468 results about "Enclosure" patented technology

An electronic device may include an input structure, the input structure including a button member and a touch-sensing element coupled to the button member. The input structure may further include a beam structure at least partially within the enclosure, the beam structure configured to be deflected as a result of the force input, a strain-sensing element coupled to the beam structure, and a dome switch configured to collapse in response to the force input satisfying a first force threshold. The electronic device may determine a location of the force input on the input structure, cause the electronic device to perform a first operation in response to detecting that the force input satisfies a second force threshold that is less than the first force threshold, and cause the electronic device to perform a second operation, different from the first operation, in response to detecting the collapse of the dome switch.

The invention provides a main and auxiliary separation operation method for secondary shield pasting of an enclosure system, which divides the process steps of a secondary shield pasting project into a main process and an auxiliary process, the main process is operated by personnel with certificates, and the auxiliary process is operated by personnel without certificates, so that the personnel are reasonably distributed as much as possible. And meanwhile, the main process is reasonably divided into two operation sections, so that one person without license can meet the auxiliary requirements of the two main processes at the same time. According to the operation mode, the secondary shielding project period is shortened from 30 days to 20 days, and the daily secondary shielding installation number is increased by 30%. The standard operation mode provides theoretical guidance for secondary shielding engineering construction. Indexes needing to be completed every day are set according to the theory. And related abnormal condition explanations need to be provided for the grades which do not reach the installation indexes. And the abnormity in the construction process is separated out according to a standard operation mode, an abnormity database is established, and related solutions are formulated.

The invention discloses a carrier, and relates to the technical field of carriers, the carrier comprises a carrier body and an enclosure assembly, the carrier body comprises a bottom assembly and an enclosure frame assembly arranged on the bottom assembly, and the enclosure assembly is arranged on the enclosure frame assembly in a switchable mode between a first position and a second position; at the first position, the containing space is defined by the bottom assembly, the enclosure frame assembly and the enclosure baffle assembly; in the second position, the containing space is opened by the fence assembly, and an opening communicated with the containing space is formed in the peripheral side of the carrier. The technical scheme has the advantages that objects can be conveniently placed and taken out and can be conveniently put in and taken out of the containing space.

The invention relates to the technical field of assembly type construction, and discloses an assembly type transformer substation construction method based on a BIM (Building Information Modeling) technology, which comprises the following steps: step 1, decomposing a transformer substation project into standardized module units according to function and structure characteristics, each module unit comprises an equipment foundation module, a steel structure frame module, a pipe ditch module, a cable gallery module, an enclosure wall body module and an equipment interface module, and the geometric dimensions, material attributes and connection nodes of all the modules are defined in the decomposition process. A construction simulation model is generated by combining a BI model and a construction progress plan, the installation sequence, position information and connection operation of each module in a construction time period are decomposed, dynamic visual simulation is carried out by utilizing a virtual reality technology, and the installation positions, connection modes and node geometric relationships of the modules are visually displayed; accurate formulation and visual presentation of the construction plan are achieved, rework or delay caused by a plan blind area is avoided, and the effects of improving construction efficiency and scientificity are achieved.

Mobile, expandable cleanroom systems, methods, and devices are provided in accordance with various embodiments. Various embodiments include an expandable cleanroom that may include one or more tent enclosures and one or more door assemblies. Some embodiments include one or more HVAC systems. Some embodiments include a raisable truss structure that may lift and support the one or more tent enclosures. The expandable cleanroom may be coupled with an antechamber and / or a mechanical room. The combination of expandable cleanroom, antechamber, and / or mechanical room may be based on the form of a shipping container that may be transported by flatbed truck, railcar, boat, or other vehicles. This May allow for rapid deployment along with avoiding the need for wide-load permits; the various embodiments may also provide for inconspicuous deployment.

The invention relates to the technical field of image processing, and provides a power equipment installation inclination degree identification method and system, a medium and equipment, and the method comprises the steps: obtaining a power equipment inspection image, and carrying out the segmentation of a power equipment box through a deep learning instance segmentation method, and obtaining a box mask image; based on the box body mask image, carrying out box body minimum enclosing rectangle fitting by adopting an equal-interval rotation search method to obtain an inclination angle of the box body; wherein the equal-interval rotation searching method comprises the following steps: continuously rotating a box mask image for multiple times in the same direction, increasing the rotation angle at equal intervals, recording the minimum enclosing rectangle of the box mask image in each rotation, and calculating the area of the minimum enclosing rectangle obtained in each rotation; and finally, the minimum enclosing rectangle corresponding to the minimum area is selected as the minimum enclosing rectangle obtained by fitting, and the rotation angle of the minimum enclosing rectangle obtained by fitting is taken as the inclination angle of the box body, so that the calculation amount and the calculation complexity are effectively reduced.

