mhurhangee/patent-ind-claim-en huggingface dataset:
An air source heat pump boiler, wherein the boiler comprises a rotating unit , a crankshaft , a boiler body , and at least one conversion assembly, wherein the crankshaft is fixed and mounted at the output end of the rotating unit , and the crankshaft has at least one bulge arranged in one-to-one correspondence with the conversion assembly; each conversion assembly comprises a piston rod , an air cavity , a driving piston , and a wrist pin , wherein the driving piston is slidably arranged in the air cavity and divides the air cavity into a first cavity and a second cavity ; the wrist pin is arranged in the second cavity and fixed and connected with the driving piston ; both ends of the piston rod are rotatably connected to the wrist pin and the corresponding bulge , respectively; the first cavity is provided with an air intake; the multiple heating pipes are in communication with the first cavity at one end and stretch into the boiler body at the other end; the boiler body is sealed and stores water and is provided with a steam outlet, the steam outlet of the boiler body being connected to terminals via pipelines; characterised in that each conversion assembly comprises multiple heating tubes , the rotation speed of the rotating unit is adjustable; and the crankshaft is provided with a flywheel at one end that is away from the rotating unit .
A device for generating droplets of a dispersed phase (D) in a continuous phase (C), comprising a plurality of channels , wherein each channel comprises an inlet and an outlet , and wherein each channel extends from said inlet along a respective longitudinal axis (L) to said outlet , so that droplets of a dispersed phase (D) can be generated in a continuous phase (C) at said outlets when a flow of said dispersed phase (D) from said inlets to said outlets is provided and said outlets are in flow connection with a reservoir or conduit containing said continuous phase (C), wherein said device comprises a plurality of layers of a substrate material arranged in a stack , wherein each layer comprises a first side and a second side , wherein the first side faces away from the second side , and wherein the first side of each layer comprises a plurality of grooves , wherein the grooves of each first side are covered by a second side of an adjacent layer , such that said plurality of channels is formed, wherein the inlets are arranged on a front side of the stack and the outlets are arranged on an opposing back side of the stack , characterized in that each of the channels comprises a nozzle positioned at said outlet of the respective channel , wherein said nozzle comprises a first maximum cross-sectional extension (e 1 ) and wherein the respective channel comprises a second cross-sectional extension (e 2 ) adjacent to said nozzle , wherein said first maximum cross-sectional extension (e 1 ) is larger than said second cross-sectional extension (e 2 ). wherein said device comprises a plurality of layers of a substrate material arranged in a stack , wherein each layer comprises a first side and a second side , wherein the first side faces away from the second side , and wherein the first side of each layer comprises a plurality of grooves , wherein the grooves of each first side are covered by a second side of an adjacent layer , such that said plurality of channels is formed, wherein the inlets are arranged on a front side of the stack and the outlets are arranged on an opposing back side of the stack , characterized in that each of the channels comprises a nozzle positioned at said outlet of the respective channel , wherein said nozzle comprises a first maximum cross-sectional extension (e 1 ) and wherein the respective channel comprises a second cross-sectional extension (e 2 ) adjacent to said nozzle , wherein said first maximum cross-sectional extension (e 1 ) is larger than said second cross-sectional extension (e 2 ).
Façade or roof lining comprising lining elements which are fixed, by fastening elements , to a subconstruction having slats extending along a lining element row , wherein each lining element comprises a head region , along an upper edge extending along the lining element row , said head region having a slat support limb extending from an outer face of the façade or roof lining in the direction of the subconstruction for supporting the head region on a upper side of the slat , and comprises a foot region , along a lower edge extending along the lining element row , comprising an engagement recess, wherein the fastening element comprises a slat rear engagement portion at a first end, which portion extends along a rear face of the slat opposite the outer face of the façade or roof lining , from an upper slat edge as far as beyond a lower slat edge , and rests on an underside of the slat opposite the upper side , wherein the fastening element comprises a head retaining portion by means of which the slat support limb of a first lining element is held on the upper side of the slat , and wherein the fastening element comprises a foot engagement portion on an end opposite the slat rear engagement portion , which foot engagement portion engages in the foot region of a second lining element and pushes the foot region of the second lining element against the head region of the first lining element , and both together in the direction of the slat , characterised in that the head retaining portion comprises a slat support limb portion resting on an upper side of the slat support limb of the first lining element , and an angled head clamping portion which rests on the outer side in the head region of the first lining element , by means of which clamping portion the head region of the first lining element is pressed onto the slat , and in that the foot engagement portion extends, spaced apart from the outer side of the first lining element , in the head region thereof, directed from the upper side of the slat towards the underside thereof, and engages in a form-fitting manner in the engagement recess in the foot region of the second lining element , such that the foot region of the second lining element can be pushed from the underside of the slat , upwards, with the engagement recess in the foot engagement portion of the fastening element , until the head region of the second lining element can be supported on an upper side of a slat arranged thereabove.
