers 11a, 11b, and 11c, and surface plasmon resonance occurs. Thereby, near-field lights are outputted from through-holes 13 of the antenna layers 11a, 11b, and 11c. The near-field light outputted from each through-hole 13 reaches a light absorbing layer 4 via light receiving surfaces 4a, 4b, and 4c. The light absorbing layer 4 generates a charge of an amount according to the amount of received light. Since cycle intervals Λa, Λb, and Λc of convex portions 12 in the antenna layers 11a, 11b, and 11c are different from each other, the wavelength component of light that combines with a surface plasmon differs in each of the antenna layers 11a, 11b, and 11c. Consequently, a plurality of wavelength components of light can be detected.

A method and device for sealing gas in a gas compartment-equipped bag, in which pressurized gas discharge outlets (47, 52) are provided in the distal ends of a horn (31) and an anvil (32) of an ultrasonic sealing device, and such horn and anvil used for ultrasonic sealing are also used as gas-discharging nozzles. The distal ends of the horn and the anvil are placed against a cutout (19) of a gas compartment (16) of a bag, a gas is discharged into the gas compartment from the discharge outlets, the films surrounding the cutout are being clamped by the horn and the anvil while gas discharging is in progress, and then the gas compartment is ultrasonically sealed by the horn and the anvil to trap the gas inside.

A hydrostatic continuously variable transmission includes a hydraulic pump and a hydraulic motor, supported by a common support shaft, and hydraulically connectable to each other through a hydraulic circuit including an inside passage and an outside passage. A clutch device includes a valve spool, which is slidably disposed in a hollow internal bore formed in the transmission support shaft. The valve spool is operable to make or interrupt fluid communication between the inside passage and the outside passage, according to the movement thereof. A governor mechanism is mounted to a pump casing of the hydraulic pump, and the governor mechanism generates a governor force corresponding to the rotating speed of a clutch cap, by use of centrifugal force generated by the rotation thereof. The valve spool is effectively moved in the hollow internal bore, using the governor force generated from the governor mechanism, to engage or disengage the clutch.