The invention discloses an underground enclosure wall leakage detection method in an unexcavated stage, and the method comprises the steps: forming a plurality of through holes in a pipe body of each inclinometer at preset intervals before the construction of an underground enclosure wall; an inclinometer pipe is used as an injection pipe, and whether a leakage area exists in the underground enclosure wall or not is detected through a high-density electrical method instrument; for the underground enclosure wall with the leakage area, the electrode emitters in all the inclinometer pipes on the underground enclosure wall with the leakage area are taken out; and all the inclinometer pipes in the underground enclosure wall with the leakage area serve as sounding pipes, and the coordinate positions of leakage points of the underground enclosure wall with the leakage area are determined through an integrity testing method. The leakage detection efficiency of the underground enclosure wall can be improved, and the structural strength of the underground enclosure wall is prevented from being weakened.

System comprising a light-emitting diode strip (1) and a connecting element (2, 16), wherein the light-emitting diode strip (1) has an elongated, channel-shaped profile (8) with a bottom wall (12) having a bottom surface (14) and side walls (11) extending laterally from the bottom wall (12) and each having a top surface (15), and an inner recess (19) formed between the bottom wall (12) and the side walls (11), and has an elongated light-emitting diode strip (5) arranged in the inner recess (19), wherein the light-emitting diode strip (5) has a plurality of light-emitting diodes (9) arranged in the longitudinal direction of the light-emitting diode strip (5), and elongated contacting means (6, 30) are arranged on both sides of the longitudinal direction of the light-emitting diode strip (5) in the inner recess (19), which are configured to supply the light-emitting diodes (9) with electrical energy, and the inner recess (19) is provided with potting compound (7),wherein the connecting element (2, 16) has at least one contact means (23) which is configured for mechanical or mechanical and electrical contact with the contacting means (6, 30), and the connecting element (2, 16) has a base body (17) which has side edges (21) with a longitudinal extent and a lateral extent, and the base body (17) is provided with at least one recess (22) extending through the base body (17) which is configured for the passage of the contact means (23), characterized in that the base body (17) has a planar form with an upper (18) and a lower (20) body surface.

A mounting enclosure assembly is configured to mount an electronic component onto a Deutsches Institut für Normung (DIN) rail. The mounting enclosure includes a mounting bracket including a body having a slot configured to receive the DIN rail therein. A locking mechanism is operatively connected to the body of the mounting bracket to selectively engage and disengage the mounting enclosure assembly to the DIN rail. There is also a position for mounting the mounting bracket to a flat surface, e.g. where there is no DIN rail.

An enclosure to protect people and instruments from the effects of an electromagnetic pulse (EMP) is provided. The enclosure includes a floor assembly; walls extending upward on a first, second, third, and fourth side of the floor assembly; a roof; and a ceiling. On the interior of the enclosure, a shield layer is provided such that the enclosure forms a six-sided Faraday cage. Fasteners and other conductive securement materials such as copper tape help achieve the conductivity of the shield layer. Extending through the walls of the enclosure may be secure points of entry allowing for people, air, and conductors to securely enter and exit the enclosure. The enclosure contains a grounding system to assist with protecting the contents of the enclosure from the effects of the EMP.

The present invention belongs to the technical field of high-voltage switch devices, and relates to a gas-insulated ring main unit and a grounding switch. In the prior art, when cables in a ring main unit need to be overhauled, it is necessary to dismount the cables from a wall bushing, a voltage-withstand or through-flow test is then performed, and the cables are reset after the test is completed, resulting in a laborious overhauling process. The grounding switch in the present invention comprises grounding contacts corresponding to outgoing cables of all phases on a one-to-one basis, wherein grounding sides of the grounding contacts are all connected to the outer side of a gas enclosure by means of connecting conductors and are all then connected to a grounding busbar, and the grounding busbar is connected to the ground. When cables in a power supply loop of a gas-insulated ring main unit need to be tested or overhauled, it is only necessary to dismount the busbar, such that the overhauling process is greatly simplified.

