A pressure gauge and/or relief valve which may be used in a single-use fluid system, such as a sterilizable fluid system. The pressure gauge and/or pressure relief valve may be formed of a disposable and/or sterilizable material, such as a non-metallic (e.g., polymeric) material. The material of the pressure gauge and/or pressure relief valve may be compatible with the material of a fluid-containing structure of the fluid system, such as to be bonded (e.g., welded) therewith. The fluid-containing structure may be retrofitted to integrate the pressure gauge and/or pressure relief valve therewith. The pressure gauge and/or pressure relief valve may have a simple configuration, such as a housing with a movable element therein. The movable element moves with respect to the housing to indicate pressure and/or to relieve pressure from within the housing and/or fluid-containing structure.

A pressure gauge and/or relief valve which may be used in a single-use fluid system, such as a sterilizable fluid system. The pressure gauge and/or pressure relief valve may be formed of a disposable and/or sterilizable material, such as a non-metallic (e.g., polymeric) material. The material of the pressure gauge and/or pressure relief valve may be compatible with the material of a fluid-containing structure of the fluid system, such as to be bonded (e.g., welded) therewith. The fluid-containing structure may be retrofitted to integrate the pressure gauge and/or pressure relief valve therewith. The pressure gauge and/or pressure relief valve may have a simple configuration, such as a housing with a movable element therein. The movable element moves with respect to the housing to indicate pressure and/or to relieve pressure from within the housing and/or fluid-containing structure.

Sensing systems, connectors, and methods include a housing, including a sensor and a locking mechanism, a junction, and a membrane. The junction includes a fluid inlet, a fluid outlet, and a receiving mechanism. The receiving mechanism is removably attachable to the locking mechanism. The membrane is disposed within the junction, and is in fluid communication with the fluid inlet and the fluid outlet. The sensor senses a property of a fluid across the membrane when the locking mechanism is attached to the receiving mechanism.

The manometer of the invention is an evolution of the EP 2687269 invention patent, of the applicant itself, in which by including a NB IoT communications module (Narrow Band, Internet of things) (10), the need to have a communications switchboard as a bridge between the manometer and the server or control center is avoided. Additionally, the manometer includes a presence and distance sensor (15) that allows to remotely monitor that the installation associated to the manometer complies with the safety regulations related to the accessibility that such installation must have, generating an alarm signal when the same may be blocked by any element.

The manometer of the invention is an evolution of the EP 2687269 invention patent, of the applicant itself, in which by including a NB IoT communications module (Narrow Band, Internet of things) (10), the need to have a communications switchboard as a bridge between the manometer and the server or control center is avoided. Additionally, the manometer includes a presence and distance sensor (15) that allows to remotely monitor that the installation associated to the manometer complies with the safety regulations related to the accessibility that such installation must have, generating an alarm signal when the same may be blocked by any element.

An electronic device according to various embodiments of the disclosure includes a front plate configured to form at least a part of a front surface of the electronic device, a speaker disposed in the electronic device, a barometric pressure sensor disposed in the electronic device to measure barometric pressure, a housing configured to form a side surface of the electronic device, and a first slit provided as a gap having a first interval between the housing and an edge portion of the front plate, wherein the housing includes a sound output hole provided at a position at which the speaker is disposed, and a through-hole provided at a position at which the barometric pressure sensor is disposed, and the housing is spaced apart from the front plate to provide a duct configured to connect the through-hole and a sound output passage which is a space for connecting the first slit and the sound output hole. In addition, various other embodiments identified through the specification are possible.

A sensor device includes a housing frame defining a first opening and a second opening; a sensing element having first and second sides is disposed within the housing frame and defines therein a first cavity at its first site and a second cavity at its second site, wherein the sensing element determines a differential pressure between the first and second sides; a first corrugated diaphragm configured to close the first opening to seal the first cavity, and a second corrugated diaphragm configured to close the second opening to seal the second cavity; and an inert hydraulic fluid disposed within the first and second cavities that fluidly couples an external pressure acting on the respective corrugated diaphragm to the respective side of the sensing element, wherein the first corrugated diaphragm and the second corrugated diaphragm is built by a conformal coating process using a substrate with structured surface.

A sensor device includes a housing frame defining a first opening and a second opening; a sensing element having first and second sides is disposed within the housing frame and defines therein a first cavity at its first site and a second cavity at its second site, wherein the sensing element determines a differential pressure between the first and second sides; a first corrugated diaphragm configured to close the first opening to seal the first cavity, and a second corrugated diaphragm configured to close the second opening to seal the second cavity; and an inert hydraulic fluid disposed within the first and second cavities that fluidly couples an external pressure acting on the respective corrugated diaphragm to the respective side of the sensing element, wherein the first corrugated diaphragm and the second corrugated diaphragm is built by a conformal coating process using a substrate with structured surface.

Sensor assemblies are provided for use in modeling water systems. These sensor assemblies can be used as sensor fish. These assemblies can include a circuit board supporting processing circuitry components on either or both opposing component support surfaces of the circuit board and a housing above the circuit board and the components, with the housing being circular about the circuit board in at least one cross section, and wherein the supporting surfaces of the circuit board are substantially parallel with the plane of the housing in the one cross section. Methods for emulating interaction of entities within water systems are provided. The methods can include introducing a sensor assembly into a water system. The sensor assembly can include: a circuit board supporting processing circuitry components on either or both of opposing component support surfaces of the circuit board; a housing about the circuit board and the components, the housing being circular about the circuit board in at least one cross section; and wherein the support surfaces of the circuit board are substantially parallel with the plane of the housing in the one cross section.

The present disclosure provides an arch bracket for a diaphragm pressure gauge, comprising a bottom, first windows, ribs, second windows and a top arranged in order, the first windows and the second windows being arranged alternately, taking one of the first windows as an example, two sides of the first window being respectively provided with a first fulcrum and a third fulcrum, and a middle of the first window being provided with a second fulcrum, the first fulcrum and the third fulcrum being used to connect the bottom and the ribs, and the second fulcrum being used to connecting the ribs and the top, and the second fulcrum being located on a vertical line between the first fulcrum and the third fulcrum. By setting the pre-punched notches on the pre-punched part, the first windows and the second windows on the formed part are formed by the pre-punched notches.