19results about "Schools" patented technology

The present application relates to a combined energy dissipation and vibration reduction medical building frame structure system and design, construction and application, comprising: a plurality of longitudinal and transverse intersecting connections to form a plurality of frame grids of transverse beams and longitudinal columns, diagonal direction arranged in the frame grid buckling-restrained brace, and arranged in the frame grid viscous damping component; Wherein the viscous damping component includes an upper and lower connecting piece arranged on the adjacent transverse beam, and the viscous damper parallel to the transverse beam and the two ends are connected with the upper connecting piece and the lower connecting piece. Compared with the prior art, the present application combines the combined energy dissipation and vibration reduction technology scheme of the viscous damper with wall type connection and buckling-restrained brace, greatly improves the seismic performance of the structure, at the same time responds to the requirements of key seismic prevention and building engineering seismic management regulations, ensures that the normal use requirements can be met when the regional seismic protection earthquake occurs, that is, the structure can be used immediately under the medium earthquake, and the seismic toughness of the structure is improved.

System involved with but not limited to an apparatus including a non-permanent, interchangeable, standalone console assembly for the portable provision of power, water, and drainage infrastructure for medical equipment, including, but not limited to various types of dialysis and other medical treatments. Embodiments of the present disclosure also include numerous redundancies designed to allow for continued medical treatment in the event of a failure of one or more utility subsystems.

A method of assembling a mobile structure having a medical scanning device includes locating a first portion of the mobile structure on a ground surface, the first portion of the mobile structure having the medical scanning device mounted therein. The method includes securing the first portion to the ground surface. The method includes positioning a second portion of the mobile structure relative to the first portion such that an open end of the first portion is positioned adjacent to an open end of the second portion. The method includes operating a winch to draw the second portion into abutment with the first portion such that the first portion and the second portion form an enclosed space defined by the first portion and the second portion. The method includes securing the second portion to the ground surface.

This invention discloses a fully automated, flexible, adaptive modular embedded construction method for hospitals, belonging to the field of medical building industrialization technology. It comprises six steps: automated prefabrication of permanent bare building structures, production of flexible, adaptive, unmanned modules, automated transport and positioning, unmanned embedding and connection, unmanned iterative updates, and unmanned quality control throughout the entire process. This invention eliminates human intervention through fully automated machine operation; it utilizes a flexible, adaptive manufacturing plant that can adapt to any new medical technology in the future without rebuilding the production line; finished modules are directly embedded into the bare building structure, eliminating on-site manual assembly; integrated interfaces are plug-and-play; and iterations only require module replacement without damaging the permanent building structure. This invention achieves standardization, flexibility, and sustainability in hospital construction, completely solving the problems of easily obsolete production lines, high update costs, and cumbersome on-site procedures in existing models. This invention relates to a fully automated, flexible, adaptive modular embedded construction method for hospitals. The core of this method lies in the fully automated production of complete medical finished modules in an automated, unmanned intelligent factory. These modules are then transported to the permanent unfinished building via a pre-set underground transportation system. The modules are automatically embedded and connected without human intervention, and can be replaced without damage during iterations. The entire process is unmanned, and the production line can adapt to future medical technology iterations. The permanent unfinished building can be reused, enabling low-cost, high-efficiency, and sustainable construction and upgrading of hospitals.

The utility model relates to psychological assistance room technical field discloses a kind of foldable psychological assistance rooms, comprising: load-bearing support;Bottom plate component, outer periphery is connected on load-bearing support via lock catch component, including two or more than the plate body articulated together;First side plate component, lower end is connected on bottom plate component via lock catch component, including four or more than the plate body articulated together;Second side plate component, lower end is connected on bottom plate component via lock catch component, left and right ends are respectively connected with the left and right ends of first side plate component via lock catch component, including four or more than the plate body articulated together, a plate body is equipped with door;Top plate component, outer periphery is connected on first side plate component and second side plate component via lock catch component;Bottom plate component, first side plate component, second side plate component and top plate component form closed space by enclosing.The foldable psychological assistance room can be quickly deployed in hospital building interior, and provide more private comfortable psychological consultation environment for patient.

The application discloses a medical building fabricated wall body mounting method and relates to the technical field of medical buildings. The medical building fabricated wall body mounting method comprises the following steps: building a frame structure, obtaining a hanging frame structure, a wall plate structure and a bottom groove structure according to size data of the frame structure; mounting the hanging frame structure, fixing the hanging frame structure to a floor slab; threading electromechanical equipment through the hanging frame structure and mounting the electromechanical equipment to the floor slab; detecting the flatness of the ground of the frame structure to obtain a judgment result; when the judgment result is flat, mounting the bottom groove structure to the ground; assembling the wall plate structure, the hanging frame structure and the bottom groove structure to obtain a plurality of prefabricated wall bodies; and performing joint treatment between the plurality of prefabricated wall bodies.

