mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for preparing food, said apparatus comprising: - a shell having internal walls, - a drawer placed inside the shell, the drawer comprising a pan and a food basket, the food basket being placed inside the pan, - an air heating system and an air fan placed inside the shell, - a sliding mechanism is placed between the internal walls and the drawer. characterized in that the sliding mechanism is placed between the bottom part of the internal walls, and the bottom part of the drawer. - a shell having internal walls, - a drawer placed inside the shell, the drawer comprising a pan and a food basket, the food basket being placed inside the pan, - an air heating system and an air fan placed inside the shell, - a sliding mechanism is placed between the internal walls and the drawer. characterized in that the sliding mechanism is placed between the bottom part of the internal walls, and the bottom part of the drawer.
Motorized trolley, especially designed for use with bicycles, comprising: - at least one supporting structure operatively connected to at least one rudder by at least one prismatic coupling, said rudder being operatively connected to at least one bicycle by means of at least one constraint; - at least two wheels operatively connected to said supporting structure; - at least two motors operatively connected to said at least two wheels; - at least one control card designed to operatively cooperate with said at least two motors; - at least one load cell designed to operatively cooperate with said prismatic coupling; - at least two control drivers designed to operatively cooperate with said control card and/or with said at least two motors; - at least one battery designed to operatively cooperate with said trolley, characterized in that it comprises at least one recirculating ball pad designed to operatively cooperate with said load cell, said pad also being designed to react to all forces and moments excluding the force in the direction of travel. - at least one supporting structure operatively connected to at least one rudder by at least one prismatic coupling, said rudder being operatively connected to at least one bicycle by means of at least one constraint; - at least two wheels operatively connected to said supporting structure; - at least two motors operatively connected to said at least two wheels; - at least one control card designed to operatively cooperate with said at least two motors; - at least one load cell designed to operatively cooperate with said prismatic coupling; - at least two control drivers designed to operatively cooperate with said control card and/or with said at least two motors; - at least one battery designed to operatively cooperate with said trolley,
A communication method performed by a system comprising a user plan function network element, a source access network device, and a target access network device,the method comprising: in a process in which the source access network device triggers an air interface handover of a user equipment, UE, to the target access network device, determining, by the user plane function network element, to bicast downlink packets to the source access network device and the target access network device based on indication information or a forwarding rule, wherein the indication information or the forwarding rule is sent to the user plane function network element, wherein a session management function network element delivers the indication information to the user plane function network element; and sending, by the user plane function network element, first information to the source access network device, wherein the first information is used to indicate that the user plane function network element bicasts the downlink packets to the source access network device and the target access network device, receiving, by the source access network device, the first information from the user plane function network element; and sending, by the source access network device, second information to the target access network device, wherein the second information is used to determine packet data convergence protocol sequence numbers of downlink data in the downlink packets, wherein the second information include a Packet Data Convergence Protocol Sequence Number, PDCP SN, allocated by the source access network device to a packet before a first bicast packet. in a process in which the source access network device triggers an air interface handover of a user equipment, UE, to the target access network device, determining, by the user plane function network element, to bicast downlink packets to the source access network device and the target access network device based on indication information or a forwarding rule, wherein the indication information or the forwarding rule is sent to the user plane function network element, wherein a session management function network element delivers the indication information to the user plane function network element; and sending, by the user plane function network element, first information to the source access network device, wherein the first information is used to indicate that the user plane function network element bicasts the downlink packets to the source access network device and the target access network device, receiving, by the source access network device, the first information from the user plane function network element; and sending, by the source access network device, second information to the target access network device, wherein the second information is used to determine packet data convergence protocol sequence numbers of downlink data in the downlink packets, wherein the second information include a Packet Data Convergence Protocol Sequence Number, PDCP SN, allocated by the source access network device to a packet before a first bicast packet.