An electronics equipment cabinet includes one or more cabinet walls defining an interior enclosure space for housing electronic equipment and an air management box coupled to an interior surface of one of the one or more cabinet walls. The air management box includes a wall and a plurality of plates detachably coupled to the wall. The plates include a first plate having one or more perforations defining a first perforation pattern and a second plate having one or more perforations defining a second perforation pattern to control the direction and / or volume of airflow to the electronic equipment in the interior enclosure space or from the electronic equipment in the interior enclosure space to the air management box. The first perforation pattern is different than the second perforation pattern. Other example electronics equipment cabinets, electronics equipment cabinet kits, and methods of controlling airflow in electronic equipment cabinets are also disclosed.

A wirelessly controlled blocking apparatus to enable a single-point locking system for securing multiple access points on a cabinet panel. Certain aspects of the present disclosure provide for a wirelessly controlled blocking apparatus to enable a single-point locking system for securing multiple access points. In accordance with certain embodiments, the wirelessly controlled blocking apparatus is utilized to secure an access panel of an enclosure, such as an electronics cabinet. In accordance with certain preferred embodiments, an electronics cabinet comprises a plurality of quarter-turn cam latches being installed on the access panel and configured to selectively secure the access panel to an opening of the enclosure.

A system and method for relocating branch circuit electrical cables which enter an existing electrical enclosure, and for which additional cable length is unavailable, to a novel enclosure presenting cable entry points favorably positioned to receive the existing branch circuit cables without additional length required, and in a manner considered safe and repeatable for multiple branch circuit cables to be relocated at present or in the future.

The invention provides a digital installation method for a fully-fabricated concrete enclosure of a transformer substation. The digital installation method comprises the following steps: performing information coding and model design on prefabricated parts through a digital technology; prefabricated parts are produced and sorted according to the information codes and the model design; the prefabricated parts are transported to a construction site through the intelligent transportation and hoisting technology, and precise positioning is completed; performing real-time verification on the mounting quality of the prefabricated part by adopting an automatic detection technology; and the construction process is recorded and accepted through a data management technology. Intelligent management of the whole construction process of the prefabricated part is achieved, and the construction efficiency and the quality control level are remarkably improved.

A system for the automated collection of test results and conformity reporting in IT service management environments. The system includes: a structural enclosure configured to enclose a variety of electronic components, wherein the structural enclosure is equipped with power supply circuits, thermal control units and electromagnetic shielding; at least one processor located within the structural housing and electrically connected to a communication controller, wherein the processor is configured to execute instructions for interface with distributed data sources for information technology service management; The communications controller includes a variety of encrypted data transmission circuits configured to securely extract evidentiary data from service management logs, access control records, configuration baselines, and monitoring databases; a compliance controller electrically connected to the processor, wherein the compliance controller comprises a rule-based processing unit configured to identify evidence artifacts required by a compliance framework, and a verification processing unit configured to validate the integrity, completeness, and format of the extracted artifacts; a time synchronization circuit electrically coupled to the compliance controller, wherein the time synchronization circuit is configured to assign tamper-proof cryptographic timestamps to each evidence artifact at the capture location; a memory management circuit electrically connected to the non-volatile memory, wherein the memory management circuit is configured to organize the validated evidence artifacts in a hierarchical and indexed data structure, with indexing being performed according to service identifiers and conformance categories; a hardware security controller located within the structural enclosure, wherein the hardware security controller includes a secure enclave configured to store cryptographic keys and to digitally sign evidence artifacts and compliance reports prior to their transmission; and an output interface that is electrically connected to the compliance controller and the hardware security controller, wherein the output interface is configured to generate compliance reports in both machine-readable structured formats and human-readable formatted documents and to transmit these reports to authorized audit systems.

A tape measure assembly and mount system may include a housing assembly having an enclosure with a tape assembly spooled within. An assembly may include the housing assembly having an interface in electronic communication with a controller within the enclosure. An assembly may include the controller having at least one mode selected from a group consisting of a tape / blade distance mode, and an implement distance mode. A mount system may include a first mount and a second mount selectively connected to one another, which may be configured to selectively mount to a power tool and more particularly, may attach to a fence of a power tool.

Operating equipment (10), in particular control head, positioner, positioner and / or sensor control, for process automation for use in an area where there is a risk of explosion and dusts, in particular electrically conductive dusts, may be present, comprising: a wall structure (1) serving as the housing of the equipment (10) comprising a first wall structure section (5) defining a first housing interior (11) and a second wall structure section (6) defining a second housing interior (12) separate from the first housing interior (11), wherein a first circuit arrangement (21) is arranged in the first housing interior (11) and the first housing interior (11) is enclosed dust-tight by the first wall structure section, so that dust cannot penetrate into the first housing interior (11) and the explosion safety of the first housing interior is ensured by the dust-tight enclosure, where in the second housing interior (12) one or more circuits (24) are arranged and all circuits (23) arranged in the second interior (12) form an intrinsically safe second circuit arrangement (22) so that even if dust penetrates the second housing interior (12), no explosion-triggering heating and / or sparking is possible through the second circuit arrangement (22) and the explosion safety of the second housing interior (12) is ensured by the intrinsically safe design of the second circuit arrangement (22), wherein the device (10) has a replaceable connection element (7) which is part of the second wall structure section (6), wherein the connection element has one or more fluid connections (16, 17).

