In an embodiment a sensor device includes a sensor element in a housing, wherein a mechanical fastening element is arranged and fastened to the housing, the mechanical fastening element including a spring element, wherein the housing includes a plastic having a liquid crystal polymer filled with boron nitride, and wherein the housing includes a base part and a cover part connected to each other, and a cavity in which the sensor element is arranged.

The present invention relates to a sensor module and an auto defog sensor. The sensor module includes a housing, a flexible substrate, and a temperature sensor. The housing has a contact face arranged and configured for installation on a surface, wherein the contact face of the housing has an opening. A flexible substrate has a base substrate part fixed inside the housing and a curved substrate part which extends in a bent form from the base substrate part and has an extension end fixed inside the housing so that a contact part of the curved substrate part is withdrawn via the opening of the housing and configured to press against the surface. The temperature sensor is arranged on or in the contact part of the curved substrate part and configured to measure a temperature of the surface.

The present invention relates to a sensor module and an auto defog sensor. The sensor module includes a housing, a flexible substrate, and a temperature sensor. The housing has a contact face arranged and configured for installation on a surface, wherein the contact face of the housing has an opening. A flexible substrate has a base substrate part fixed inside the housing and a curved substrate part which extends in a bent form from the base substrate part and has an extension end fixed inside the housing so that a contact part of the curved substrate part is withdrawn via the opening of the housing and configured to press against the surface. The temperature sensor is arranged on or in the contact part of the curved substrate part and configured to measure a temperature of the surface.

A temperature sensor including a connection part that makes it possible to restrain a mechanical damage to an electrical wire, particularly, to an insulating covering, with little man-hours. The object is achieved by a temperature sensor including: a sensor element including a heat-sensitive body, a pair of electrical wires electrically connected with the heat-sensitive body, and a protective body covering the heat-sensitive body and a part of the pair of electrical wires; a holding body for the sensor element; and a fixing pipe covering a periphery of the pair of electrical wires and the holding body and being capable of expanding and contracting.

A sensor assembly includes a housing defining a potting chamber and arranged along a sensor axis, a mounting flange extending about the sensor axis the axially offset along the sensor axis from the housing, and one or more intermediate flange. The one or more intermediate flange is arranged between the housing and the mounting flange along the sensor axis, the one or more intermediate flange coupling the mounting flange to the housing. The one or more intermediate flange is spaced apart from mounting flange to limit thermal communication between the mounting flange and the housing. Gas turbine engines and methods of cooling sensor assemblies are also described.

A sensor assembly includes a housing defining a potting chamber and arranged along a sensor axis, a mounting flange extending about the sensor axis the axially offset along the sensor axis from the housing, and one or more intermediate flange. The one or more intermediate flange is arranged between the housing and the mounting flange along the sensor axis, the one or more intermediate flange coupling the mounting flange to the housing. The one or more intermediate flange is spaced apart from mounting flange to limit thermal communication between the mounting flange and the housing. Gas turbine engines and methods of cooling sensor assemblies are also described.

A furnace for relieving glass products of stress is provided. The furnace has a furnace interior and a thermal element that measures temperatures in the furnace interior. The thermal element is enclosed by an enveloping tube composed of an inorganic material.

A furnace for relieving glass products of stress is provided. The furnace has a furnace interior and a thermal element that measures temperatures in the furnace interior. The thermal element is enclosed by an enveloping tube composed of an inorganic material.

Embodiments of an axle monitoring system of the present invention generally include an oil bath cap plug equipped with a sensor assembly containing one or more power provision components, and an oil level monitor, a humidity/temperature sensor, a vibrational energy detector, and/or a GPS tracking chip, all of which are mounted on a microcircuit board, wherein the sensor assembly is adapted and configured to be fitted inside the axle oil bath cap plug. In various embodiments, information and/or data obtained by the sensor assembly can be transmitted, in raw or processed form, to one or more remote devices. Embodiments of a method of using embodiments of an axle monitoring system of the present invention are also provided.

Embodiments of an axle monitoring system of the present invention generally include an oil bath cap plug equipped with a sensor assembly containing one or more power provision components, and an oil level monitor, a humidity/temperature sensor, a vibrational energy detector, and/or a GPS tracking chip, all of which are mounted on a microcircuit board, wherein the sensor assembly is adapted and configured to be fitted inside the axle oil bath cap plug. In various embodiments, information and/or data obtained by the sensor assembly can be transmitted, in raw or processed form, to one or more remote devices. Embodiments of a method of using embodiments of an axle monitoring system of the present invention are also provided.