mhurhangee/ep-ind-claims huggingface dataset:
Smoking article, having a mouthpiece for drawing in a particle-loaded gas, wherein the particle-loaded gas is heated, wherein at least one cooling element is included for cooling the particle-loaded gas, that the particle-loaded gas flows through the cooling element during the drawing-in action, that the cooling element has a cooling material, that the cooling by the cooling element is implemented by means of an endothermic process of the cooling material and that the endothermic process is activated by the heated particle-loaded gas, characterized in that the cooling element has an elongate carrier material, that the elongate carrier material comprises the cooling material and that the cooling material is applied to the surface of the carrier material. wherein at least one cooling element is included for cooling the particle-loaded gas, that the particle-loaded gas flows through the cooling element during the drawing-in action, that the cooling element has a cooling material, that the cooling by the cooling element is implemented by means of an endothermic process of the cooling material and that the endothermic process is activated by the heated particle-loaded gas, characterized in that the cooling element has an elongate carrier material, that the elongate carrier material comprises the cooling material and that the cooling material is applied to the surface of the carrier material.
A mechanism for supporting a license plate of a work vehicle, comprising: an attachment portion configured to support the license plate; and a fixing portion configured to fix the attachment portion to a vehicle body of the work vehicle; characterized in that a switching mechanism coupling the attachment portion to the fixing portion in a manner such that the attachment portion moves relative to the fixing portion, and that the attachment portion is movable between a storage position and a display position, wherein at the storage position, the attachment portion is positioned between a pair of rear wheel fenders of the work vehicle, in use, and at the display position, the attachment portion is positioned outward of the pair of rear wheel fenders with respect to the right-left direction of the work vehicle, in use. an attachment portion configured to support the license plate; and a fixing portion configured to fix the attachment portion to a vehicle body of the work vehicle; characterized in that a switching mechanism coupling the attachment portion to the fixing portion in a manner such that the attachment portion moves relative to the fixing portion, and that the attachment portion is movable between a storage position and a display position, wherein at the storage position, the attachment portion is positioned between a pair of rear wheel fenders of the work vehicle, in use, and at the display position, the attachment portion is positioned outward of the pair of rear wheel fenders with respect to the right-left direction of the work vehicle, in use. at the storage position, the attachment portion is positioned between a pair of rear wheel fenders of the work vehicle, in use, and at the display position, the attachment portion is positioned outward of the pair of rear wheel fenders with respect to the right-left direction of the work vehicle, in use.
A method implemented in a communication system including a host computer (608, 702), a base station (102, 334, 714), and a User Equipment, UE, (100, 304, 400, 726), the method comprising: at the host computer, receiving user data transmitted to the base station from the UE, wherein the UE: receives, from the base station, a Random Access Response, RAR, message comprising an indication of a time-domain resource allocation for a Msg3 transmission on a Physical Uplink Shared Channel, PUSCH; determines a slot offset value, K2, for the Msg3 transmission based on the indication of the time-domain resource allocation and a PUSCH table; adds an additional slot offset value for the Msg3 transmission to the slot offset value, K2, to provide an increased slot offset value for the Msg3 transmission, wherein the additional slot offset value varies in relation to an additional processing time T add needed for RAR message decoding compared to Physical Downlink Control Channel, PDCCH, decoding and rounded to a next higher or next lower number of slots in an uplink numerology of the PUSCH, wherein the additional processing time is a function of whether the RAR message is transmitted in a short Physical Downlink Shared Channel, PDSCH, with mapping Type A; transmits, to the base station, the Msg3 transmission in accordance with an increased slot offset value, the increased slot offset value being a sum of the slot offset value, K2, and the additional slot offset value; and transmits, to the base station, the user data to be forwarded to the host computer. receives, from the base station, a Random Access Response, RAR, message comprising an indication of a time-domain resource allocation for a Msg3 transmission on a Physical Uplink Shared Channel, PUSCH; determines a slot offset value, K2, for the Msg3 transmission based on the indication of the time-domain resource allocation and a PUSCH table; adds an additional slot offset value for the Msg3 transmission to the slot offset value, K2, to provide an increased slot offset value for the Msg3 transmission, wherein the additional slot offset value varies in relation to an additional processing time T add needed for RAR message decoding compared to Physical Downlink Control Channel, PDCCH, decoding and rounded to a next higher or next lower number of slots in an uplink numerology of the PUSCH, wherein the additional processing time is a function of whether the RAR message is transmitted in a short Physical Downlink Shared Channel, PDSCH, with mapping Type A; transmits, to the base station, the Msg3 transmission in accordance with an increased slot offset value, the increased slot offset value being a sum of the slot offset value, K2, and the additional slot offset value; and transmits, to the base station, the user data to be forwarded to the host computer.
