Hochiki Corporation

Bridgestone Corporation

Hochiki Kabushiki Kaisha

Nihon Doro Kodan

Jo Cosmetics Co., Ltd.

Hiroshi Shima

Toshiyuki Watanabe

Hidenari Matsukuma

Yukio Yamauchi

Kari Mayusumi

Yoshitaka Egawa

Kazuyoshi Iida

Manabu Dohi

Hiroshi Honma

Naotaka Tomita

Masanori Murase

Masahiko Nemoto

Koich Matsumoto

Toshikazu Osafune

Minoru Yamamoto

Naoya Matsuoka

Keizo Akutagawa

Takahisa Shizuku

Isao Asano

Naoto Yamano

Satoshi Hamatani

Masatoshi Nakamura

Wataru Seki

Masato Aizawa

Yukio Aoike

Katsuhiro Kobayashi

Kunio Nakasaki

Hajime Shimizu

Teruo Nakazawa

Kiho Gawahara

Ikuo Kondo

Fumiya Takahashi

A powder cosmetic comprising 3 to 80% by mass of a colorless interference pigment having a chroma C* of 5.0 or more (A), and 0.001 to 3% by mass of a color pigment (B), wherein a hue difference value ΔH* between an appearance color and a coating color is 10 or more is provided. The powder cosmetic may contain a content of 40 to 96% by mass of an inorganic extender pigment (C), a content of 1 o 30% by mass of an organic extender pigment (D), and a content of 1 to 30% by mass of an oily component (E).

Powder cosmetic

The present invention relates to a method for predicting a deformation behavior of a rubber material capable of accurately analyzing a deformation behavior of a rubber material even in a micro level, and more specifically, to a method for predicting a deformation behavior of a rubber material, including: generating a three-dimensional model of the rubber material formed by adding a filler to a rubber; applying a configuration condition specifying a relationship between a stress and a strain on the basis of thickness information and temperature information obtained on the basis of a molecular dynamics approach to a rubber layer portion constituting the three-dimensional model; and, analyzing the deformation behavior of the rubber material. Further, in the method for predicting a deformation behavior of a rubber material, it is preferable that the deformation behavior of the rubber material is analyzed by applying a finite element method to the three-dimensional model to which the configuration condition is applied.

Device for predicting deformation behavior of rubber material and method for predicting deformation behavior of rubber material

The alarming device of the present invention includes a battery power supply; a sensor section that outputs an anomaly detection signal in the case of detecting an anomaly; a alert section that outputs an anomaly alarm based on the anomaly detection signal; a reception circuit section that receives an event signal from another alarming device; a transmission circuit section that transmits an event signal to the other alarming device; an anomaly monitoring section that, when the sensor section has detected an anomaly, causes the alert section to output the anomaly alarm based on the anomaly detection signal and causes the transmission circuit section to transmit an event signal according to the anomaly of the alarming device to the other alarming device, and on the other hand, when the reception circuit section has received an event signal according to an anomaly of the other alarming device from the other alarming device, causes the alert section to output the anomaly alarm; and a communication control section that detects a predetermined event and performs communication control by adjusting the transmitting and receiving of an event signal by the transmission circuit section and the reception circuit section.

Alarming device

An alarm device includes: a detection device which detects an occurrence of an abnormal condition within a monitoring area; a transmission device which transmits an alarm signal when the detection device detects the abnormal condition; and an output device which, after the transmission device has transmitted the alarm signal, outputs an alarm after a lapse of a predetermined time after the transmission.

Alarm device and alarm system

There is provided an apparatus for measuring forces acted upon a tire in which a radial force and a peripheral force acting to the tire, which are required for the high precision measurement of a friction coefficient on a road surface, are simply measured in a high precision by detecting a magnetic field formed by a magnet fixed to a tread portion of the tire by a magnetic sensor fixed to a rim and measuring the forces acting to the tire from a variant pattern of a magnetic flux density detected un the rotation of the tire and without influencing upon the balance of the tire, which contributes to the high precision measurement of the friction coefficient on the road surface.

Method for measuring forces acted upon tire and apparatus for measuring forces acted upon tire

A fire sensor comprising a baseplate, a temperature detecting element, and a protective case. The baseplate has an outside surface which serves as a heat sensing surface which is exposed to a hot airflow generated by a fire. The temperature detecting element thermally contacts with the inside surface of the baseplate to detect the temperature of the baseplate. The protective case contacts with the radially outer portion of the inside surface of the baseplate to form a hermetically sealed space between itself and the baseplate. The temperature detecting element is confined within the hermetically sealed space. The baseplate has the temperature detecting element in approximately the central portion of the inside surface thereof and also has a shape and a material which meet the condition that the product of the thickness and heat conductivity of the baseplate is 1.1&#xd7;10(W/K) or less.

