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 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: 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 shockproof gas sensor includes a gas detector, an infrared source, an infrared detector a circuit board and at least one shockproof unit. The gas detector defines a chamber, a first end portion and a second end portion opposite the first end portion. The infrared source is disposed in the chamber proximate to the first end portion while the infrared detector is disposed in the chamber and proximate to the second end portion. The circuit board is respectively electrically connected to the infrared source and the infrared detector. The shockproof unit is coupled to the gas detector and the circuit board, and the gas detector is secured on the circuit board by the shockproof unit.

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: A rotatable probe cover dispenser for an ear thermometer comprises a base having a probe cover basin, and a rotatable seat having at least one rotating shaft pivotally coupling the rotatable seat to the base and enabling the rotatable seat to rotate with respect to the base. The rotatable seat has a probe cover cartridge assembly rotating together with the rotatable seat and having a probe cover chamber accommodating probe covers. The probe covers fall out from a probe cover dispensing opening. The base has a slide track assembly arranged above a probe cover basin and cooperating with the rotatable seat to enable the probe cover cartridge assembly to slide to a position above the probe cover basin. Thereby, the probe covers inside the probe cover cartridge assembly can be dispensed to the probe cover basin.

Abstract: The present invention discloses a method for detecting temple hot spot temperature of a live body. Firstly, an infrared thermometer is used to continuously scan a temple of testee's forehead to obtain a plurality of measured infrared signals. Next, the measured infrared signals are sequenced from a greatest to a smallest measured infrared signal. Two output infrared signals closest to the greatest measured infrared signal are selected from the sequenced infrared signals. An average signal value is worked out from the selected infrared signals. Then, the average signal value is converted into a temple hot spot temperature of the testee's forehead. Thereby, not only the test result is more precise, but also the testee can learn the test result sooner.

Abstract: The present invention discloses a laser-aiming device for a radiant thermometer, which comprises a laser adjustment seat, a laser device, and a prism having two inclined faces. The laser adjustment seat is arranged on a temperature detection device of the radiant thermometer. The laser device and the prism are arranged on the laser adjustment device. The laser device generates a laser beam. The prism is located at the illuminated side of the laser beam and coaxial with the laser device, refracting the laser beam into two laser beams that generate two laser spots designating the detectable area of the radiant thermometer.

Abstract: The present invention discloses a probe cover dispenser, which comprises a base having a probe cover basin; a probe cover cartridge receiving probe covers; a gravitational member applying gravity to the probe covers; and a feeder assembly arranged between the base and the probe cover cartridge. The gravitational member makes a probe cover fall from the probe cover cartridge onto the base, and a feeder pushes the gravitationally released probe cover to the probe cover basin. Then, the user inserts a probe of an infrared thermometer into the probe cover inside the probe cover basin to sleeve the probe with the probe cover. Via the present invention, the user can fit a probe cover onto a probe without using his hands. Thus, the present invention can effectively reduce the pollution of probe covers and the infection of testees.

Abstract: An ear thermometer with an ear canal sensing device and a measurement method thereof is disclosed. The ear thermometer mainly comprises two sensors. One is an approach sensor installed on a probe. The approach sensor used as the ear canal sensing device determines whether the probe is inserted into an ear canal. Also, the approach sensor is used as the basis to switch the measurement mode to an ear temperature mode or a second measurement mode, such as the forehead temperature mode, surface temperature mode, or room temperature mode. The other is an infrared sensor used to measure temperatures. After the approach sensor determines the measurement mode, the infrared sensor measures the temperature to obtain a signal. Then, the signal is processed through a control module to be shown on a display unit.

Abstract: The present invention discloses an improved probe structure, which is installed in the body of an infrared clinical thermometer and comprises a plastic hollow casing having an opening; a curved block annularly arranged inside the opening; a hollow sleeve arranged inside the casing and along the perimeter of the opening; a temperature sensor arranged inside sleeve and below the curved block; a support element arranged inside the sleeve and supporting the temperature sensor; and a thermal insulation ring encircling the temperature sensor and pressing against the inner wall of the sleeve. The thermal insulation ring has an outer diameter larger than a width of the temperature sensor, and an air gap is thus formed between the temperature sensor and the inner wall of the sleeve; the top of the thermal insulation ring has an altitude higher than the top of the temperature sensor, and another air gap is thus formed between the temperature sensor and the curved block.