A method of utilizing an imaging-based bar code reader to identify a desired acquisition area within a captured image frame, the desired acquisition area including a target bar code and an extent of the desired acquisition area bounded by a border, the imaging-based bar code reader including an imaging system for imaging a field of view and generating image frames of the field of view of the imaging system, a memory for storing a digitized representation of a captured image frame, and an image processing system operating on the digitized representation of the captured image frame, the method comprising the steps of: identifying a region of the captured image frame corresponding to an image of the target bar code; determining a reference point within the imaged target bar code utilizing information provided to the imaging system regarding a size of the target bar code; determining a reference point within an image of the desired acquisition area utilizing information provided to the imaging system regarding a location of the target bar code within the desired acquisition area and the determined reference point within the imaged target bar code; searching for an image of the border of the desired acquisition area utilizing information provided to the imaging system relating the size of the target bar code to a size of the desired acquisition area and the determined reference point within the imaged desired acquisition area; identifying the imaged border of the desired acquisition area; and saving in memory a portion of the captured image frame corresponding to an image within the imaged border. identifying a region of the captured image frame corresponding to an image of the target bar code; determining a reference point within the imaged target bar code utilizing information provided to the imaging system regarding a size of the target bar code; determining a reference point within an image of the desired acquisition area utilizing information provided to the imaging system regarding a location of the target bar code within the desired acquisition area and the determined reference point within the imaged target bar code; searching for an image of the border of the desired acquisition area utilizing information provided to the imaging system relating the size of the target bar code to a size of the desired acquisition area and the determined reference point within the imaged desired acquisition area; identifying the imaged border of the desired acquisition area; and saving in memory a portion of the captured image frame corresponding to an image within the imaged border.
System for machining workpieces made of wood, plastic, aluminium and the like, having at least one first clamping device for clamping elongate workpieces, the system having at least one second clamping device for flat or curved workpieces, which is provided on at least one workpiece carrier which can be assembled with the flat or curved workpiece, characterised in that the first clamping device has clamping jaws (8a, 8b) for clamping the elongate workpieces, in that the workpiece carrier can be assembled with the flat or curved workpiece outside the system, and in that a carriage carrying the workpiece carrier can be docked onto a guide system of the system. characterised in that the first clamping device has clamping jaws (8a, 8b) for clamping the elongate workpieces, in that the workpiece carrier can be assembled with the flat or curved workpiece outside the system, and in that a carriage carrying the workpiece carrier can be docked onto a guide system of the system.
A height-adjustable upright tube-cage unit comprising a telescopic cage which comprises an inner cage and an outer cage, and a telescopic upright tube which comprises an inner upright tube and an outer upright tube and is accommodated in the cage, wherein the elements inner cage, outer cage, inner upright tube, and outer upright tube can be connected to each other via a shared, telescopic scaffolding, wherein the scaffolding is adjustable between a first detent position, in which the inner cage is latched with the outer cage and the inner upright tube is latched with the outer upright tube, wherein the upright tube is longitudinally displaceable within the cage, and a second detent position, in which an upper cage part is latched with an upper upright tube part, and a lower cage part is latched with a lower upright tube part.
A secondary battery comprising: a casing, which comprises a receiving cavity and an opening which is in communication with the receiving cavity; an electrode assembly housed in the casing; a first top cover plate, which covers the opening and is connected with the casing, the first top cover plate comprising an insertion portion extending into the casing and an exposed portion disposed outside the casing; and a sealing member, wherein the casing is provided with a first through hole, the insertion portion is provided with a second through hole, the second through hole comprises an inlet which is in communication with the first through hole and an outlet which is in communication with the receiving cavity, and the sealing member is connected to the casing and seals the first through hole. a casing, which comprises a receiving cavity and an opening which is in communication with the receiving cavity; an electrode assembly housed in the casing; a first top cover plate, which covers the opening and is connected with the casing, the first top cover plate comprising an insertion portion extending into the casing and an exposed portion disposed outside the casing; and a sealing member, wherein the casing is provided with a first through hole, the insertion portion is provided with a second through hole, the second through hole comprises an inlet which is in communication with the first through hole and an outlet which is in communication with the receiving cavity, and the sealing member is connected to the casing and seals the first through hole.