A method of interacting with an elevator system comprising a sensor system , the method comprising: detecting, using the sensor system , performance data for the elevator system , the elevator system including one or more elevator cars; generating on a user interface a service and maintenance screen on a user mobile device , through a maintenance application for a user of the elevator system to report maintenance issues regarding the elevator system in an issue report , and entering the issue report on the service and maintenance screen , or collecting accelerometer data using an accelerometer located in the user mobile device and generating an issue report in response to the accelerometer data; a controller receiving the issue report from the user mobile device ; the controller determining a maintenance issue of the elevator system in response to at least one of the issue report and the performance data ; and the controller transmitting the maintenance issue to a maintenance device belonging to a maintenance worker of the elevator system. detecting, using the sensor system , performance data for the elevator system , the elevator system including one or more elevator cars; generating on a user interface a service and maintenance screen on a user mobile device , through a maintenance application for a user of the elevator system to report maintenance issues regarding the elevator system in an issue report , and entering the issue report on the service and maintenance screen , or collecting accelerometer data using an accelerometer located in the user mobile device and generating an issue report in response to the accelerometer data; a controller receiving the issue report from the user mobile device ; the controller determining a maintenance issue of the elevator system in response to at least one of the issue report and the performance data ; and the controller transmitting the maintenance issue to a maintenance device belonging to a maintenance worker of the elevator system.
A medical clinic comprising: a plurality of medical systems ; and a heat pump of a heating/cooling system, wherein the heat pump is configured to be supplied with waste water from each of said plurality of medical systems , wherein the plurality of medical systems are dialysis systems and wherein the plurality of dialysis systems are configured to supply warm waste water to the evaporator section of said heat pump . a plurality of medical systems ; and a heat pump of a heating/cooling system, wherein the heat pump is configured to be supplied with waste water from each of said plurality of medical systems , wherein the plurality of medical systems are dialysis systems and wherein the plurality of dialysis systems are configured to supply warm waste water to the evaporator section of said heat pump .
Conductor assembly having a housing , a bushing insulator , an electrical conductor , a lightning arrester that has a longitudinal direction , an operating state, in which the lightning arrester is designed to limit an overvoltage occurring in the electrical conductor , and a test state, in which the lightning arrester is not designed to limit the overvoltage, wherein the bushing insulator is designed to hold the electrical conductor and insulate it from the housing , wherein the lightning arrester comprises a conductor connection , at least part of which is arranged so as to be moveable relative to the remaining lightning arrester and is therefore designed to switch the lightning arrester between the operating state and the test state, characterized by an electrically insulating support arranged between the lightning arrester and the electrical conductor in the longitudinal direction , the support being supported by the electrical conductor and the lightning arrester being supported by the support , and the conductor connection projecting further from the remaining lightning arrester in the operating state than in the test state.
Method for manufacturing a nuclear fuel assembly comprising nuclear fuel rods arranged in a bundle and a skeleton supporting the fuel rods , the method comprising the steps of inserting fuel rods into the skeleton to obtain a fuel assembly and packaging the fuel assembly in view of transportation, the steps being performed in a same nuclear fuel assembly manufacturing plant , wherein the steps of inserting fuel rods and packaging the fuel assembly are operated in a fuel assembly manufacturing unit wherein the nuclear fuel assembly manufacturing plant comprises a fuel rod manufacturing unit side-by-side with the fuel assembly manufacturing unit such that fuel rods produced in the fuel rod manufacturing unit can be transferred directly from a fuel rod inspection area of the fuel rod manufacturing unit to the fuel rod insertion station of the fuel assembly manufacturing unit , characterized in that the fuel rod manufacturing unit and the fuel assembly manufacturing unit are placed side-by-side in a same building including four building modules, the four building modules including a first building module and a second building module housing the fuel manufacturing unit and a third building module and a fourth building module housing the fuel rod manufacturing unit , a welding station and the fuel rod inspection area of the fuel rod manufacturing unit being located in the third building module which is side-by-side with the second building module . wherein the steps of inserting fuel rods and packaging the fuel assembly are operated in a fuel assembly manufacturing unit wherein the nuclear fuel assembly manufacturing plant comprises a fuel rod manufacturing unit side-by-side with the fuel assembly manufacturing unit such that fuel rods produced in the fuel rod manufacturing unit can be transferred directly from a fuel rod inspection area of the fuel rod manufacturing unit to the fuel rod insertion station of the fuel assembly manufacturing unit , characterized in that the fuel rod manufacturing unit and the fuel assembly manufacturing unit are placed side-by-side in a same building including four building modules, the four building modules including a first building module and a second building module housing the fuel manufacturing unit and a third building module and a fourth building module housing the fuel rod manufacturing unit , a welding station and the fuel rod inspection area of the fuel rod manufacturing unit being located in the third building module which is side-by-side with the second building module .