A deployable mobile module configurable to be deployed to remote sites. The deployable mobile module includes an outer housing, a roof panel, the roof panel pivotably coupled to a lower edge of the outer housing; a floor panel, the floor panel pivotably coupled to an upper edge of the outer housing; and two sidewall assemblies, the sidewall assemblies pivotably coupled to a side edge of the outer housing, the sidewall assemblies each including a sidewall housing and a front wall subassembly that includes a door, the front wall subassembly pivotably coupled to a front edge of the sidewall housing. By unfolding the floor panel, roof panel, sidewall housings, and front wall subassemblies, a structure may be deployed. The deployable mobile module may have one or more pieces of equipment and other systems installed thereto such that the structure is ready to operate with minimal additional setup time.

This utility model relates to the field of medical equipment technology, and discloses a novel surgical cabin, including a cabin body frame. The cabin body frame includes a cabin floor plate, a drive device is fixedly installed on the upper surface of the cabin floor plate, a storage battery is fixedly installed on one side of the cabin floor plate, one end of the main horizontal oil pipe is fixedly connected to the drive end of the hydraulic pump, one end of the main vertical oil pipe is connected through to the other end of the main horizontal oil pipe, an oil tank is fixedly installed on the upper surface of the cabin floor plate, hydraulic cylinders and side cabin floor plates are both located below the cabin floor plate, two sets of hydraulic cylinders are located on both sides of the cabin floor plate, one end of one set of hydraulic cylinders is hinged to the other end of the main vertical oil pipe, and the telescopic ends of both sets of hydraulic cylinders are provided with telescopic rods, which are hinged to both sides of the side cabin floor plates. This utility model uses a storage battery to provide power, and the hydraulic pump drives the hydraulic cylinders to perform telescopic movements, realizing the automated deployment and retraction of the side cabin. The support components ensure the operation of the cabin in harsh environments.

The utility model belongs to the technical field of quick blood collection house, specifically relates to blood donation capsule mobile house. The utility model discloses a blood donation capsule mobile house, including house body, mobile chassis, the house body is frame structure, the house body includes four wall body, ceiling and bottom plate, the frame is metal frame structure welding, the house body is equipped with skin, the skin is filled with thermal -insulating material between four wall body, the skin is laid in the outside of the frame of house body, the frame bottom outside of house body is equipped with the substrate, with the substrate corresponding, the frame bottom inside of house body is equipped with bottom plate, the mobile chassis sets up below the house body, the mobile chassis is equipped with the moving wheel. The blood donation capsule mobile house still be provided with the ultraviolet air sterilization and disinfection system of concealment of the utility model, realize the uninterrupted work of ultraviolet to air sterilization and disinfection, and the blood donation capsule mobile house moves quickly.

Aspects of the present disclosure include methods for providing a site for the hyperbaric chamber, installing a deposition system at the site, wherein the deposition system is configured to deposit building materials for constructing the hyperbaric chamber, loading a layout of the hyperbaric chamber into the deposition system, and depositing the building materials according to the layout onto the site.

We provide an isolation room system. [Solution] An isolation chamber system 100 including a plurality of walls 130 defining a first chamber 150A, and including an air filtration system that draws air from at least within the first chamber through a filter.

This invention discloses a foldable and extendable prefabricated partition wall that can be converted to a modular design, comprising at least one second partition unit (20); the second partition unit (20) includes a first partition door (21), a second partition door (22), two third steel columns (23), a third wall panel (24), a fourth wall panel (25), two fourth steel columns (26), a fifth steel column (27), and two second rotating shafts (28). One end of the first partition door and one end of the second partition door are rotatably connected to the third steel columns, and the other ends of the first partition door and the second partition door are movably connected to one end of the third wall panel and one end of the fourth wall panel, respectively; the two fourth steel columns are fixed to the other ends of the third wall panel and the other ends of the fourth wall panel, respectively; the second rotating shafts are respectively set on the two third steel columns, the first partition door and the second partition door have the same size, and the third wall panel and the fourth wall panel have the same size.

To provide a temporary room unit which can be easily installed while ensuring sufficient strength, allows easy access, and is fully adaptable to the installation of electrical equipment. [Solution] A temporary room unit according to one aspect of the present invention comprises a door unit 2 having a door element 21 and a door frame element 22, a plurality of pillar elements 3, a plurality of beam elements 4 and a plurality of floor frame elements 5 for connecting the door unit 2 and the pillar elements 3, or for connecting the pillar elements 3 to each other, and can be combined to form a temporary room, while the door unit 2, the plurality of pillar elements 3, the plurality of beam elements 4 and the plurality of floor frame elements 5 can be stored separately.