An access assembly for insertion through tissue, the access assembly comprising: a foam body having a proximal end and a distal end, the body has a central portion and a lower rim at a distal end of the central portion; a plurality of lumens (16, 18, 20) extending through the foam body, each of the lumens including a sleeve extending at least a portion of the length of the body; and characterised in that the access assembly further comprises a a lower rim defining a recess encircling completely the outer surface of the foam body along a proximal side of the lower rim and a vertical lumen which connects with a horizontal lumen intersecting with said recess to produce a longitudinal passageway that extends from the proximal end of the central portion to a horizontal passageway that extends into the recess and the recess being connected with said vertical lumen to provide a passageway (43, 45) to extract fluids from the recess. a foam body having a proximal end and a distal end, the body has a central portion and a lower rim at a distal end of the central portion; a plurality of lumens (16, 18, 20) extending through the foam body, each of the lumens including a sleeve extending at least a portion of the length of the body; and
Geothermal heat exchange device (10; 110), comprising an enclosure (1; 101) at least partially containing a geothermal heat exchanger (2; 102), the enclosure (1; 101) comprising a first deformable material forming a pocket (11; 111), the enclosure being intended to be buried in a subsoil of the earth, the enclosure containing a second deformable material (12; 112) filling the enclosure, and the device being characterized in that the enclosure comprises an expansion means (3, 4; 133) allowing variations of volume of the contents of the enclosure.
An apparatus for sensing a fluid flow passing within a pipe, comprising: a flow meter having an array of sensors and at least one processing unit (24, 37), which flow meter is adapted to sense the fluid flow passing within the pipe as it travels past the array of sensors and produce sensor signals indicative of the presence of vortical structures convecting with the fluid flow; wherein the at least one processing unit (24, 37) is adapted to produce a k-ω plot using the sensor signals indicative of the presence of vortical structures convecting with the fluid flow, the k-ω plot representative of processed sensor signals as a function of frequency and wavenumber, the processed sensor signals defining at least one convective ridge region and at least one non-convective ridge region; characterised in that: the at least one processing unit (24, 37) is adapted to determine a k-ω plot quality parameter indicative of a gas-liquid ratio within the fluid flow passing within the pipe based on the processed sensor signals within the at least one convective ridge region of the k-ω plot and the processed sensor signals within the at least one non-convective ridge region of the k-ω plot. a flow meter having an array of sensors and at least one processing unit (24, 37), which flow meter is adapted to sense the fluid flow passing within the pipe as it travels past the array of sensors and produce sensor signals indicative of the presence of vortical structures convecting with the fluid flow; wherein the at least one processing unit (24, 37) is adapted to produce a k-ω plot using the sensor signals indicative of the presence of vortical structures convecting with the fluid flow, the k-ω plot representative of processed sensor signals as a function of frequency and wavenumber, the processed sensor signals defining at least one convective ridge region and at least one non-convective ridge region; characterised in that: the at least one processing unit (24, 37) is adapted to determine a k-ω plot quality parameter indicative of a gas-liquid ratio within the fluid flow passing within the pipe based on the processed sensor signals within the at least one convective ridge region of the k-ω plot and the processed sensor signals within the at least one non-convective ridge region of the k-ω plot.