The invention relates to the technical field of electronic enclosing walls, and discloses an electronic enclosing wall-based excavator stopping release control method and device, and the method comprises the steps: controlling a moving part of an excavator to approach an obstacle after the whole machine of the excavator is calibrated; position information of the whole machine working device is obtained, and an electronic enclosure of the excavator is set according to the position information; determining a first coordinate set of the moving part, a second coordinate set of the electronic wall and a third coordinate set of the obstacle; limiting the action or action speed of the whole machine according to each coordinate set and a preset whole machine operation range; when the whole machine stops, according to one or more preset excavator actions of the excavator, screening actions capable of enabling the whole machine to be far away from the electronic enclosing wall; and according to the action, the limitation on the action far away from the electronic enclosure wall is relieved, so that the excavator returns to the normal working state. Therefore, the limiting control accuracy and the limiting release accuracy of the excavator can be improved, and the working efficiency of the whole excavator can be improved.

An electrical interconnect system is described having an adapter mounted in an opening in a connector interface of a faceplate of an electronic enclosure. A sealing member can be used to prevent foreign matter, such as liquid, gas, or dust particles, from entering the enclosure and into a mating region between the adapter and a mating plug connector. The sealing member can include a base and a sidewall configured to surround an outer boundary of the adapter. The sealing member can be configured to form a first sealing interface with the faceplate and a second sealing interface with the plug connector. The first and second sealing interfaces can be orthogonal to each other. The sealing member can be made of an elastomeric material.

The utility model relates to the technical field of machine frames of injection molding machines, and discloses a hardware machine frame shell structure with a heat dissipation channel, which comprises a hardware assembly frame, a limiting frame, guide arms and a sliding frame, the limiting frame is assembled at the top of the hardware assembly frame, the guide arms are uniformly distributed between the limiting frame and the hardware assembly frame, and the sliding frame is arranged on the limiting frame. The sliding frame is arranged outside the guide arm in a sliding mode, air cooling pipes are evenly distributed in the hardware assembly frame, guide mechanisms are evenly distributed on the tops of the air cooling pipes, each guide mechanism comprises a filter pipe and a guide pipe, the filter pipes are assembled on the top of the hardware assembly frame, and the guide pipes are inserted into the tops of the air cooling pipes. According to the hardware rack shell structure with the heat dissipation channel, the interior is kept clean, the part fault risk caused by impurities is reduced, the service life of equipment is prolonged, the maintenance cost is reduced, the guide mechanism can be automatically closed when not in use, and dust and other foreign matter are prevented from entering the air cooling pipe to affect normal use of the air cooling pipe.

The invention relates to a functional building for electrical switchgear, wherein the functional building comprises a foundation and an enclosure with walls and a ceiling, within which the line connections and the electrical switchgear are arranged. Within the scope of the invention, it is proposed that the functional building has an intermediate floor, wherein the electrical switchgear is arranged on the intermediate floor, the intermediate floor being made of wood, and wherein the intermediate floor together with the foundation forms a cavity, the cavity being in fluid communication with a vertical pressure relief channel.

Title: Watertight enclosure configured to receive an electronic component. Watertight enclosure (1) configured to receive one or more electronic components (100) to be cooled and a cooling fluid in which the electronic component(s) are at least partially immersed, the enclosure comprising: a receptacle (2) having a base (20) on which the electronic component(s) can be placed, and a raised rim (22) which forms a corner, for example at a right angle, with the base, the raised rim forming a front (24) of the receptacle, in particular a cover configured to close, in particular in a watertight manner, the receptacle, an electrical connector (4) having, on the one hand, at least one external electrical pin (40), in particular of the conductive bar type, configured to allow an electrical connection with an electrical device external to the enclosure and, on the other hand,electrical connection elements (42) configured to allow electrical connection with cables (3) in the receptacle, and the electrical connector is mounted in an opening (28) in the front panel in a sealed and movable manner with some clearance. Figure for the abbreviation: Fig. 3,

An underground enclosure system includes an underground enclosure, a ground-fault circuit interrupter (GFCI), and an electrical outlet. The underground enclosure includes a base with a first wall that at least partially defines an internal volume. The wall includes a lip that extends into the internal volume. A lid is coupled to the base to at least partially enclose the volume. The lid can contact the lip and be received at least partially within the internal volume. The GFCI is disposed within the base and can receive electrical power. The electrical outlet is in electrical communication with the GFCI. The electrical outlet is positioned downstream from the GFCI. The electrical outlet can connect to an external electrical device and provide power to the external electrical device.