A drive system for driving a load comprising at least one compressor, the drive system comprising: a gas turbine configured and arranged for driving the load, said gas turbine having a hot end and a cold end ; a load coupling connecting the gas turbine to the at least one compressor , arranged at one of said hot end and cold end of the gas turbine; an electric motor/generator arranged at the other one of said hot end and cold end of the gas turbine , said electric motor/generator being electrically connected to an electric power grid and mechanically connected to said load coupling ; wherein said electric motor/generator is adapted to function as a generator for converting excess mechanical power from said gas turbine into electrical power and delivering the electrical power to the electric power grid, and as a motor for supplementing driving power to the load . a gas turbine configured and arranged for driving the load, said gas turbine having a hot end and a cold end ; a load coupling connecting the gas turbine to the at least one compressor , arranged at one of said hot end and cold end of the gas turbine; an electric motor/generator arranged at the other one of said hot end and cold end of the gas turbine , said electric motor/generator being electrically connected to an electric power grid and mechanically connected to said load coupling ; wherein said electric motor/generator is adapted to function as a generator for converting excess mechanical power from said gas turbine into electrical power and delivering the electrical power to the electric power grid, and as a motor for supplementing driving power to the load .
A semiconductor device , comprising: a substrate having a first doping region and an overlying second doping region , wherein the first and second doping regions (200a;200b) have a first conductivity type and wherein the second doping region has at least one first trench and at least one second trench adjacent thereto; a first epitaxial layer disposed in the first trench , having a second conductivity type; a second epitaxial layer disposed in the second trench , having the first conductivity type, wherein the second epitaxial layer has a doping concentration greater than that of the second doping region and less than that of the first doping region ; and a gate structure (228;230) disposed on the second trench , characterized in that the second epitaxial layer comprises an extending portion on the substrate to cover the second doping region , and wherein the extending portion has a third trench exposing the first epitaxial layer and has a third doping region adjacent to a sidewall of the third trench and having the second conductivity type. a substrate having a first doping region and an overlying second doping region , wherein the first and second doping regions (200a;200b) have a first conductivity type and wherein the second doping region has at least one first trench and at least one second trench adjacent thereto; a first epitaxial layer disposed in the first trench , having a second conductivity type; a second epitaxial layer disposed in the second trench , having the first conductivity type, wherein the second epitaxial layer has a doping concentration greater than that of the second doping region and less than that of the first doping region ; and a gate structure (228;230) disposed on the second trench , characterized in that the second epitaxial layer comprises an extending portion on the substrate to cover the second doping region , and wherein the extending portion has a third trench exposing the first epitaxial layer and has a third doping region adjacent to a sidewall of the third trench and having the second conductivity type.
Driverless transport vehicle , in particular for transporting load carriers (LT), which has a mobile subframe and a load support platform for supporting a load carrier (LT), wherein the subframe is arranged in the vertical direction underneath the load support platform , and the load support platform is arranged such that it can be raised and lowered in the vertical direction by means of a lifting device on a vehicle frame of the subframe , wherein the lifting device is configured as a threaded spindle drive having at least one vertically arranged threaded spindle drive mechanism (50a; 50b; 50c), wherein at least one vertically arranged linear guide device is arranged between the vehicle frame and the load support platform and is configured in such a way that forces in a plane lying at right angles to a vertically arranged spindle axis (SA) of the threaded spindle drive mechanism (50a; 50b; 50c) are transferred from the load support platform to the vehicle frame by the linear guide device , characterized in that the linear guide device has at least one linear guide (81; 82), which has a guide rod (85; 87) which is fixed to the load support platform and is guided in a sliding guide (86; 88) arranged on the vehicle frame .
