mhurhangee/ep-ind-claims huggingface dataset:
A chair comprising: a leg arrangeable on a floor surface; a leg support pole provided to stand from the leg; a support base provided on an upper end of the leg support pole; a movement mechanism located below a seat, the movement mechanism including a plurality of movement parts (5A, 5B) configured to allow the seat to move in a certain area along a predetermined trajectory in a front-rear and left-right directions between the support base and the seat, the movement mechanism being a support mechanism configured to support the seat movably in the front-rear direction and left-right directions; and a plurality of cover members (7, 71, 72) arranged corresponding to the plurality of movement parts (5A, 5B), wherein the plurality of cover members (7, 71, 72) is configured to move relatively in accordance with movement of the plurality of movement parts (5A, 5B) and cover the support mechanism, and wherein the movement mechanism includes a left-right support part to support the seat movably in the left-right direction, and a front-rear support part to support the seat movably in the front-rear direction, the plurality of cover members (7, 71, 72) includes a left-right cover member attached to the left-right support part, and a front-rear cover member attached to the front-rear support part, characterized in that the left-right cover member and the front-rear cover member move relatively while coming close to each other with a gap between the left-right cover member and the front-rear cover member. a leg arrangeable on a floor surface; a leg support pole provided to stand from the leg; a support base provided on an upper end of the leg support pole; a movement mechanism located below a seat, the movement mechanism including a plurality of movement parts (5A, 5B) configured to allow the seat to move in a certain area along a predetermined trajectory in a front-rear and left-right directions between the support base and the seat, the movement mechanism being a support mechanism configured to support the seat movably in the front-rear direction and left-right directions; and a plurality of cover members (7, 71, 72) arranged corresponding to the plurality of movement parts (5A, 5B), wherein the plurality of cover members (7, 71, 72) is configured to move relatively in accordance with movement of the plurality of movement parts (5A, 5B) and cover the support mechanism, and wherein the movement mechanism includes a left-right support part to support the seat movably in the left-right direction, and a front-rear support part to support the seat movably in the front-rear direction, the plurality of cover members (7, 71, 72) includes a left-right cover member attached to the left-right support part, and a front-rear cover member attached to the front-rear support part, characterized in that the left-right cover member and the front-rear cover member move relatively while coming close to each other with a gap between the left-right cover member and the front-rear cover member.
An autonomous driving method, comprising: obtaining a motion status of an obstacle, wherein the motion status of the obstacle comprises a location of the obstacle and a speed of the obstacle, characterized by determining a location of a towing point and a speed of the towing point based on the motion status of the obstacle wherein the speed of the towing point indicates an expected speed of an ego vehicle at the location of the towing point, the location of the towing point is a continuous function of the motion status of the obstacle, and the speed of the towing point is a continuous function of the motion status of the obstacle; and obtaining expected acceleration of the ego vehicle based on the location of the towing point and the speed of the towing point. obtaining a motion status of an obstacle, wherein the motion status of the obstacle comprises a location of the obstacle and a speed of the obstacle, characterized by determining a location of a towing point and a speed of the towing point based on the motion status of the obstacle wherein the speed of the towing point indicates an expected speed of an ego vehicle at the location of the towing point, the location of the towing point is a continuous function of the motion status of the obstacle, and the speed of the towing point is a continuous function of the motion status of the obstacle; and obtaining expected acceleration of the ego vehicle based on the location of the towing point and the speed of the towing point.
Component for attaching to a safety harness for a human user for at least partially keeping free the femoral vein of the user, wherein the component comprises: a carrier structure; two leg strap pads attached to the carrier structure at such a distance to each other, that a portion of the carrier structure remaining between both leg strap pads, in a state of the component being attached to the safety harness, keeps free the femoral vein of the user at least partially, when the user has put on the safety harness, wherein the portion is free of leg strap pads, or wherein the portion comprises a further leg strap pad made of flexible material, with less thickness perpendicular to the direction of extension of the carrier structure than both leg strap pads in the part, in which they are adjacent to the further leg strap pad, or wherein the portion comprises a further leg strap pad made of flexible material, whose flexible material is softer than the material of the neighboring leg strap pad; a detachable fixing mechanism which is attached to or attachable to the carrier structure for detachably fixing the component to the safety harness, wherein both leg strap pads are formed in such a tapered manner, that their front faces are opposing each other while forming in between the portion that remains between both leg strap pads. a carrier structure; two leg strap pads attached to the carrier structure at such a distance to each other, that a portion of the carrier structure remaining between both leg strap pads, in a state of the component being attached to the safety harness, keeps free the femoral vein of the user at least partially, when the user has put on the safety harness, wherein the portion is free of leg strap pads, or wherein the portion comprises a further leg strap pad made of flexible material, with less thickness perpendicular to the direction of extension of the carrier structure than both leg strap pads in the part, in which they are adjacent to the further leg strap pad, or wherein the portion comprises a further leg strap pad made of flexible material, whose flexible material is softer than the material of the neighboring leg strap pad; a detachable fixing mechanism which is attached to or attachable to the carrier structure for detachably fixing the component to the safety harness, wherein both leg strap pads are formed in such a tapered manner, that their front faces are opposing each other while forming in between the portion that remains between both leg strap pads.
