A method of determining a temperature of a patient includes measuring a first temperature of the patient with a temperature device, and measuring a second temperature of an environment with the temperature device. The method includes determining if a change in the ambient temperature exceeds a threshold. If the change does exceed the threshold, the method also includes applying a correction factor to the first temperature of the patient to account for the change in ambient temperature.

A thermometer includes a probe to be fitted into an ear of a patient, the probe having an infrared sensor for measuring the temperature of an eardrum of the ear of the patient in a non-contact manner, a signal cable connected to the infrared sensor and drawn out of the probe, a gripping part provided in the probe to be gripped when the probe is inserted inside a tragus of the ear, and a groove portion provided in the gripping part to hold the signal cable in a curved state and to allow a curved portion of the signal cable to fit in and along a cavum conchae of the ear.

A cap for a thermometer having a probe configured to be placed in contact with a patients body or to be inserted into a body cavity of the patient and a temperature sensor includes a cap housing, a proximity sensor and a proximity sensor electrical conductor. The cap housing is configured to selectively connect with and to be selectively detached from the thermometer and at least partially surround the probe of the thermometer when connected with the thermometer. The proximity sensor is connected with the cap. The proximity sensor electrical conductor is connected with the cap and electrically connected with the proximity sensor. A thermometer including the cap is also provided.

A detection device of the present invention includes a temperature sensor configured to detect a temperature of an eardrum of a human, a supporting member including a columnar portion, to a distal end of which the temperature sensor is attached, a cover that covers the temperature sensor, and a heat shrinkable tube that adheres tightly to a peripheral wall of the cover and a side surface of the columnar portion in a state in which the heat shrinkable tube is shrunk after being heated.

A probe cover for an ear thermometer includes a conical main body, an annular elastomer, a flange and a plurality of convex rib structures. The conical main body includes a closed end and an open end. The annular elastomer is connected with the open end of the conical main body. The flange is connected with the annular elastomer. The annular elastomer is arranged between the conical main body and the flange. The flange has a first surface and a second surface. The convex rib structures are disposed on the flange and spaced apart from each other, and the concave rib structures protrude upwardly from the first surface.

An infrared thermometer, having an upper shell, a lower shell, an ear temperature probe, and a forehead temperature head; the ear temperature probe is provided with an infrared sensor, an infrared sensor copper sleeve and a probe body; a piece of flat and smooth transparent glass is provided between an end of the probe body having a smaller inner diameter and the infrared sensor copper sleeve, so that the end of the ear temperature probe inserted into the ear canal is configured as a flat surface by the transparent glass.

A thermometer is provided that includes a main body having a first body including first and second regions and a second body mounted on the first body, the main body extending in a first direction; a rubber cap surrounding the second region and formed to be inserted into the ear; a temperature sensor disposed in the second region and having a specific temperature sensing range with respect to the first direction; and first and second circuit boards electrically connected to the temperature sensor and disposed in the second region in a second direction intersecting the first direction.

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.

The present invention is related to a non-contact infrared thermometer, which includes at least three infrared sensors, an indicating unit and a microprocessor. The at least three infrared sensors are arranged in serial to receive an infrared ray at a target area. The indicating unit is configured to emit visible light on the target area to indicate a received infrared region. The microprocessor is configured to receive and process the infrared ray measured by the at least three infrared sensors to provide at least three temperature values, thereby determining that the object to be measured is an organism.

A probe cover for an ear thermometer includes a conical main body, an annular elastomer, a flange and a plurality of convex rib structures. The conical main body includes a closed end and an open end. The annular elastomer is connected with the open end of the conical main body. The flange is connected with the annular elastomer. The annular elastomer is arranged between the conical main body and the flange. The flange has a first surface and a second surface. The convex rib structures are disposed on the flange and spaced apart from each other, and the concave rib structures protrude upwardly from the first surface.