A hearing assistance device comprising: - a transceiver and processing circuitry arranged in a compact block structure; - a housing component containing the compact block structure; - a feed line electrically connected to the transceiver; and - an antenna element electromagnetically coupled with the feed line via a feed element; characterized in that the feed element is configured as a small feed loop electrically connected with the feed line, wherein the circumference of the small feed loop is between 5 % and 20 % of an intended wavelength of operation, and wherein the antenna element is coupled to the feed element via mutual induction; and wherein the antenna element is formed as a resonant loop antenna with a circumference close to the intended wavelength of operation. - a transceiver and processing circuitry arranged in a compact block structure; - a housing component containing the compact block structure; - a feed line electrically connected to the transceiver; and - an antenna element electromagnetically coupled with the feed line via a feed element;
A blade for a gas turbine engine, the blade having a damping system, the blade comprising: a blade body having a first compartment proximate a root end of the blade body, a second compartment proximate a tip end of the blade body, a base, and a cover attached to the base, wherein the cover and the base define the first compartment within the blade body; a full rib extending from the base to the cover, wherein the full rib separates the first compartment into a first sub-compartment located proximate a trailing edge of the blade and a second sub-compartment located proximate a leading edge of the blade; a damping material located only within the first sub-compartment, the full rib keeping the damping material in the first sub-compartment; one or more partial ribs originating at the blade body and extending into the first sub-compartment, wherein each of the one or more partial ribs terminates at a distal end; and one or more damping plates, wherein each of the one or more damping plates is attached to a distal end of a partial rib, wherein the damping material is located between each of the one or more damping plates located in the first sub-compartment and the cover, wherein the full rib is configured to provide structural support between the cover and the base. a blade body having a first compartment proximate a root end of the blade body, a second compartment proximate a tip end of the blade body, a base, and a cover attached to the base, wherein the cover and the base define the first compartment within the blade body; a full rib extending from the base to the cover, wherein the full rib separates the first compartment into a first sub-compartment located proximate a trailing edge of the blade and a second sub-compartment located proximate a leading edge of the blade; a damping material located only within the first sub-compartment, the full rib keeping the damping material in the first sub-compartment; one or more partial ribs originating at the blade body and extending into the first sub-compartment, wherein each of the one or more partial ribs terminates at a distal end; and one or more damping plates, wherein each of the one or more damping plates is attached to a distal end of a partial rib, wherein the damping material is located between each of the one or more damping plates located in the first sub-compartment and the cover, wherein the full rib is configured to provide structural support between the cover and the base.
An endoscope comprising an insertion part including a bending part bending with a remote operation and a soft part connected to the bending part, wherein the insertion part has: a first outer coat with an integral structure provided over the entire soft part and in the bending part; and a second outer coat with which the first outer coat is coated in the soft part only, and the first outer coat has a same composition in the soft part and the bending part, characterized in that the bending part is coated only by the first outer coat.
A cut resistant fabric comprising: an Ultra-High Molecular Weight Polyethylene (UHMWPE) material; and a sheet shaped wollastonite filler, the sheet shaped wollastonite filler being treated with a coupling agent and mixed with the UHMWPE material, wherein a thickness of the sheet shaped wollastonite filler is less than 10 micrometers (μm). an Ultra-High Molecular Weight Polyethylene (UHMWPE) material; and a sheet shaped wollastonite filler, the sheet shaped wollastonite filler being treated with a coupling agent and mixed with the UHMWPE material, wherein a thickness of the sheet shaped wollastonite filler is less than 10 micrometers (μm).
An intracardiac ventricular pacemaker, comprising: a pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via electrodes coupled to the pacemaker; a motion sensor configured to produce a motion signal; a control circuit coupled to the motion sensor and the pulse generator; and a housing wholly implantable within a ventricular chamber of the patient's heart and enclosing the pulse generator, the motion sensor and the control circuit; the control circuit being configured to: identify a ventricular systolic event; detect a ventricular passive filling event signal from the motion signal; determine a time interval from the ventricular systolic event to the ventricular passive filling event; establish a minimum pacing interval based on the time interval; determine a sensor indicated pacing rate interval; determine that the sensor indicated pacing rate interval is less than the minimum pacing interval; and control the pulse generator to deliver, during a non-atrial tracking ventricular pacing mode, a ventricular pacing pulse at the minimum pacing interval in response to determining that the sensor indicated pacing rate interval is less than the minimum pacing interval. a pulse generator configured to generate and deliver pacing pulses to a ventricle of a patient's heart via electrodes coupled to the pacemaker; a motion sensor configured to produce a motion signal; a control circuit coupled to the motion sensor and the pulse generator; and a housing wholly implantable within a ventricular chamber of the patient's heart and enclosing the pulse generator, the motion sensor and the control circuit; the control circuit being configured to: identify a ventricular systolic event; detect a ventricular passive filling event signal from the motion signal; determine a time interval from the ventricular systolic event to the ventricular passive filling event; establish a minimum pacing interval based on the time interval; determine a sensor indicated pacing rate interval; determine that the sensor indicated pacing rate interval is less than the minimum pacing interval; and control the pulse generator to deliver, during a non-atrial tracking ventricular pacing mode, a ventricular pacing pulse at the minimum pacing interval in response to determining that the sensor indicated pacing rate interval is less than the minimum pacing interval. identify a ventricular systolic event; detect a ventricular passive filling event signal from the motion signal; determine a time interval from the ventricular systolic event to the ventricular passive filling event; establish a minimum pacing interval based on the time interval; determine a sensor indicated pacing rate interval; determine that the sensor indicated pacing rate interval is less than the minimum pacing interval; and control the pulse generator to deliver, during a non-atrial tracking ventricular pacing mode, a ventricular pacing pulse at the minimum pacing interval in response to determining that the sensor indicated pacing rate interval is less than the minimum pacing interval.
