mhurhangee/ep-ind-claims huggingface dataset:
A transport refrigeration unit system, comprising: a high-voltage power source; a low-voltage power source, at least one of the high-voltage power source and the low-voltage power source comprising a fuel cell configured to provide electricity to the transport refrigeration unit; a first electrical load, which is powered by the high-voltage power source; a second electrical load, which is powered by the low-voltage power source; and an electrical distribution system comprising a first linkage by which the high-voltage power source is directly electrically connected to the first electrical load and a second linkage by which the low-voltage power source is directly electrically connected to the second electrical load; and a voltage conversion unit electrically interposed between the first and second linkages (351, 352) and by which the high-voltage power source is selectively electrically connectable to the second electrical load and the low-voltage power source is selectively electrically connectable to the first electrical load, characterised in that the high-voltage power source and the low-voltage power source each comprise a fuel cell and the TRU system further comprises a tank storing cryo-compressed hydrogen gas for the high-voltage power source and the low-voltage power source. a high-voltage power source; a low-voltage power source, at least one of the high-voltage power source and the low-voltage power source comprising a fuel cell configured to provide electricity to the transport refrigeration unit; a first electrical load, which is powered by the high-voltage power source; a second electrical load, which is powered by the low-voltage power source; and an electrical distribution system comprising a first linkage by which the high-voltage power source is directly electrically connected to the first electrical load and a second linkage by which the low-voltage power source is directly electrically connected to the second electrical load; and a voltage conversion unit electrically interposed between the first and second linkages (351, 352) and by which the high-voltage power source is selectively electrically connectable to the second electrical load and the low-voltage power source is selectively electrically connectable to the first electrical load, characterised in that the high-voltage power source and the low-voltage power source each comprise a fuel cell and the TRU system further comprises a tank storing cryo-compressed hydrogen gas for the high-voltage power source and the low-voltage power source.
An automatic cleaning device comprising: a sensor system configured to collect a pre-set environment parameter of surroundings of the automatic cleaning device; and an application processor; wherein the application processor comprises a central processing unit electrically coupled to the sensor system; the central processing unit is configured to acquire the preset environment parameter collected by the sensor system; characterized in that the application processor further comprises a graphic processing unit electrically coupled to the central processing unit; and the graphic processing unit is configured to obtain the pre-set environment parameter from the central processing unit and then generate a map of the surroundings of the automatic cleaning device based on the pre-set environment parameter. a sensor system configured to collect a pre-set environment parameter of surroundings of the automatic cleaning device; and an application processor; wherein the application processor comprises a central processing unit electrically coupled to the sensor system; the central processing unit is configured to acquire the preset environment parameter collected by the sensor system; characterized in that the application processor further comprises a graphic processing unit electrically coupled to the central processing unit; and the graphic processing unit is configured to obtain the pre-set environment parameter from the central processing unit and then generate a map of the surroundings of the automatic cleaning device based on the pre-set environment parameter.
Pump assembly, at least comprising - a housing with at least one base plate and a cover element, which are interconnectable in order to form a pressure chamber; and - two gear wheels (6, 7), wherein an outer circumferential surface of the first gear wheel has a first toothing with a first outside diameter and an outer circumferential surface of the second gear wheel has a second toothing with a second outside diameter, wherein the gear wheels (6, 7) intermesh via the toothings (8, 28) in order to convey a fluid; wherein the gear wheels (6, 7) are arranged along an axial direction in the pressure chamber between the base plate and the cover element; wherein the pressure chamber is formed in the housing at least by two bores (30, 31), wherein the first gear wheel is arranged in a first bore with a first inside diameter and the second gear wheel is arranged in a second bore with a second inside diameter, wherein a plurality of centering pins are provided for aligning the bores (30, 31) and the gear wheels (6, 7) with respect to one another, wherein all said centering pins are aligned with respect to one another exclusively via the cover element or the base plate; characterized in that the first gear wheel is arranged on a first bearing bushing and the second gear wheel is arranged on a second bearing bushing, wherein the first bearing bushing and the second bearing bushing are each mounted