Omron Healthcare Company Ltd.

Omron Corporation

Makoto Tabata

Hiroyuki Ota

Tetsuya Sato

Kei Asai

Yoshihide Onishi

Taiga Sato

Masao Maeda

Takaaki Okanishi

Yusuke Kato

Takehiro Hamaguchi

Kentaro Mori

Hiroshi Ogawa

Takanobu Yamauchi

Mitsuru Samejima

Manabu Yoshimura

Tsutomu Yamasawa

Shozo Takamatsu

Masayuki Esaki

Shigeru Tomioka

Yui Watanabe

Masaaki Takenaka

Shinichi Ito

Satoshi Kurata

Tsukasa Hatakenaka

Maki Hasegawa

Yoshihiro Nakatsuji

Shigeo Kinoshita

Tomoo Watanabe

Yoshihiko Ogura

Kazuyuki Morita

Yusaku Sakoda

Toshihiko Ogura

Fumie Shibata

Tadashi Koike

Yuki Shibata

Takao Terada

Masashi Fukura

Yosuke Fujii

Satoshi Hirono

Junji Kawamoto

Akio Sumiya

Susumu Kutsuhara

Yutaro Okuno

Yuka Tanioka

Kenshin Tanaka

Tatsuya Sato

Hisashi Miyaoka

Kiyotsugu Kuki

Katsuji Takahashi

Toshiro Furusawa

An electrical treatment apparatus includes an electrode contactable with a body part, a voltage regulator to regulate a voltage applied to the electrode to provide electrical stimulation to the body part, and a control circuit to control the electrical treatment apparatus. While the control circuit is performing the treatment mode in which the voltage regulator is controlled to apply a voltage at a first voltage value corresponding to the treatment mode to the electrode, the control circuit controls the voltage regulator to switch a value of the voltage applied to the electrode from the first voltage value to a second voltage value and to thereafter switch the voltage value from the second voltage value to the first voltage value.

Electrical treatment apparatus, system, and computer-readable medium storing program

With a nebulizer mesh selection method it is possible to achieve optimal treatment which fits a medicine and a patient. A nebulizer mesh selection method includes a step of acquiring a medicine attribute, by a computer, a step of acquiring a patient breathing ability, a step of selecting a mesh that corresponds to the acquired medicine attribute and patient breathing ability based on a mesh selection table in which a predetermined mesh corresponds to a combination of a medicine attribute and a patient breathing ability, and a step of outputting the selected mesh.

Nebulizer mesh selection method, apparatus, and program

An electric treatment device includes an impedance detector to measure bioelectrical impedance at a site of a body of a user by using electrodes in contact with the site, a voltage controller to perform treatment of the site by controlling a voltage applied to the electrodes, and a timer to set a target time from when treatment of the site is started by the voltage controller to when the voltage value of the applied voltage reaches the target voltage value, based on the measured bioelectrical impedance. The greater the measured bioelectrical impedance is, the shorter the timer sets the target time. The voltage controller increases the voltage value of the applied voltage to the target voltage value based on the set target time.

Electric treatment device and treatment system

An ultrasonic nebulizer includes a tank unit configured to be detachable with respect to a main body. The tank unit includes a working tank in which an ultrasonic vibrator is incorporated, a medicine tank, and a medicine tank cover, which are arranged overlaid in the stated order. The output of an oscillation circuit in the main body is applied to the ultrasonic vibrator through a main body-side contact electrode and a tank-side contact electrode when the tank unit is mounted on the main body. The main body includes an air fan that blows air into the medicine tank through an air duct of the medicine tank cover, and a medicine tank cover detection unit that detects whether or not the air duct of the medicine tank cover is adjacent to the main body so as to detect whether or not the tank unit is mounted on the main body.

Ultrasonic nebulizer

An ultrasonic nebulizer includes a working tank configured to be detachable with respect to a main body. The working tank includes a rod-shaped tank-side contact electrode that extends in a vertical direction along an outer wall of the working tank. A specific portion that corresponds to a portion in a circumferential direction of the outer circumferential surface of the tank-side contact electrode is exposed from the outer wall, and the remaining portion of the outer circumferential surface of the tank-side contact electrode is embedded inside of the outer wall and is connected to an electrode of an ultrasonic vibrator. A main body-side contact electrode comes into contact with the specific portion of the outer circumferential surface of the tank-side contact electrode when the working tank is mounted on the main body.