A configuration provision device comprising: an electronic paper display; an input device arranged to detect a user action, wherein the user action triggers a dynamic generation of a digital security key of a machine-to-machine device (11, 11a, 11b, 11c) associated with the configuration provision device; and a controller arranged to: when the input device of the configuration provision device detects the user action, determine configuration data of the machine-to-machine device (11, 11a, 11b, 11c), wherein the configuration data comprises the digital security key; and display the configuration data, comprising the digital security key, of the machine-to-machine device (11, 11a, 11b, 11c) on the electronic paper display of the configuration provision device. an electronic paper display; an input device arranged to detect a user action, wherein the user action triggers a dynamic generation of a digital security key of a machine-to-machine device (11, 11a, 11b, 11c) associated with the configuration provision device; and a controller arranged to: when the input device of the configuration provision device detects the user action, determine configuration data of the machine-to-machine device (11, 11a, 11b, 11c), wherein the configuration data comprises the digital security key; and display the configuration data, comprising the digital security key, of the machine-to-machine device (11, 11a, 11b, 11c) on the electronic paper display of the configuration provision device. when the input device of the configuration provision device detects the user action, determine configuration data of the machine-to-machine device (11, 11a, 11b, 11c), wherein the configuration data comprises the digital security key; and display the configuration data, comprising the digital security key, of the machine-to-machine device (11, 11a, 11b, 11c) on the electronic paper display of the configuration provision device.
A passenger seat airbag device attachment structure employing a vehicle instrument panel reinforcement, the structure comprising: an instrument panel reinforcement main body; a bracket; and a passenger seat airbag device, characterized in that the instrument panel reinforcement main body that is disposed along a vehicle width direction inside a vehicle instrument panel, is configured with a quadrilateral shaped closed cross-section profile by welding together two members (14, 16) formed by press forming, and that is formed with a pair of coaxially positioned bolt insertion through holes (66, 68) in two opposing faces of the quadrilateral shape; a collar is disposed inside the closed cross-section of the instrument panel reinforcement main body such that a hole formed at an axial center portion of the collar is positioned coaxially with the pair of bolt insertion through holes (66, 68), with one axial direction end portion of the collar being joined to one face out of the two opposing faces; the passenger seat airbag device is disposed at a passenger seat side of a vehicle instrument panel; and the bracket is provided at the passenger seat airbag device for attachment to a vehicle body is directly fixed to the instrument panel reinforcement main body by fastening the bracket through the collar, which is provided in advance inside the closed cross-section of the instrument panel reinforcement main body. an instrument panel reinforcement main body; a bracket; and a passenger seat airbag device, the instrument panel reinforcement main body that is disposed along a vehicle width direction inside a vehicle instrument panel, is configured with a quadrilateral shaped closed cross-section profile by welding together two members (14, 16) formed by press forming, and that is formed with a pair of coaxially positioned bolt insertion through holes (66, 68) in two opposing faces of the quadrilateral shape; a collar is disposed inside the closed cross-section of the instrument panel reinforcement main body such that a hole formed at an axial center portion of the collar is positioned coaxially with the pair of bolt insertion through holes (66, 68), with one axial direction end portion of the collar being joined to one face out of the two opposing faces; the passenger seat airbag device is disposed at a passenger seat side of a vehicle instrument panel; and the bracket is provided at the passenger seat airbag device for attachment to a vehicle body is directly fixed to the instrument panel reinforcement main body by fastening the bracket through the collar, which is provided in advance inside the closed cross-section of the instrument panel reinforcement main body.