only in the base plate or the cover element, wherein at least the base plate and the cover element are aligned with respect to each other and interconnected via connecting elements, wherein the connecting elements and the bearing bushings (10, 11) are connected to the base plate or to the cover element via a press fit and/or in an integrally bonded manner. - a housing with at least one base plate and a cover element, which are interconnectable in order to form a pressure chamber; and - two gear wheels (6, 7), wherein an outer circumferential surface of the first gear wheel has a first toothing with a first outside diameter and an outer circumferential surface of the second gear wheel has a second toothing with a second outside diameter, wherein the gear wheels (6, 7) intermesh via the toothings (8, 28) in order to convey a fluid; wherein the gear wheels (6, 7) are arranged along an axial direction in the pressure chamber between the base plate and the cover element;
A feeding device, comprising: a tool holder comprising a main body and a sliding board protruding from the main body; a feeding mechanism comprising at least one driver; a cutter positioned on the tool holder; and a mounting seat, wherein, the main body is positioned outside of the mounting seat and fixedly connects with the cutter, the sliding board extends into the mounting seat; characterised in that the mounting seat further comprises a frame defining two opening sides and two mounting boards mounted on the frame covering the two opening sides of the frame, wherein the at least one driver comprises a forcer and a stator fixedly positioned on the sliding board, and alternating magnetic fields produced by the forcer interact with the magnetic fields produced by the stator, the forcer is mounted on one corresponding mounting board and received in the frame, at least one guiding portion is positioned on an inner surface of the frame and connects with the sliding board, the tool holder is slidably engaged with the at least one guiding portion, and the feeding mechanism controls and drives the tool holder and the cutter to reciprocate along the at least one guiding portion. a tool holder comprising a main body and a sliding board protruding from the main body; a feeding mechanism comprising at least one driver; a cutter positioned on the tool holder; and a mounting seat, wherein, the main body is positioned outside of the mounting seat and fixedly connects with the cutter, the sliding board extends into the mounting seat; characterised in that the mounting seat further comprises a frame defining two opening sides and two mounting boards mounted on the frame covering the two opening sides of the frame, wherein the at least one driver comprises a forcer and a stator fixedly positioned on the sliding board, and alternating magnetic fields produced by the forcer interact with the magnetic fields produced by the stator, the forcer is mounted on one corresponding mounting board and received in the frame, at least one guiding portion is positioned on an inner surface of the frame and connects with the sliding board, the tool holder is slidably engaged with the at least one guiding portion, and the feeding mechanism controls and drives the tool holder and the cutter to reciprocate along the at least one guiding portion.
A device management method enabling a remote device management server (DMS server) to communicate via a network with a plurality of network-enabled embedded devices (116.x) having a variety of device protocols, the DMS server communicating with a set of back-end management applications, which further communicate with a set of interface protocols, the DMS server providing an aggregation and semantic conversion service for the back-end management applications thus providing an interface between the devices (116.x) and the back-end management applications operating on the devices (116.x) which can be communicated with in their native protocol by arranging the DMS server for: (a) collecting information from each of said network-enabled embedded devices (116.x) over said network; (b) detecting format information for each of said network-enabled embedded devices (116.x) coupled to said network by determining the protocol governing operation of that device; (c) converting information collected at step (a) into a format complying with a protocol from said set of interface protocols supported by said set of back-end management applications based on device class, device instance, and/or device method as modeled for each of said embedded devices (116.x) prior to collecting the information of step (a); and (d) passing said information converted at step (c) to said back-end network management applications for further processing of the collected information. (a) collecting information from each of said network-enabled embedded devices (116.x) over said network; (b) detecting format information for each of said network-enabled embedded devices (116.x) coupled to said network by determining the protocol governing operation of that device; (c) converting information collected at step (a) into a format complying with a protocol from said set of interface protocols supported by said set of back-end management applications based on device class, device instance, and/or device method as modeled for each of said embedded devices (116.x) prior to collecting the information of step (a); and (d) passing said information converted at step (c) to said back-end network management applications for further processing of the collected information.