A high-pressure fuel supply pump having an electromagnetically-driven intake valve, comprising: a pump housing in which a pressurizing chamber is provided; a piston plunger supported by the pump housing, the piston plunger repetitively performs a reciprocating motion within the pressurizing chamber to suck fluid into the pressurizing chamber, pressurize the fluid therein and discharge the fluid out of the pressurizing chamber; an electromagnetically-driven intake valve unit attached to the pump housing; and the electromagnetically-driven intake valve unit being located at a suction opening part provided at an inlet of the pressurizing chamber, the electromagnetically-driven intake valve unit including a valve device and an electromagnetic driving mechanism for controlling an opening or closing timing for the valve device; wherein the valve device is provided on a side of the pressurizing chamber with respect to a valve seat provided at a valve housing and includes a valve guide, wherein the valve unit further comprises a valve which is configured to stop a fluid flow by abutting the valve seat at the valve housing, characterized in that the valve includes a bottomed cylindrical part (203F, 203H) which has a first cylindrical surface part provided on an inner peripheral part of the valve, the inner peripheral surface of the first cylindrical surface part being guided along a second mating cylindrical surface part for supporting a reciprocating motion of the valve as the valve guide. a pump housing in which a pressurizing chamber is provided; a piston plunger supported by the pump housing, the piston plunger repetitively performs a reciprocating motion within the pressurizing chamber to suck fluid into the pressurizing chamber, pressurize the fluid therein and discharge the fluid out of the pressurizing chamber; an electromagnetically-driven intake valve unit attached to the pump housing; and the electromagnetically-driven intake valve unit being located at a suction opening part provided at an inlet of the pressurizing chamber, the electromagnetically-driven intake valve unit including a valve device and an electromagnetic driving mechanism for controlling an opening or closing timing for the valve device; wherein the valve device is provided on a side of the pressurizing chamber with respect to a valve seat provided at a valve housing and includes a valve guide, wherein the valve unit further comprises a valve which is configured to stop a fluid flow by abutting the valve seat at the valve housing, characterized in that the valve includes a bottomed cylindrical part (203F, 203H) which has a first cylindrical surface part provided on an inner peripheral part of the valve, the inner peripheral surface of the first cylindrical surface part being guided along a second mating cylindrical surface part for supporting a reciprocating motion of the valve as the valve guide.
A camera device that comprises a light-trap arrangement and a camera housing with a lens assembly, where, when mounted to the camera housing, the light-trap arrangement is intended to limit light incoming toward the lens assembly, where the camera device is adapted to be mounted to a mounting bracket positioned inside a vehicle, where the camera housing comprises at least one housing holding part (7A, 8A, 9A, 10A) and the light-trap arrangement comprises at least one corresponding light-trap holding part (7B, 8B, 9B, 10B), where corresponding holding parts (7A, 7B; 8A, 8B; 9A, 9B; 10A, 10B) are adapted to be brought into an engaging holding position when the light-trap arrangement is attached to the camera housing, characterized in that the light-trap arrangement comprises two light-trap front holding parts (7B, 8B), each comprising a resilient hook (11, 12) with a protruding part (13, 14), and where the camera housing comprises two housing front holding parts (7A, 8A), each comprising a fixed indent part, where each hook is adapted to embrace a corresponding indent part such that each protruding part locks against a corresponding indent part, and where the light-trap arrangement comprises two light-trap rear holding parts (9B, 10B), each comprising a resilient angled tongue part (16, 17), and where the camera housing comprises two housing rear holding parts (9A, 10A), each comprising a fixed indent part, where each tongue part is adapted to engage a corresponding indent part such that the corresponding tongue part locks against the corresponding indent part.
A method for controlling an industrial robot having a movable robot arm for supporting a tool, and a control unit configured to control the movement of the movable robot arm, wherein the control unit is provided with an alignment function for aligning an axis of the tool with a specified axis (Xw, Yw, Zw), wherein the axis of the tool and the specified axis have been defined in advance, wherein the method comprises: - activating the alignment function, and - detecting a movement of the industrial robot, characterized by - automatically adjusting the orientation of the tool by controlling the movement of the industrial robot using the control unit, so that the axis of the tool is aligned with the specified axis upon detecting that the movement of the industrial robot has been stopped while the alignment function is activated. - activating the alignment function, and - detecting a movement of the industrial robot, characterized by - automatically adjusting the orientation of the tool by controlling the movement of the industrial robot using the control unit, so that the axis of the tool is aligned with the specified axis upon detecting that the movement of the industrial robot has been stopped while the alignment function is activated.
Tubular bushing co-moldable with tubs of washing machines, the tubular bushing suitable to be engaged by a drive shaft of the washing machine extending along a central axis and comprising: - two rolling bearings arranged at a given distance from each other along the axis so as to allow rotation of the drive shaft with respect to the tub; - a containing sleeve made of plastic and by means of co-molding around the two bearings; the tubular bushing being characterized in that it comprises current dispersion means incorporated in the said containing sleeve and suitable to be electrically connected both to the said drive shaft and to earth so as to prevent an accumulation of static electricity in the washing machine and prevent electrostatic discharges. - two rolling bearings arranged at a given distance from each other along the axis so as to allow rotation of the drive shaft with respect to the tub; - a containing sleeve made of plastic and by means of co-molding around the two bearings;