Abstract: A nebulizer includes a medication adjustment member and a nebulizing module. The medication adjustment device includes a liquid reservoir and a medication adjustment member. The liquid reservoir includes a first opening and a second opening. The liquid reservoir includes an accommodating cavity, and the first opening communicates with the second opening through the accommodating cavity. The medication adjustment member is detachably disposed on the first opening and located in the accommodating cavity. The medication adjustment member includes a third opening and an adjustment opening. The medication adjustment member includes an adjustment chamber therein. The third opening communicates with the adjustment opening, and the adjustment opening communicates with the second opening. The nebulizing module is disposed inside the liquid reservoir. The nebulizing module is located at a connection position between the second opening and the accommodating cavity.

Abstract: A nebulizer includes a host, a cup body, a nozzle assembly, a nebulizing module, and an optical sensing module. The host has a detection hole. The cup body is disposed on a top of the host. The nozzle assembly is disposed on the cup body. The nozzle assembly has a nozzle. The nebulizing module is disposed on the cup body. The optical sensing module includes an optical sensor and a membrane structure. The optical sensor is disposed inside the host. The membrane structure is disposed in the detection hole, and the membrane structure blocks between the nozzle and the optical sensor. When a user inhales against the nozzle, the membrane structure is deformed by a pressure difference generated inside the nozzle, and the optical sensor is used to detect a deformation amount of the membrane structure.

Abstract: A breathing simulation system is used to test a plurality of to-be-tested atomization devices and includes a main tube, a plurality of connecting pipes, an air suction mechanism, a liquid supply mechanism and an aerosol condensation module. The main tube forms a main airflow passage, and is provided with air intake holes and at least one liquid outlet. Each of the connecting pipes is disposed between the corresponding air intake hole and an air suction port of the corresponding to-be-tested atomization device. The air suction mechanism communicates with the main airflow passage, and is configured to generate a negative pressure in the main airflow passage, and form an airflow path between the air suction mechanism and each of the air suction ports.

Abstract: An atomization module includes a base, an auxiliary fixing member, an atomization member, a piezoelectric element, a conductive member, and a waterproof member. The base includes a support portion and an outer annular portion. The support portion has a first opening, the outer annular portion surrounds the support portion, and the support portion protrudes relative to the outer annular portion. The auxiliary fixing member is disposed on the support portion, and has a second opening. The second opening is opposite to the first opening. The atomization member is disposed between the support portion and the auxiliary fixing member. The piezoelectric element is disposed on the outer annular portion, and the piezoelectric element and the atomization member are disposed on a same side of the base. The conductive member is electrically connected to the piezoelectric element. The waterproof member at least partially covers the piezoelectric element.

Abstract: An atomization module includes a main fixing member, an auxiliary fixing member, an atomization component and a piezoelectric component. The main fixing member includes a first bonding part, a second bonding part and a connecting part. The first bonding part has a first opening and a first bonding surface surrounding the first opening. The second bonding part is connected to the first bonding part, and the connecting part and the second bonding part surround the first bonding part. The auxiliary fixing member has a second opening and a second bonding surface surrounding the second opening. The piezoelectric component surrounds the first bonding part. The main fixing member has a first adhesive groove, which is jointly defined at least by the main fixing member, the auxiliary fixing member and the atomization component. The first adhesive is provided in the first adhesive groove.

Abstract: A voice coil motor includes a casing with a receiving space, a plurality of magnetic elements disposed in the receiving space, a carrier movably disposed in the receiving space for carrying a lens unit, a coil wrapped around the carrier, and a resilient member interconnecting the casing and the carrier to seal a gap between the casing and the carrier. The coil interacts with a magnetic field of the magnetic elements when energized for generating a driving force to displace the carrier. The resilient member is movable along with the carrier and is deformed to generate a restoring force that is opposite to the driving force.