A shredder comprising a cutting drum and a shredder housing, the shredder housing comprising one or more nozzle assemblies mounted in a working zone of the cutting drum, the one or more nozzle assemblies each configured to atomise a liquid in the working zone of the cutting drum and the one or more nozzle assemblies each comprising: - A nozzle with an intake orifice configured to receive the liquid, and a discharge orifice configured to atomise the liquid; and - A nozzle housing in which the nozzle is mounted, the nozzle housing comprises an inlet opening on the side of the intake orifice and an outlet opening on the side of the discharge orifice, CHARACTERISED IN THAT - The nozzle is mounted moveably in the nozzle housing such that the nozzle is moveable between an impact position and a home position, - The nozzle assembly further comprises an elastic element mounted to work in conjunction with the nozzle and the nozzle housing such that the nozzle: - is held in the home position in an unloaded rest condition in which the nozzle is not subjected to an impact; and - as a result of the force of an impact temporarily moves in the direction of the impact position. - A nozzle with an intake orifice configured to receive the liquid, and a discharge orifice configured to atomise the liquid; and - A nozzle housing in which the nozzle is mounted, the nozzle housing comprises an inlet opening on the side of the intake orifice and an outlet opening on the side of the discharge orifice, CHARACTERISED IN THAT - The nozzle is mounted moveably in the nozzle housing such that the nozzle is moveable between an impact position and a home position, - The nozzle assembly further comprises an elastic element mounted to work in conjunction with the nozzle and the nozzle housing such that the nozzle: - is held in the home position in an unloaded rest condition in which the nozzle is not subjected to an impact; and - as a result of the force of an impact temporarily moves in the direction of the impact position. - is held in the home position in an unloaded rest condition in which the nozzle is not subjected to an impact; and - as a result of the force of an impact temporarily moves in the direction of the impact position.
A system for navigating an instrument through bone and providing treatment within bone, the system comprising: a trocar having a central channel and an opening at a distal tip of the trocar; a straight stylet configured to be installed in the trocar, the straight stylet comprising a sharp distal tip that is configured to extend beyond the opening at the distal tip of the trocar and to pierce an outer cortical bone region of the bone; a channeling instrument configured to be inserted through the trocar after removal of the straight stylet to create a predetermined-length linear path within a cancellous region of the bone toward a target treatment site; and a treatment device configured to provide a therapeutic treatment to the target treatment site. a trocar having a central channel and an opening at a distal tip of the trocar; a straight stylet configured to be installed in the trocar, the straight stylet comprising a sharp distal tip that is configured to extend beyond the opening at the distal tip of the trocar and to pierce an outer cortical bone region of the bone; a channeling instrument configured to be inserted through the trocar after removal of the straight stylet to create a predetermined-length linear path within a cancellous region of the bone toward a target treatment site; and a treatment device configured to provide a therapeutic treatment to the target treatment site.