This utility model relates to a mechanized assembly hospital operating room, comprising a frame. The top of the frame is screwed with corner ceilings, side ceilings, a central ceiling, a static pressure box, and LED flat panel purification lights. Composite corner posts are suspended at the vertical corners of the frame. Multiple composite wall panels, door frames, insulated cabinets, cold cabinets, anesthesia cabinets, and instrument cabinets are suspended on the sides of the frame. At least one composite wall panel has an air outlet box installed at its lower part. A pad is laid at the bottom of the frame, and a rubber base plate is adhered to the pad. The edges of the rubber base plate are bent and bonded to the composite corner posts and composite wall panels. The advantages are: on-site construction only requires mechanical equipment to connect and fix the joints with fasteners and apply adhesive for bonding, making assembly convenient and operation simple; it eliminates the need for mortar wall construction and pouring of a level floor, saving the time of waiting for mortar to solidify, thereby shortening the construction period and reducing dust pollutants generated during wall construction and level floor pouring.

This utility model discloses a bone marrow transplant ward, which includes a clean room, an external transparent window, an external guide structure, and an external sliding door. The clean room has an external observation opening and an external passage opening on its side wall, located on the same side wall. The external transparent window is located at the external observation opening. The external guide structure is located in the clean room and extends from the external passage opening to the external observation opening. The external sliding door is slidably mounted on the external guide structure, with its sliding direction matching the extension direction of the external guide structure. During sliding, the external passage opening can be opened and closed, and when the external passage opening is opened, it slides at least partially to the external observation opening. In this design, the external transparent window is at least partially located within the sliding stroke of the external sliding door, reducing additional space occupation and facilitating application in situations where ward space is limited. Furthermore, the external transparent window expands the field of vision for people outside, facilitating visits to patients inside and improving convenience. The structure is also simple and cost-effective.

This application relates to a compact single-person negative pressure chamber, specifically concerning the spatial structure of a negative pressure isolation chamber. It includes a chamber for negative pressure isolation, a first compartment for installing a control module, and a second compartment for installing a negative pressure module. The first and second compartments are vertically layered and separated from the main chamber. The second compartment is located at the bottom, and the first compartment is located above it. A solenoid valve and a vacuum filter are installed in the first compartment, with the solenoid valve connected to the vacuum filter. The second compartment contains a first air inlet pipe, an exhaust pipe, and a vacuum pump for establishing negative pressure. One end of the first air inlet pipe is connected to the vacuum filter, and the other end is connected to the main chamber. The exhaust pipe is connected to the main chamber, and one end of the vacuum pump is connected to the exhaust pipe, and the other end is connected to the outside. This application optimizes the spatial layout of the negative pressure chamber, improving its space utilization.

There is disclosed a transportable medical unit for the provision of radioligand therapy or molecular radiotherapy services, comprising: one or more treatment rooms, each treatment room having lead walls and a lead ceiling, wherein in a first state, the unit is lifted off the ground, and in a second state the unit is placed on the ground such that the floor of the unit is in contact with the ground.

The utility model relates to the technical field of operating room, especially, a novel assembly module for operating room, the bottom and top are all split assembly structure, can assemble into larger area operating room, and convenient transportation, good practicality, including multiple assembly type wall body, still include bottom assembly module, multiple central columns, multiple edge columns and top assembly module, multiple edge columns vertical installation bottom assembly module's corner, multiple central columns vertical installation bottom assembly module's edge, multiple assembly type wall body respectively install between multiple central columns and multiple edge columns, multiple assembly type wall body, multiple central columns and multiple edge columns combine and enclose assembly type enclosure, top assembly module installs on assembly type enclosure, bottom assembly module and top assembly module all are by multiple split units combination assembly.

This utility model relates to a honeycomb modular kindergarten building, belonging to the field of kindergarten building technology. It includes six enclosure panels that abut against each other. Each enclosure panel has a locking groove on both sides, with a locking element engaging between two locking grooves. Each enclosure panel also has a sliding groove at one end, with a sliding plate slidably connected inside each groove. A locking post is fixedly connected to one side of each sliding plate. The beneficial effect of this utility model is that the reaction force of the spring pushes the sliding plate to slide within the groove, thereby engaging the locking post with the corresponding locking groove. This further strengthens the connection between adjacent enclosure panels within the mortise and tenon structure, making the overall kindergarten building more robust. Furthermore, the structure allows for quick installation and disassembly of the kindergarten building by pulling the lever and removing the locking element.