Abstract: A dust collection container, capable of being installed in a vacuum cleaner, includes a case body and a blocking member. The blocking member is disposed in the case body to separate the case body into a dust chamber and a diversion chamber, a suction inlet corresponding to the dust chamber and an exhaust opening corresponding to the diversion chamber are disposed in the case body, and a barrier piece is disposed at the blocking member opposite to the suction inlet, so as to form a slow flow area between the barrier piece and the suction inlet to effectively disperse dirt.

Abstract: An electronic device includes a charging station and a main unit. The charging station has a first electrode and a second electrode. The first electrode and the second electrode form an angle therebetween, and the main unit has a third electrode and a fourth electrode. When the main unit is connected to the charging station, the main unit firstly contacts the second electrode with the fourth electrode, and then contacts the first electrode with the third electrode, so as to be recharged by the charging station.

Abstract: A dust collection container, capable of being installed in a vacuum cleaner, includes a case body and a blocking member. The blocking member is disposed in the case body to separate the case body into a dust chamber and a diversion chamber, a suction inlet corresponding to the dust chamber and an exhaust opening corresponding to the diversion chamber are disposed in the case body, and a barrier piece is disposed at the blocking member opposite to the suction inlet, so as to form a slow flow area between the barrier piece and the suction inlet to effectively disperse dirt.

Abstract: An electronic device includes a charging station and a main unit. The charging station has a first electrode and a second electrode. The first electrode and the second electrode form an angle therebetween, and the main unit has a third electrode and a fourth electrode. When the main unit is connected to the charging station, the main unit firstly contacts the second electrode with the fourth electrode, and then contacts the first electrode with the third electrode, so as to be recharged by the charging station.

Abstract: A portable biological information measuring device includes a body and at least one measuring member. The body has a biological information measuring circuit assembly and a hub. The measuring member has a connection line, which coils in the hub and is capable of changing a pull-out length according to a disposition position of the body on a human body. In this manner, the body is disposed at different positions according to measuring demands of users, such that the connection line may freely extend to the appropriate length for the user, for performing a measurement.

Abstract: An anti-interference physiological sensing device includes an electrode layer for detecting a physiological signal of an examinee, and an insulating layer disposed on a side of the electrode layer for insulating the electrode layer from static electricity interference.

Abstract: An airbag having a stable pressure release device operated with a sphygmomanometer includes a casing having an interconnecting pipe with a solenoid valve for discharging air from an airbag and an air escape valve for discharging air at a low airflow, when measuring blood pressure. The airflow is adjusted for a standard sized airbag, and the interconnecting pipe is connected to the airbag. The airbag is larger than a standard sized airbag. The airbag has a porous piston. If a larger arm is measured, the air is discharged through the air escape valve with a low airflow, and the air holes of the piston can increase the airflow and stabilize the pressure release, so that a more accurate pulse signal can be obtained.

Abstract: A structure for stabilizing the pressure release of a pressurizing device of a sphygmomanometer includes a valve having an air channel with an end connected to a pressurizing member and another end to an airbag, and the air channel is connected to an interconnecting pipe that is integrally formed with the valve, and the interconnecting pipe includes a pressure release valve having a porous piston body for isolating the air channel. When the pressurizing member is pressurized, the air passes through the air channel to apply a pressure to the airbag. The air in the airbag passes through the air holes of the porous piston body to the outside for measuring blood pressure, and the pulse sensor can detect the pulse signal of the blood pressure more accurately by the airflow.

Abstract: A stable pressure release device for electronic sphygmomanometer includes a casing and a multi-passage interconnecting pipe on the casing. An end of the interconnecting pipe is connected to a cuff, a pump, a pulse detector, and a low airflow valve. The low airflow valve includes an air passage which has a piston made of a porous material, so that when the electronic sphygmomanometer is used, the pump pressurizes and sends air into the interconnecting pipe. After the cuff is filled up with air, the air in the cuff is released in a low airflow steadily to the outside through the small even air holes of the piston. Therefore, the pulse sensor can accurately detect a pulse signal of the blood pressure, since the airflow is small and stable. The piston will not be exhausted easily and the airflow is steady, and thus errors will not result easily during the detection.