A system including a high temperature water tank, a room heating device (Rhd) and low temperature water tank, and for providing a vapour compression cycle with two separate heating modes of operation, comprising a compressor; a first gas cooling heat exchanger downstream of compressor; a second gas cooling heat exchanger downstream of the first heat exchanger; a third gas cooling heat exchanger downstream of the second heat exchanger; a first pressure reduction device downstream of the third heat exchanger characterised by: a fourth heat exchanger with a heat storage device downstream of the first pressure reduction device; a second pressure reduction device downstream of the fourth heat exchanger; a fifth heat exchanger downstream of the second pressure reduction device connected back to the compressor; a bypass line with a shutoff valve bypassing the fifth heat exchanger, connected at a first end between the fourth heat exchanger and the second pressure reduction device, and at a second end, between the fifth heat exchanger and the compressor; at least one control unit for controlling at least the shutoff valve and the first pressure reduction device and the second pressure reduction device wherein the first heat exchanger is connected to the high temperature water tank; the second heat exchanger is connected to the room heating device (Rhd); and the third heat exchanger is connected to the low temperature water tank. a fourth heat exchanger with a heat storage device downstream of the first pressure reduction device; a second pressure reduction device downstream of the fourth heat exchanger; a fifth heat exchanger downstream of the second pressure reduction device connected back to the compressor; a bypass line with a shutoff valve bypassing the fifth heat exchanger, connected at a first end between the fourth heat exchanger and the second pressure reduction device, and at a second end, between the fifth heat exchanger and the compressor; at least one control unit for controlling at least the shutoff valve and the first pressure reduction device and the second pressure reduction device wherein the first heat exchanger is connected to the high temperature water tank; the second heat exchanger is connected to the room heating device (Rhd); and the third heat exchanger is connected to the low temperature water tank.
A communication method of a terminal in a wireless network comprising an access point and a plurality of terminals, the method comprising: receiving, from the access point during a TXOP duration, TXOP information used to determine an operation state (150, 160) of the terminal during a remainder of the TXOP duration; and determining the operation state (150, 160) of the terminal during a remainder of the TXOP duration based on the TXOP information, wherein the TXOP duration (430, 510) corresponds to a time duration in which the access point obtaining a TXOP with respect to a channel simultaneously transmits data streams to a group of terminals, CHARACTERIZED IN THAT when a group ID comprised in the TXOP information indicates that the terminal is included in the group and information comprised in the TXOP information indicates that a data stream corresponding to the terminal is not to be transmitted from the access point during the TXOP duration (430, 510), the terminal enters a sleep state during the remainder of the TXOP duration. receiving, from the access point during a TXOP duration, TXOP information used to determine an operation state (150, 160) of the terminal during a remainder of the TXOP duration; and determining the operation state (150, 160) of the terminal during a remainder of the TXOP duration based on the TXOP information, wherein the TXOP duration (430, 510) corresponds to a time duration in which the access point obtaining a TXOP with respect to a channel simultaneously transmits data streams to a group of terminals, CHARACTERIZED IN THAT when a group ID comprised in the TXOP information indicates that the terminal is included in the group and information comprised in the TXOP information indicates that a data stream corresponding to the terminal is not to be transmitted from the access point during the TXOP duration (430, 510), the terminal enters a sleep state during the remainder of the TXOP duration.
Method for evaluating a quality of a headlamp of a motor vehicle while driving and/or during operation on a shaker rig, during which the headlamp is observed by means of a camera and a camera image and/or a chronological sequence of camera images is/are evaluated according to at least one predefined criterion, characterized in that the camera is directed towards the headlamp, and in that the at least one predefined criterion comprises a change in a brightness and/or brightness distribution over time, by which an arc flicker is detected, quantified and evaluated.
A winding machine for winding lap bands to form wound laps, with winding rolls (2, 3) for carrying respectively one wound lap, with pressure rolls (5, 6, 7) installed upstream the winding rolls (2, 3) for calendering a supplied lap band, wherein at least one drafting system with a pair of drafting system rolls is installed upstream the pressure rolls (5, 6, 7), characterized in that each winding roll (2, 3) includes a separate drive, wherein at least one drive is open-loop controllable, respectively closed-loop controllable via a control, wherein at least one sensor determines the actual diameter of the wound lap during the winding procedure, and in that, depending on the actual diameter of the wound lap, the rotational speed difference between the winding rolls is dynamically adjustable, in that the drives of the winding rolls (2, 3) are operable at a rotational speed having a difference of up to 5 %.