An ultrasonic nebulizer includes: a working tank in which an ultrasonic vibrator is incorporated and in which a working liquid is stored facing the ultrasonic vibrator; a medicine tank that stores a medicinal liquid, at least a bottom portion thereof being dipped in the working liquid; and a main body that includes an oscillation circuit that is to drive the ultrasonic vibrator. The medicine tank is configured to be detachable with respect to the working tank. The working tank is configured to be detachable with respect to the main body.

A method for producing a mesh including a resin mesh main body, and a resin reinforcing member configured to reinforce the mesh main body includes: a step of forming a plurality of through-holes using a laser beam in a mesh formation region of a first film material made of resin; a step of forming an opening portion in a second film material made of resin; a step of layering the first film material and the second film material so that the mesh formation region and the opening portion are arranged at positions that conform to each other; and a step of joining the first film material and the second film material to each other through laser welding at a portion surrounding the opening portion.

Method for producing mesh, and mesh

A drug solution tank of the present invention is a drug solution tank for an ultrasonic inhaler, including a drug solution reservoir portion having an upper edge that surrounds an opening and a bottom portion formed so as to protrude downward, a flange portion formed so as to extend outward from the upper edge of the drug solution reservoir portion, and a leg portion that is continuous with the outer perimeter or lower surface of the flange portion, is formed so as to surround the drug solution reservoir portion, and extends downward past the bottom portion of the drug solution reservoir portion.

Drug solution tank and drug solution pack for ultrasonic inhaler

A liquid spray apparatus includes a liquid storage part storing a liquid, a vibratory source including a leading end, a recess being formed in a surface of the leading end, and a mesh member including a large number of micropores and arranged to abut on the surface of the leading end of the vibratory source. The liquid is supplied from the outside of the leading end to the surface and the recess of the leading end. The liquid supplied to the surface and the recess of the leading end is discharged in an atomized manner through the micropores by vibrations of the vibratory source. This liquid spray apparatus can stably spray the liquid with the vibratory source and the mesh member.

Liquid spray apparatus

A nebulizer includes a main body unit, an atomization unit, and a breath detection unit, which is a function unit for realizing an additional function of the nebulizer. The main body unit and the atomization unit are separable. The atomization unit includes a storage section for storing the medicinal solution, and an atomizing section for spraying the medicinal solution by atomizing the medicinal solution in the storage section. The main body unit includes a control circuit for performing control to operate the atomizing section. The breath detection unit is attachable between the main body unit and the atomization unit.

Nebulizers and function units attachable to nebulizer

In a thin plate member washing apparatus, when a rotary arm member supporting a mesh member holding portion is rotated using a rotary handle, tap water flows over the surface of a mesh member, and medicinal fluid residue deposited on the mesh member is removed.

Thin plate member washing apparatus

A nebulizer includes a nebulizer body a relay pipe. The nebulizer body includes a connection portion that has an aerosol lead-out port to lead out aerosol, and the relay pipe includes a connection portion that has an aerosol introduction port to introduce the aerosol. The nebulizer body the relay pipe can take a first connection state in which the relay pipe detachably connected to the nebulizer body and a second connection state in which the relay pipe is connected to the nebulizer body so as to be not able to be detached from the nebulizer body. In the first connection state, the aerosol introduction port and the aerosol lead-out port are communicated with each other. In the second connection state, the aerosol lead-out port is blocked by a blocking portion provided in the relay pipe. Therefore, the nebulizer in which reuse of the nebulizer body or relay pipe is simply prohibited after the usage can be provided by the configuration.

Nebulizer and inhalation aid used therefor

An inhaler has a cap body for defining a flow path and having first and second air inhalation openings for introducing outside air into the flow path from the outside; an air inhalation valve for opening and closing the first air inhalation opening by using the difference in pressure between the flow path and the outside; and a shielding section capable of selectively shielding either of the first and second air inhalation openings. The inhaler is configured to be switchable between two states that are a first state where the second air inhalation opening is shielded by the shielding section and outside air can be introduced through the first air inhalation opening by using the pressure difference and a second state where the first air inhalation opening is shielded by the shielding section and communication between the flow path and the outside through the second air inhalation opening is constantly maintained.

Inhaler

A first thermistorand a second thermistorare arranged forwardly and rearwardly of a thermopile sensor. A thermopile chipis arranged and interposed between the first thermistorand an integrated thermistor. A sensor cover is mounted in contact with front and side portions of a can portionof a thermopile casing. A temperature or a radiant quantity of infrared rays on the front portion of the can portion is estimated from a temperature change of the integrated thermistor per second.

Radiation thermometer

Growing community of inventors

Kyoto, Japan

Makoto Tabata