A method for path selection proportional to a penalty delay in processing packets, the method comprising: identifying, by a first device (200b;200a) intermediary to a plurality of clients (102a-n) and one or more servers (106a-n), a delay penalty for the first device from processing one or more packets of one of the one or more servers destined for a client of the plurality of clients, or, respectively, of one of the plurality of clients destined for a server of the one or more servers, the first device in communication via a plurality of links (535a-n) of different latencies with a second device (200a; 200b) intermediary to the plurality of clients, or respectively, the one or more servers, and the first device; selecting, by the first device, from the plurality of links other than a first link of the plurality of links with a lowest latency, a second link with a latency that deviates from the lowest latency of the first link by at least the delay penalty; transmitting, by the first device to the second device, duplicates of the one or more packets to the second device via the selected second link with information indicating to the second device to hold the duplicates of one or more packets at the second device; receiving, by the first device, an indication to one of drop or send the duplicates of the one or more packets to the client; and transmitting, by the first device, the indication to the second device to one of drop or send the duplicates of the one or more packets according to the indication. identifying, by a first device (200b;200a) intermediary to a plurality of clients (102a-n) and one or more servers (106a-n), a delay penalty for the first device from processing one or more packets of one of the one or more servers destined for a client of the plurality of clients, or, respectively, of one of the plurality of clients destined for a server of the one or more servers, the first device in communication via a plurality of links (535a-n) of different latencies with a second device (200a; 200b) intermediary to the plurality of clients, or respectively, the one or more servers, and the first device; selecting, by the first device, from the plurality of links other than a first link of the plurality of links with a lowest latency, a second link with a latency that deviates from the lowest latency of the first link by at least the delay penalty; transmitting, by the first device to the second device, duplicates of the one or more packets to the second device via the selected second link with information indicating to the second device to hold the duplicates of one or more packets at the second device; receiving, by the first device, an indication to one of drop or send the duplicates of the one or more packets to the client; and transmitting, by the first device, the indication to the second device to one of drop or send the duplicates of the one or more packets according to the indication.
A method for producing a door leaf, the door leaf having a middle layer, a door frame surrounding the middle layer, and two barrier layers that form the two surfaces of the door leaf and cover the middle layer and the door frame, the method comprising the steps a) applying a CPL layer to a surface of a barrier board, c) providing a middle layer with a door frame surrounding the middle layer, characterised by the following steps: b) dividing the barrier board provided with the CPL layer into at least two plate-shaped elements (4, 5), wherein the plate-shaped elements (4, 5) are each provided with a CPL layer (6, 7) on one of their surfaces and the CPL layers (6, 7) effect a different optical design of the plate-shaped elements (4, 5), d) fastening the plate-shaped elements (4, 5) adjacently to each other to the same side of the middle layer and/or of the door frame in such a manner that the plate-shaped elements (4, 5) form a barrier layer that covers at least one surface of the door leaf. a) applying a CPL layer to a surface of a barrier board, c) providing a middle layer with a door frame surrounding the middle layer, b) dividing the barrier board provided with the CPL layer into at least two plate-shaped elements (4, 5), wherein the plate-shaped elements (4, 5) are each provided with a CPL layer (6, 7) on one of their surfaces and the CPL layers (6, 7) effect a different optical design of the plate-shaped elements (4, 5), d) fastening the plate-shaped elements (4, 5) adjacently to each other to the same side of the middle layer and/or of the door frame in such a manner that the plate-shaped elements (4, 5) form a barrier layer that covers at least one surface of the door leaf.
A system for paying for services, the system comprising a system component, a detection device, and a security module, wherein the detection device is adapted to detect detection values representative of a status parameter and an operating parameter of the system component and to transmit these values to the security module, wherein the security module generates billing information as a function of the detection values, and the status parameter describes a system-external parameter which acts from outside on the system component, and the operating parameter describes a system-internal parameter which relates to a current state of the system component. the detection device is adapted to detect detection values representative of a status parameter and an operating parameter of the system component and to transmit these values to the security module, wherein the security module generates billing information as a function of the detection values, and the status parameter describes a system-external parameter which acts from outside on the system component, and the operating parameter describes a system-internal parameter which relates to a current state of the system component.
