A sensor positioning device includes an inter-sensor distance measurement jig that measures a distance between two sensors, and is a reference when setting the distance between the two sensors to a target distance, and reference-setting jigs of sensor height position, each including a weight and a weight suspension member, a lengthwise direction of which is in a vertical direction when the weight is suspended, and each performing setting of a distance which is a total of a vertical direction dimension of the weight, a length of the weight suspension member, and a distance from an upper end of the weight suspension member to the sensor such that the distance coincides with a target height of the sensor, when the weight is in contact with a reference surface, in a state where the weight is attached to a sensor holding jig by the weight suspension member.

A sensor device includes a mounting member having fixation surfaces inside, and at least one electronic component directly or indirectly fixed to the fixation surfaces of the mounting member, and the mounting member constitutes a part of a casing for housing the electronic component. Further, the fixation surfaces are perpendicular to each other.

An onboard detector includes a cable including plural electric wires and a sensor module provided at an end of the cable. The sensor module includes a sensor, a housing member and a molded article. The sensor includes a sensor main body including a detecting element and plural lead wires electrically connected to the electric wires. The housing member includes a joint housing portion that houses joints of the electric wires and the lead wires. The molded article includes molding resin that is molded so as to cover at least a portion of the housing member and so as not to come into contact with the sensor main body. The joint housing portion includes a wire holding wall holding the electric wires and a sensor holding wall holding the lead wires so as to hold the sensor.

An object of the present disclosure is to improve the resistance of a sensor device to external damage. A sensor device includes a sensor element, and a resin cover part that covers the sensor element, wherein at least a portion of a surface of the resin cover part is cross-linked.

The innovation described herein generally pertains to a system and method related a wireless remote monitoring system for a tank, wherein the wireless monitoring system is incorporated into or coupled to a lid for the tank. The wireless remote monitoring system for the tank can include a cover system that includes a lid mountable on a corresponding tank, the lid comprising a space sized and shaped for receiving the wireless remote monitoring system therein, wherein the wireless remote monitoring system is operatively coupled to a sensor.

To provide a sensor that can be downsized in order to ensure a stroke of a moving member when the sensor is mounted on a track member, and a movement guide device including the sensor. A sensor that is attached to a movement guide device having a track member extending in a longitudinal direction and a moving member attached to the track member in such a manner that the moving member is movable in the longitudinal direction includes: a housing that houses a sensor substrate; a shielded cable connected to the sensor substrate; and a cable bushing that holds and secures the shielded cable to the housing. The cable bushing has a conduction hole that allows the housing and the shielded cable to be electrically connected to each other, and the housing has a conduction part that can be inserted into the conduction hole.

A vehicle chassis sensor assembly for measuring the ride height of a vehicle which comprises a rotary arm member including an overmolded magnet encapsulated in the rotary arm member. In one embodiment, the overmolded magnet includes a layer of overmold material defining an open overmold window in the side and/or top exterior surfaces of the layer of overmold material. Another embodiment includes a pair of spaced magnets that are completely encapsulated in a two step molding process before being molded into a rotary arm member.

Provided are a gas cell into which a gas is introduced, a temperature control block configured to control a temperature of the gas cell, and a pressure sensor configured to measure a pressure inside the gas cell. The pressure sensor is built into the temperature control block and/or the gas cell.

A sensor enclosure comprises a cover and a structure. The structure can be encased by the cover. The structure comprises a frame, a ring, and one or more anchoring posts. The frame can be configured to mount one or more sensors. The ring, disposed peripherally to the frame, can be operatively coupled to the cover. The ring can include a drainage ring plate that drains rainwater accumulated on the cover away from the sensor enclosure. The one or more anchoring posts, disposed underneath the frame and the ring, can be used to anchor the sensor enclosure to a vehicle.

The present invention relates generally to a device which is directed toward a compact, portable, lightweight and modular device for the integrity testing of equipment to determine fluid pressure, temperature and flow rates at specific locations throughout a system. The present invention provides the ability and capability to acquire data via immediate, intermediate or distanced pressure and temperature monitoring, observation and collection. Said results may be directly monitored, at an immediate, intermediate or distanced proximity, and thereby collected and digitally stored and/or transmitted, via real-time data collection and transmission, to an on-site or off-site operator or manager for remote active or passive data collection, data monitoring, data analysis and data management.