Abstract: The present invention discloses a probe cover for an ear thermometer, which comprises: a film cover and a base. The film cover has a cover window able to contact the probe window at the front end of the ear thermometer, a hollow cone able to contact the sidewall of the probe and a strengthened element able to contact the cover window and the hollow cone. The thickness of the cover window is same as the thickness of the strengthened element and greater than the thickness of the hollow cone. Thereby, the present invention can prevent the variation of infrared transmittance caused by the misarrangement and non-uniform thickness of the probe cover film disposed at the front of the probe window.

Abstract: The present invention discloses an infrared clinical thermometer, which can measure both the forehead and ear temperatures, wherein after moving the temperature sensing unit close to an intended site, the user can obtain the temperature of the intended site via merely pressing the forehead or ear temperature button.

Abstract: The present invention discloses an ear thermometer with a simple-structure and easy-operation probe-cover detaching mechanism, which comprises a body having a probe and a detaching element installed to the bottom of the probe. The detaching element can be directly operated by a finger. After measurement, the user can use the detaching element to exert an outward force on a probe cover sleeving the probe and reject the probe cover from the probe. Further, the detaching element may be made of a metallic material, and magnetic elements are arranged at the corresponding positions of the probe bottom; thereby, the detaching element can be automatically restored to its original position by the attractive force of the magnetic elements. Therefore, the present invention provides an ear thermometer, which can easily reject a probe cover from the probe and has the advantages of simple structure and easy operation.

Abstract: The present invention discloses a method for calibrating an infrared thermometer, which can obtain a sensitivity of a radiation sensor of an infrared thermometer and a reference resistance of an ambient-temperature sensor of the infrared thermometer. The method of the present invention uses an infrared thermometer to detect two test objects respectively placed in two environments having different ambient temperatures to obtain output signals of the radiation sensor and resistances of the ambient-temperature sensor from the two test objects. Then, the method of the present invention uses the output signals of the radiation sensor and the resistances of the ambient-temperature sensor to work out the sensitivity of the radiation sensor and the reference resistance of the ambient-temperature sensor.

Abstract: A probe cover dispenser comprises a main body, an elastic component, and a separation board. The main body has a receiving groove therein. A groove is disposed at the top end of the main body. The elastic component is disposed in the receiving groove. One end of the elastic component is fixed at the bottom of the receiving groove, and the other end thereof is connected with a separation sheet. A plurality of probe covers are stacked in the receiving grooves above the separation sheet. The separation board is disposed in the groove at the top end of the main body. One end of the separation board is pivotally connected with the top end of the main body so that the separation board can be screwed into the groove at the top end of the main body to separate the first probe cover from the second probe cover.

Abstract: An ear thermometer probe structure comprises a shell body. A hollow thermal absorption component is disposed in the shell body, and contacts several positioning points one the inner wall of the shell body. An air gap is formed at the part of the thermal absorption component not contacting the shell body. A wave guide is disposed in the thermal absorption component. The rear section of the wave guide tightly contacts the thermal absorption component, and the front section thereof is separated from the shell body by an air gap. A filter is disposed at the front end of the wave guide to let infrared rays be transmitted. An annular sealing pad is located between the filter and the top of the shell body. A sensor is disposed behind the wave guide and fixed on the thermal absorption component. The sensor is separated from the thermal absorption component and the wave guide by an annular air room.

Abstract: A two-way display infrared thermometer comprises a main body. An infrared wave-collecting device is disposed at the front end in the main body. A sensor is disposed at the bottom of the infrared wave-collecting device. A liquid crystal display is disposed on the surface of the main body to display the temperature. A direction detection device is disposed in the main body to detect the horizontal state of the main body so as to control the display direction of the liquid crystal display. A mount is disposed on the main body so that the main body can be supported and adjust the angle of measurement. A direction-switching device is disposed on the main body for manually switching the display direction of the liquid crystal display. Thereby, the infrared thermometer can straightly display the measured temperature for quick reading of the temperature value regardless of standing upright or upside down.

Abstract: A probe cover of a tympanic thermometer and method for manufacturing the same are provided in the invention. The method for manufacturing the probe cover includes: (a) forming an infrared transparent sheet; (b) forming a sheath having a closed end and a circumferential peripheral flange, a plurality of unwanted parts being formed on an outer circumferential wall between the circumferential peripheral flange and the closed end of the sheath, and the closed end being formed into a flat window; (c) hot-pressing the plurality of unwanted parts to form a plurality of fins; (d) removing the plurality of fins to form a plurality of cutting marks; (e) turning over the sheath to make the plurality of cutting marks located inside the sheath so that the outer circumferential wall thereof is smooth; and (f) combining the circumferential peripheral flange of the probe cover with a ring base.