A Faraday tent apparatus includes a framework and an enclosure with a door. The enclosure includes a doorway panel having a doorway. The door is movable between open and closed configurations. When the door is in the closed configuration, the Faraday tent apparatus shields an internal compartment from RF and EMI communication with an ambient environment external to the enclosure. The doorway panel has a magnetically-engageable jamb portion. The door has door panel with a magnetically-engageable jamb interface portion extending about a periphery of the door panel. The jamb portion and the jamb interface portion are configured to be in mutual magnetic engagement when the door is in the closed configuration. The jamb interface portion may include a series of nested magnetic tracks. The door includes laterally-extending door stiffener panels sequentially arranged between a door lower end and a door upper end. Associated manufacturing methods are also disclosed.

The invention belongs to the technical field of carriers, and discloses an enclosure frame structure and a carrier, and when the enclosure frame structure is in an unfolded state, a first enclosure frame, a first connecting unit, a second enclosure frame and a second connecting unit are sequentially distributed in the circumferential direction to define a containing space. At least one pair of hinge shafts distributed diagonally in the first direction and the second direction are close to each other, the enclosure frame structure can be switched from the unfolded state to the folded state, and the first direction is perpendicular to the second direction. By the adoption of the arrangement, the size of the folded carrier can be greatly reduced, storage and transportation are convenient, and the enclosure frame structure has the advantage of being simple in structure.

The utility model discloses a ceramic tube shell and a packaging structure. The ceramic tube shell comprises a ceramic base body and a working assembly. The ceramic base body comprises a base and an enclosure part, the enclosure part is installed on one side of the base, an installation space is defined by the enclosure part and the base, the installation space is used for containing a chip, and the base is provided with a step located in the installation space; the working assembly comprises a power supply layer, a bonding layer, a signal layer and a back PAD layer, the power supply layer is arranged in the enclosure part, the bonding layer is arranged on the surface of the step, the signal layer is arranged in the base and located on the side, away from the power supply layer, of the bonding layer, and the back PAD layer is located on the side, away from the enclosure part, of the base. According to the scheme, the adverse effect of electromagnetic interference of the power supply layer on signal transmission can be effectively reduced, and the small size of the ceramic tube shell can be conveniently realized.

Disclosed herein are water-resistant housings for an electrical outlet. The water-resistance of the housings is implemented via interlocking step structured connections between sub-housings of the main housing. In one example, a water-resistant housing assembly may include a top and bottom housings each having perimeters formed of outer ridges and inner grooves, and a middle housing having a top middle perimeter and a bottom middle perimeter, the top middle perimeter and the bottom middle perimeter comprising respective inner ridges and outer grooves. In some examples, the middle housing is configured to form water-resistant connections with the bottom housing and the top housing via forming a interlocking step structure between the inner ridges and the outer grooves the corresponding outer ridges and inner grooves of the bottom housing and the top housing.

The present invention relates to a housing assembly (10) comprising side walls (14, 16, 18, 20) and at least one transverse wall (24), said walls (14, 16, 18, 20, 24) being configured to delimit a housing (28) suitable for receiving at least one electronic card (30) equipped with electronic components (36), characterized in that it comprises at least one series (S1, S2) of metal pins (38) arranged in the thickness of at least one of the walls (14, 16, 18, 20, 24) so ​​as to protect at least one zone (Z1, Z4) of the electronic card (30) or at least one component (36) of the electronic card (30) against electromagnetic interference. Figure for the abstract: Figure 1

An electrical device enclosure is provided that includes an electrical device; a telescoping support member having the electrical device supported thereon; an electrical device region, the telescoping support member being configured to move the electrical device into a stored position in a first space defined in the electrical device region and to move the electrical device into a deployed position outside of the first space; and a hood pivotally connected to the electrical device for movement between a hooded position and an unhooded position. The hood and electrical device region have cooperating surfaces, the cooperating surfaces being configured and positioned so that movement of the electrical device to the stored position moves the hood into sealed contact with the electrical device to define a weather-tight space around the electrical device.