A method for monitoring of agent oversight of automatically generated content in a contact center, the method comprising: conducting, by one or more communication modules of the contact center over one or more communication channels, a communication session with each of a plurality of client devices, each client device associated with a customer contact; generating, by an Artificial Intelligence, AI, engine of the contact center, AI-generated content for each communication session; providing, by the AI engine, the AI-generated content for each session to an agent device associated with a human agent prior to providing the generated content to any of the plurality of client devices, wherein the provided, AI-generated content is presented to the human agent through a user interface provided by the agent device; monitoring, by an eye tracking system associated with the agent device, review of the AI-generated content by the human agent while the Al-generated content is presented through the user interface provided by the agent device; and generating, by the eye tracking system associated with the agent device, an indication of the human agent's level of attention to the AI-generated content based on monitoring the review of the AI-generated content by the human agent. conducting, by one or more communication modules of the contact center over one or more communication channels, a communication session with each of a plurality of client devices, each client device associated with a customer contact; generating, by an Artificial Intelligence, AI, engine of the contact center, AI-generated content for each communication session; providing, by the AI engine, the AI-generated content for each session to an agent device associated with a human agent prior to providing the generated content to any of the plurality of client devices, wherein the provided, AI-generated content is presented to the human agent through a user interface provided by the agent device; monitoring, by an eye tracking system associated with the agent device, review of the AI-generated content by the human agent while the Al-generated content is presented through the user interface provided by the agent device; and generating, by the eye tracking system associated with the agent device, an indication of the human agent's level of attention to the AI-generated content based on monitoring the review of the AI-generated content by the human agent.
A medical device, comprising: a pulse generator configured to deliver cardiac pacing; a sensor (1105, 1401, 1402) configured to produce a sensor signal at a sensor output terminal; a first filter channel (1111, 1411, 1421) coupled to the sensor output, the first filter channel configured to attenuate first frequencies of the sensor signal to produce a first filtered output indicative of a level of patient activity; a second filter channel (1121, 1431, 1441), separate from the first filter channel, coupled to the sensor output, the second filter channel configured to attenuate second frequencies of the sensor signal to produce a second filtered output indicative of phrenic. nerve activation; and circuitry (910, 1116, 1125, 1450, 1460) configured to determine one or more rate-adaptation parameters using the first output and to detect phrenic nerve activation caused by the cardiac pacing using the second filtered output. a pulse generator configured to deliver cardiac pacing; a sensor (1105, 1401, 1402) configured to produce a sensor signal at a sensor output terminal; a first filter channel (1111, 1411, 1421) coupled to the sensor output, the first filter channel configured to attenuate first frequencies of the sensor signal to produce a first filtered output indicative of a level of patient activity; a second filter channel (1121, 1431, 1441), separate from the first filter channel, coupled to the sensor output, the second filter channel configured to attenuate second frequencies of the sensor signal to produce a second filtered output indicative of phrenic. nerve activation; and circuitry (910, 1116, 1125, 1450, 1460) configured to determine one or more rate-adaptation parameters using the first output and to detect phrenic nerve activation caused by the cardiac pacing using the second filtered output.
Method for making a blade for a turbo-engine, in particular a guide vane, in which a basic body of the blade is produced and this basic body is connected permanently to at least one blade component completing the basic body to form the finished blade, only the at least one blade component being produced directly on the basic body by means of an additive manufacturing method, characterized in that a plurality of completing blade components are produced directly on the basic body of the blade, wherein the blade components butt directly one against the other and together give a completing structure for the basic body, the dimensions of which completing structure exceed the construction size capacity of the additive manufacturing plant used, by virtue of the basic body, between the production of the completing blade components, being displaced in each case in the additive manufacturing plant in order that the respectively adjacent blade component can be produced directly on the basic body.
Track-rod arm for a steering mechanism for a motor vehicle, preferably a commercial vehicle, characterized in that the track-rod arm comprises a first sheet-metal element, a second sheet-metal element and a third sheet-metal element and the third sheet-metal element is welded to the first sheet-metal element and the second sheet-metal element and preferably provides contact surfaces (K1, K2) for connection to a wheel hub.
A process for the preparation of silk fibroin 3D scaffolds, comprising the steps of: a) providing silk fibroin particles from regenerated silk fibroin solution by adding RSF solution into liquid nitrogen dropwise and further freezing, lyophilizing and annealing to introduce beta sheet in the presence of a solvent by known method; b) fusing the particles of step (a) with dilute RSF solution in a mold for compressing and placing the mold in a vacuum oven for a period ranging between 1-4 hours at temperature ranging between 40-60°C for drying to form a scaffold. a) providing silk fibroin particles from regenerated silk fibroin solution by adding RSF solution into liquid nitrogen dropwise and further freezing, lyophilizing and annealing to introduce beta sheet in the presence of a solvent by known method; b) fusing the particles of step (a) with dilute RSF solution in a mold for compressing and placing the mold in a vacuum oven for a period ranging between 1-4 hours at temperature ranging between 40-60°C for drying to form a scaffold.