Chassis for a pushcart, comprising: a rear axle (63; 83) and a front axle (61; 81), which are arranged one behind the other in the pushing direction, wherein a axle distance is variable by means of an resilient tensioning mechanism (64; 71; 84; 85), wherein the axle distance is increasable by generating a mechanical tension in the resilient tensioning mechanism (64; 71; 85) through adjustment of the front axle (61; 81) and/or the rear axle (63; 83), characterized in that the front axle (61; 81) is connected to the rear axle (63; 83) by the resilient tensioning mechanism. a rear axle (63; 83) and a front axle (61; 81), which are arranged one behind the other in the pushing direction, wherein a axle distance is variable by means of an resilient tensioning mechanism (64; 71; 84; 85),
A composition for use in reversing cognition loss in an animal subject in need thereof, comprising a compound of Formula (I): wherein, p is 2, 3 or 4; and R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 16 , and R 18 are independently hydrogen, halogen, -N 3 , -CF 3 , -CCl 3 , - CBr 3 , -CI 3 , -CN, -CHO, -OH, -NH 2 , -COOH, -CONH 2 , -NO 2 , -SH, -SO 2 , -SO 2 Cl, -SO 3 H, - SO 4 H, -SO 2 NH 2 , -NHNH 2 , -ONH 2 , -NHC(O)NHNH 2 , substituted or unsubstituted alkyl, substituted or unsubstituted heteroalkyl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted heterocycloalkyl, substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl.
An antimicrobial implant device consisting of a rod comprising a second material and a ring comprising a first material that is fitted on at least a part of a circumference of the rod, wherein at least a surface of the first material comprises an antimicrobial metal, wherein the antimicrobial metal is a cobalt-based alloy; wherein the second material is titanium or a titanium-based alloy; at least a surface of the second material is nobler than the first material; an electric circuit is formed between the first material and the second material when the device is implanted in vivo for use; ions of the antimicrobial metal are eluted from the first material under a presence of an electrolyte to impart an antimicrobial property to a surface and/or a surrounding area of the first material. at least a surface of the first material comprises an antimicrobial metal, wherein the antimicrobial metal is a cobalt-based alloy; wherein the second material is titanium or a titanium-based alloy; at least a surface of the second material is nobler than the first material; an electric circuit is formed between the first material and the second material when the device is implanted in vivo for use; ions of the antimicrobial metal are eluted from the first material under a presence of an electrolyte to impart an antimicrobial property to a surface and/or a surrounding area of the first material.
A medical image acquisition unit assistance apparatus , the apparatus comprising: - at least one sensor ; and - a processing unit ; wherein one or more sensors of the at least one sensor is configured to acquire sensor data of a person observing a patient undergoing a medical scan by a medical image acquisition unit; wherein the one or more sensors is configured to provide the acquired sensor data of the person observing the patient undergoing the medical scan to the processing unit; wherein the processing unit is configured to determine a state of the person observing the patient undergoing the medical scan comprising utilization of the acquired sensor data of the person observing the patient undergoing the medical scan; wherein the processing unit is configured to determine an overall state of the patient comprising utilization of the determined state of the person. - at least one sensor ; and - a processing unit ; wherein one or more sensors of the at least one sensor is configured to acquire sensor data of a person observing a patient undergoing a medical scan by a medical image acquisition unit; wherein the one or more sensors is configured to provide the acquired sensor data of the person observing the patient undergoing the medical scan to the processing unit; wherein the processing unit is configured to determine a state of the person observing the patient undergoing the medical scan comprising utilization of the acquired sensor data of the person observing the patient undergoing the medical scan; wherein the processing unit is configured to determine an overall state of the patient comprising utilization of the determined state of the person. wherein one or more sensors of the at least one sensor is configured to acquire sensor data of a person observing a patient undergoing a medical scan by a medical image acquisition unit; wherein the one or more sensors is configured to provide the acquired sensor data of the person observing the patient undergoing the medical scan to the processing unit; wherein the processing unit is configured to determine a state of the person observing the patient undergoing the medical scan comprising utilization of the acquired sensor data of the person observing the patient undergoing the medical scan; wherein the processing unit is configured to determine an overall state of the patient comprising utilization of the determined state of the person.
A modular spreader structure for use in offshore lifts, the structure comprising a plurality of elongate primary tubular elements , wherein each primary tubular element comprises an axial coupler formation for end-to-end coupling with a complementary axial coupler formation of another primary tubular element of the structure aligned on a common longitudinal axis , characterised in that : the primary tubular elements are made primarily of composite material; and the axial coupler formations are covered by a protective cover or liner of a stiffer material than the composite material. the primary tubular elements are made primarily of composite material; and the axial coupler formations are covered by a protective cover or liner of a stiffer material than the composite material.