A tool bit comprising: a drive portion configured to be selectively coupled to a tool, the drive portion being composed of a first material; a shank coupled to the drive portion, the shank being composed of the first material; and a working end portion including a first segment and a second segment, the first segment coupled to the shank and being composed of the first material, the second segment fixed to the first segment at a connection interface, the second segment being composed of a second material different than the first material, characterised by the second segment being configured to engage a fastener for the working end portion to drive the fastener, wherein a distance between the connection interface and a tip of the second segment is based on a first ratio of a maximum radial dimension (R1, R2, R3) at a location along the tool bit to a polar moment at the location, and wherein the first ratio is multiplied by a percentage difference between hardnesses of the first material and the second material. a drive portion configured to be selectively coupled to a tool, the drive portion being composed of a first material; a shank coupled to the drive portion, the shank being composed of the first material; and a working end portion including a first segment and a second segment, the first segment coupled to the shank and being composed of the first material, the second segment fixed to the first segment at a connection interface, the second segment being composed of a second material different than the first material, characterised by the second segment being configured to engage a fastener for the working end portion to drive the fastener, wherein a distance between the connection interface and a tip of the second segment is based on a first ratio of a maximum radial dimension (R1, R2, R3) at a location along the tool bit to a polar moment at the location, and wherein the first ratio is multiplied by a percentage difference between hardnesses of the first material and the second material.
A milling attachment for a work machine, comprising: a frame including first and second frame side walls (44, 46); a milling drum including first and second drum mounting flanges (72, 74); a motor mounting plate removably mounted on the second frame side wall; a first drive motor mounted on the first frame side wall and including a drive end connected to the first drum mounting flange by a plurality of threaded fasteners; and a second drive motor mounted on the motor mounting plate and connected to the second drum mounting flange by a stab-in non-threaded connector. a frame including first and second frame side walls (44, 46); a milling drum including first and second drum mounting flanges (72, 74); a motor mounting plate removably mounted on the second frame side wall; a first drive motor mounted on the first frame side wall and including a drive end connected to the first drum mounting flange by a plurality of threaded fasteners; and a second drive motor mounted on the motor mounting plate and connected to the second drum mounting flange by a stab-in non-threaded connector.
Method for the production of nanocrystalline cellulose from a cellulose-containing starting material, said method comprising: (a) contacting said starting material with a first solvent mixture comprising at least one first organic solvent selected from the group consisting of ethylene glycol, diethylene glycol and glycerol and an acid catalyst, wherein said acid catalyst is a sulfonic acid having the general structure HO-SO 2 -R, wherein R is an organic moiety, for a period of time sufficient to dissolve components of said starting material other than nanocrystalline cellulose in said solvent mixture, thereby obtaining nanocrystalline cellulose dispersed in a dissolution mixture; (b) adding a second solvent mixture to said nanocrystalline cellulose dispersed in a dissolution mixture, said second solvent mixture comprising 1,4-dioxan with less than 10% (wt.) water, thereby obtaining nanocrystalline cellulose in a diluted dissolution mixture; (c) separating said nanocrystalline cellulose from said diluted dissolution mixture by at least one filtration or centrifugation step. (a) contacting said starting material with a first solvent mixture comprising at least one first organic solvent selected from the group consisting of ethylene glycol, diethylene glycol and glycerol and an acid catalyst, wherein said acid catalyst is a sulfonic acid having the general structure HO-SO 2 -R, wherein R is an organic moiety, for a period of time sufficient to dissolve components of said starting material other than nanocrystalline cellulose in said solvent mixture, thereby obtaining nanocrystalline cellulose dispersed in a dissolution mixture; (b) adding a second solvent mixture to said nanocrystalline cellulose dispersed in a dissolution mixture, said second solvent mixture comprising 1,4-dioxan with less than 10% (wt.) water, thereby obtaining nanocrystalline cellulose in a diluted dissolution mixture; (c) separating said nanocrystalline cellulose from said diluted dissolution mixture by at least one filtration or centrifugation step.