Abstract:
A probe cover for an ear thermometer and a grouping method of the same are provided. The probe cover for the ear thermometer includes a conical main body having a closed end and an open end, an annular elastomer, and a flange. The closed end is penetrable by infrared rays, and has different infrared transmittances according to thickness variations of the closed end. The annular elastomer is located between the conical main body and the flange. The flange has a plurality of detection positions, each of which having a positive detection pattern or a negative detection pattern, such that the detection positions are arranged to form a plurality of different detection combinations. The different detection combinations respectively correspond to the different infrared transmittances, and any two of the different detection combinations have the two corresponding infrared transmittances that are different from one another.
Abstract:
A reflecting shell includes a hollow joint unit, a hollow guide unit and a hollow receiving unit. The hollow joint unit has a stationary part at one end, and the stationary part is detachably connected to a detecting part of a measuring device. One end of the hollow guide unit is connected to the other end of the hollow joint unit, and an internal wall of the hollow guide unit has a first reflective surface and a second reflective surface, in which the first reflective surface and the second reflective surface correspond to each other. One end of the hollow receiving unit is connected to the other end of the hollow guide unit. Heat radiation from a heat source enters the hollow guide unit, and the heat radiation is transmitted to the detecting part by the reflection of the first reflective surface and the second reflective surface.
Abstract:
The instant disclosure provides a gas detection device including a chamber module, a light emitting module and an optical sensing module. The chamber module comprises a light condensing chamber, a receiving chamber and a sampling chamber connected between the light condensing chamber and the receiving chamber. The light emitting module is disposed on the light condensing chamber for generating a light. The optical sensing module is disposed in the receiving chamber. The sampling chamber comprises a first open end, a second open end corresponding to the first open end, a first surface, and a second surface corresponding to the first surface, the first and second open ends are connected to the light condensing chamber and the receiving chamber respectively, the first surface and the second surface are disposed between the first open end and the second open end, and the first surface is not parallel to the second surface.
Abstract:
A probe thermometer comprises a main body, a probe, a self-tapping thread, a temperature sensing unit and a display unit. The interior of the main body has a circuit board. The probe includes a measuring end and a coupling end which couples the main body. The self-tapping thread is formed on the measuring end. The temperature sensing unit is disposed within the probe and the temperature sensing unit is electrically connected to the circuit board. The display unit is disposed on the main body. The display unit, the temperature sensing unit and the circuit board are electrically connected. Thereby, the probe thermometer of the instant disclosure is convenient and effectively reduces cost.
Abstract:
An ear thermometer capable of identifying an infrared transmittance of a probe cover is provided and includes an ear thermometer body, a probe, and a plurality of activation elements. The probe is disposed on the ear thermometer body. A closed end of the probe cover is used for infrared transmittance, and the probe cover has different infrared transmittances according to a thickness variation thereof. The activation elements are disposed on the ear thermometer body and configured to detect the infrared transmittance of the probe cover. Each of the activation elements includes an ON state and an OFF state so that the activation elements are arranged to form different sensor combinations, which respectively correspond to different infrared transmittances, and any two of the different sensor combinations have the two corresponding infrared transmittances that are different from one another.
Abstract:
A temperature measuring device includes: a carrier, a temperature measuring module and a limiting member. The carrier includes a case body, a substrate disposed on the case body, a slot disposed on the case body, a first hole disposed on the case body, and a second hole. The first hole and the second hole are in communication with each other to form a gas flow path. The temperature measuring module includes a temperature measuring unit. The temperature measuring unit is disposed on the substrate, and the temperature measuring unit corresponds to the first hole. The limiting member is disposed on the carrier. The limiting member includes a positioning structure disposed on the slot and a limiting structure connected to the positioning structure.
Abstract:
The instant disclosure provides a non-contact temperature measuring device including a base, a temperature measuring module, a light module and a reflecting module. The temperature measuring module is disposed on the base and has a measuring area. The light module is disposed on the base and is configured to generate at least two projecting light beams. The reflecting module is disposed on the base and has a reflecting inclined surface. The at least two projecting light beams are projected onto the reflecting inclined surface and are reflected by the reflecting inclined surface, thereby forming at least two reflecting light beams adjacent to the measuring area respectively. The reflecting light beams surround a marking area which is able to overlap with the measuring area, and the range of the marking area changes according to the distance between the object to be measured and the non-contact temperature measuring device.
Abstract:
The invention is directed to a laser adjustment device, a laser adjustment system and a laser adjustment method for an infrared thermometer. The laser adjustment device of the present invention includes a first adjustment seat and a second adjustment seat. The first adjustment seat includes a base, a fixing portion, a first adjustment portion, a second adjustment portion, and a first pivot portion. The second adjustment seat includes a connecting portion, a receiving portion and a second pivot portion. The first adjustment seat is pivoted about the first pivoting portion via the first adjustment portion, a first elastic member, and a first adjustment member. The second adjustment seat is pivoted about the second pivot portion via the second adjustment portion, a second elastic member, and a second adjustment member.
Abstract:
A temperature measuring device is configured for measuring a predetermined object by a temperature measurement module. The temperature measuring device includes a device main body having a hollow probe structure. An outer surface of the hollow probe structure has a plurality of recessed spaces recessed therefrom and a plurality of concave areas respectively formed in the recessed spaces. When the hollow probe structure of the device main body directly or indirectly contacts the predetermined object, the recessed spaces of the hollow probe structure are configured to reduce a heat conduction path between the hollow probe structure and the predetermined object. When the hollow probe structure of the device main body directly or indirectly contacts the predetermined object, the concave areas of the hollow probe structure do not contact the predetermined object, so as to reduce a heat exchange area between the hollow probe structure and the predetermined object.
Abstract:
An infrared sensor module and a forehead thermometer are provided. The infrared sensor module includes a light guide structure and an infrared sensor element. An annular hollow space is formed inside the light guide structure and passes therethrough. A first and second opening is formed on two opposite sides of the light guide structure, respectively. A diameter of the first opening is greater than a diameter of the second opening. The annular hollow space includes a matte and reflective area, the matte area has serration portions, and each of the serration portions extends from the first opening to the second opening and is arranged parallel to each other. The reflective area is formed between the second opening and the matte area. The infrared sensor element is disposed at the second opening. The forehead thermometer includes a casing, a circuit board, the infrared sensor module, and an operating switch.