A blowout preventer for an oil or gas well, comprising: a BOP body having a through-bore defining a through-bore centerline and adapted to allow a tubular member to be disposed therethrough, the BOP body having at least a first guideway defining a guideway centerline formed at an angle to the through-bore centerline. a first ram for slidably positioning in the first guideway to shear the tubular member, wherein the first ram comprises a first containment arm and a second containment arm, each containment arm laterally disposed distally from the guideway centerline and extended towards the through-bore past a first shear blade, the containment arms being offset from each other longitudinally along the guideway centerline; and the first shear blade coupled to the first ram; wherein the first shear blade is disposed laterally across the first ram and has a first shear blade profile; wherein the first shear blade profile defines a first portion on one side of the guideway centerline and a second portion on an opposite side of the guideway centerline; wherein the first portion and the second portion of the first shear blade profile are laterally asymmetric from each other relative to the guideway centerline. a BOP body having a through-bore defining a through-bore centerline and adapted to allow a tubular member to be disposed therethrough, the BOP body having at least a first guideway defining a guideway centerline formed at an angle to the through-bore centerline. a first ram for slidably positioning in the first guideway to shear the tubular member, wherein the first ram comprises a first containment arm and a second containment arm, each containment arm laterally disposed distally from the guideway centerline and extended towards the through-bore past a first shear blade, the containment arms being offset from each other longitudinally along the guideway centerline; and the first shear blade coupled to the first ram; wherein the first shear blade is disposed laterally across the first ram and has a first shear blade profile; wherein the first shear blade profile defines a first portion on one side of the guideway centerline and a second portion on an opposite side of the guideway centerline; wherein the first portion and the second portion of the first shear blade profile are laterally asymmetric from each other relative to the guideway centerline.
An electrically operated aerosol generating device comprising: a storage portion for storing an aerosol-forming substrate; a vaporizer for heating the aerosol-forming substrate, wherein the vaporizer comprises an electric heater for heating the aerosol-forming substrate; a capillary material for conveying the aerosol-forming substrate from the storage portion towards the vaporizer by capillary action; and a porous material between the capillary material and the vaporizer; wherein the aerosol generating device is arranged so that the electric heater reaches a temperature of between 200 degrees Celsius and 440 degrees Celsius during use. a storage portion for storing an aerosol-forming substrate; a vaporizer for heating the aerosol-forming substrate, wherein the vaporizer comprises an electric heater for heating the aerosol-forming substrate; a capillary material for conveying the aerosol-forming substrate from the storage portion towards the vaporizer by capillary action; and a porous material between the capillary material and the vaporizer; wherein the aerosol generating device is arranged so that the electric heater reaches a temperature of between 200 degrees Celsius and 440 degrees Celsius during use.
Device for performing a method for manufacturing plate-shaped bodies for application in the range of floors, walls or ceilings, such as panels, as well as in the furniture range, wherein the plate-shaped body comprises a basic body, which is pressed together with a printing sheet of printed printing paper, which printing sheet is provided with resin and comprises a decor, with a computer device having a display device, for converting RGB data indicated in the RGB color system into CMYK data of the CMYK color system and with a gravure printing device comprising engraved printing cylinders (2, 3, 4, 5), said cylinders being engraved on the basis of CMYK data, such that the RGB data of the computer device can be converted into CMYK data of the CMYK color system and the printing cylinders can be engraved on the basis of the CMYK data, wherein the printing paper, by gravure printing by means of the gravure printing device comprising the engraved printing cylinders (2, 3, 4, 5), is imprinted with a decor which is repeated on the printing paper a plurality of times, and the printing paper, prior to pressing, is divided into a plurality of printing sheets, and wherein, prior to printing the decor, a decor pattern is prepared and is displayed on the display device of the computer device in the RGB color system.
Fastening device for fastening accessory parts to medical devices, the fastening device having a first fixed claw, a second claw being movable towards the first claw, and a driving device (6, 9) for moving the second claw in a clamping direction (a), wherein the driving device (6, 9) comprises a motion link and a support device, the motion link is provided with a control surface for transmitting a motion of the motion link in an operating direction (b) into a motion of the second claw in the clamping direction (a), and it is provided with a support surface, and the support device is configured such that, with respect to the first claw, the motion link supports itself against the support device by the support surface, wherein the control surface and the clamping direction (a) confine a first angle (α) in at least a first portion (I, I') of the control surface and they confine a second angle (β) in at least a second portion (II, II') of the control surface being directly adjacent to the first portion (I, I'), wherein the second angle (β) is larger than the first angle (α), and a distance in the clamping direction (a) between the control surface and the support surface along the control surface increases substantially continuously in the first portion (I, I') and the second portion (II, II') directly adjacent thereto in the operating direction (b), characterized in that the first angle (α) is a non-self-locking angle and the second angle (β) is a self-locking angle.