Fire sensor

Disclosed herein is a fire alarm system for connecting a plurality of fire sensors to sensor lines, and giving an alarm in response to fire information output from the fire sensor in a line unit. The fire alarm system includes a current modulation section and an address specification section. The current modulation section is used for maintaining a current flowing in the sensor line at a predetermined value for a predetermined time at the time of a fire, and modulating the current in accordance with the inherent address information of the fire sensor. The address specification section is used for sensing fire information by judging whether or not the current has been maintained at the predetermined value for the predetermined time, and also for specifying the inherent address of the fire sensor that issued the fire information, from the modulated state of the current.

Fire alarm system, fire sensor, fire receiver, and repeater

A fire heat sensor comprising a high-temperature detecting portion provided with a temperature detecting element which exhibits a fast heat response to a rise in ambient temperature, and a low-temperature detecting portion provided with a temperature detecting element which exhibits a slow heat response to a rise in ambient temperature. The fire heat sensor further comprises a resin member by which the high-temperature detecting portion and the low-temperature detecting portion are integrally formed so that heat energy is transferred from the temperature detecting element of the high-temperature detecting portion to the temperature detecting element of the low-temperature detecting portion. In the fire heat sensor, differential heat sensing is performed based on temperatures detected by the low-temperature detecting portion and the high-temperature detecting portion.

Fire heat sensor

A light scattering type smoke sensor comprising a holder with openings embedded with light emitting part and light detecting part respectively, which do not protrude into the smoke detection chamber. The optical axis of light emitting part intersects at a predetermined first angle &#x3b1; in the horizontal direction with the optical axis of the light detecting part at a predetermined second angle &#x3b2; in the vertical direction. The optical axis of the light emitting part and optical axis of the light detecting part further comprise a configuration angle &#x3b4; in the range of 90&#x2dc;120 degrees used as the supplementary angle for the scattering angle &#x3b8;. Accordingly, the smoke detection part is further constituted in a thin-shaped light scattering smoke sensor which enables the setup of a scattering angle with no directivity in the smoke influx to the smoke detection chamber.

Light scattering type smoke sensor

A fire sensor comprising a heat detection element for detecting heat from a hot airflow generated by a fire, a sensor main body, and an outer cover, which has a plurality of plate fins protruding from the sensor main body, for protecting the heat detecting element. The plate fins have a predetermined offset angle to a center line passing through the center of the outer cover and are erected approximately perpendicular to the sensor main body.

A flame detection device for detecting a flame caused by a fire, including a light attenuation filter for attenuating 90% or greater of light with wavelengths in a visible to near-infrared band radiated from the flame. The flame detection device further includes an imager for photographing an image of the attenuated light incident thereon, and a processing section for deciding the flame from the image obtained by the imager.

Flame detection device

A fire detection device comprises a detection element to convert the infrared ray energy into the electric signal, a first extracting unit to extract the signal of a first prescribed frequency range including the flicker frequency of a fire from the output signal of the detection element, a second extracting unit to extract the signal of a second prescribed frequency range including no flicker frequency of a fire but including the frequency on the higher frequency side than that of the first prescribed frequency range from the output signal of the detection element, and a judging unit to judge a fire based on the output signal of the first extracting unit and the output signal of the second extracting unit. The fire detection device is capable of surely discriminating and detecting the flame from other infrared ray energy generation source. A band pass filter or the like need not be increased in number, and the increase in the product price can be prevented. In particular, the flame detection device is capable of rapidly judging a fire, and suitable for practical applications.

Flame detection device and flame detection

A light emitting diode,and a condenser lens,are arranged in an optical axis direction. In the light emitting diode,a cover,having a tip end lens,is attached to one side of a main unit base,a light emitting chip,is supported by a bonding wire,drawn out from the body base,inside the cover,and a reflector,is placed behind the light emitting chip,With respect to a first light source of the light emitting chip,the position where light which is forward reflected by the reflector,impinges on the tip end lens,is set as a virtual second light source,and the focal point of the condenser lens,is set at the position of or in the vicinity of the position of the second light source

Light projection device for a photoelectric smoke sensor

A noise barrier wall is provided which has a main wall body standing generally vertically and provided atop thereof with a first sound absorbing unit, and on a side thereof opposite to a noise source with an overhang extending away from the noise source and of which the free end is directed upward and provided at an end thereof with a second sound absorbing unit. Each of the first and second sound absorbing units comprises two branch walls extending obliquely upward to the left and right, respectively. Each of the two branch walls is provided with an additional branch wall. These additional branch walls extend obliquely upward towards each other. An opening is defined between free ends of the additional branch walls.

Noise barrier wall

A noise control apparatus adapted for installation on top of a straight upright sound barrier, existing or newly erected, is provided which comprises a main body formed from a first screen inclined towards a sound source and a second screen inclined away from the sound source to have a generally V-shaped cross section; the first screen having formed at the top thereof a first additional screen inclined away from the sound source; the second screen having formed at the top thereof a second additional screen inclined towards the sound source; and the distance between free ends of the first and second additional screens being 55 to 88% of that between the tops of the first and second screens. This sound barrier structure has a highly improved effect of noise control while being very compact and lightweight.

Growing community of inventors

Kanagawa-ken, Japan

Hiroshi Shima