mhurhangee/ep-ind-claims huggingface dataset:
A method to map active radiofrequency channels to respective pump assemblies for cooled radiofrequency ablation, the method comprising steps of: providing a pump system having a plurality of pump assemblies (250a-d), a radiofrequency generator unit, and a plurality of cooled radiofrequency probes (100a-d, 152, 154), wherein each cooled radiofrequency probe comprises a cable-tubing assembly having a radiofrequency cable and fluid tubing; connecting the cable of each cable-tubing assembly to an RF channel (230a-d) of the radiofrequency generator; connecting the fluid tubing of each cable-tubing assembly to a cooling fluid source; activating each pump assembly of the plurality of pump assemblies individually in sequence; mapping each cooled radiofrequency probe to a respective pump assembly connected thereto by measuring a temperature drop delay time for each cooled radio frequency probe, wherein the temperature drop delay time is the amount of time for cooling fluid to reach a tip of a respective one of the plurality of cooled radiofrequency ablation probes and initiate a temperature decrease at the tip of the respective one of the plurality of cooled radiofrequency ablation probes after activation of a first pump assembly of the plurality of pump assemblies; and confirming the mapping of each cooled radiofrequency probe to the respective pump assembly by comparing the measured temperature drop delay time to an expected temperature drop delay time for each cooled radiofrequency probe, wherein expected temperature drop delay time is calculated using a recorded activation time of each cooled radiofrequency probe. providing a pump system having a plurality of pump assemblies (250a-d), a radiofrequency generator unit, and a plurality of cooled radiofrequency probes (100a-d, 152, 154), wherein each cooled radiofrequency probe comprises a cable-tubing assembly having a radiofrequency cable and fluid tubing; connecting the cable of each cable-tubing assembly to an RF channel (230a-d) of the radiofrequency generator; connecting the fluid tubing of each cable-tubing assembly to a cooling fluid source; activating each pump assembly of the plurality of pump assemblies individually in sequence; mapping each cooled radiofrequency probe to a respective pump assembly connected thereto by measuring a temperature drop delay time for each cooled radio frequency probe, wherein the temperature drop delay time is the amount of time for cooling fluid to reach a tip of a respective one of the plurality of cooled radiofrequency ablation probes and initiate a temperature decrease at the tip of the respective one of the plurality of cooled radiofrequency ablation probes after activation of a first pump assembly of the plurality of pump assemblies; and confirming the mapping of each cooled radiofrequency probe to the respective pump assembly by comparing the measured temperature drop delay time to an expected temperature drop delay time for each cooled radiofrequency probe, wherein expected temperature drop delay time is calculated using a recorded activation time of each cooled radiofrequency probe.
A light emitting device comprising: a nano-structure (19,19A); a first semiconductor layer disposed on the nano-structure (19,19A); an active layer disposed on the first semiconductor layer; and a second conductive semiconductor layer disposed on the active layer; wherein the nano-structure (19,19A) comprises: a graphene layer disposed under the first semiconductor layer and contacted with the first semiconductor layer; and a plurality of nano-textures (16,17) extending from a top surface of the graphene layer in a direction toward the first semiconductor layer and contacted with the first semiconductor layer, characterized in that: the graphene layer comprises a plurality of openings, and a portion of the first semiconductor layer is disposed in each opening of the graphene layer; wherein the graphene layer comprises a plurality of graphene patterns spaced apart from each other, and the nano-textures (16,17) are disposed on the graphene patterns, respectively; wherein a connection part is disposed to connect the graphene patterns of the nano-structure with each other; and wherein the nano-texture (16,17) comprises a material different from materials constituting the graphene patterns or the connection part. a nano-structure (19,19A); a first semiconductor layer disposed on the nano-structure (19,19A); an active layer disposed on the first semiconductor layer; and a second conductive semiconductor layer disposed on the active layer; wherein the nano-structure (19,19A) comprises: a graphene layer disposed under the first semiconductor layer and contacted with the first semiconductor layer; and a plurality of nano-textures (16,17) extending from a top surface of the graphene layer in a direction toward the first semiconductor layer and contacted with the first semiconductor layer, a graphene layer disposed under the first semiconductor layer and contacted with the first semiconductor layer; and a plurality of nano-textures (16,17) extending from a top surface of the graphene layer in a direction toward the first semiconductor layer and contacted with the first semiconductor layer, characterized in that: the graphene layer comprises a plurality of openings, and a portion of the first semiconductor layer is disposed in each opening of the graphene layer; wherein the graphene layer comprises a plurality of graphene patterns spaced apart from each other, and the nano-textures (16,17) are disposed on the graphene patterns, respectively; wherein a connection part is disposed to connect the graphene patterns of the nano-structure with each other; and wherein the nano-texture (16,17) comprises a material different from materials constituting the graphene patterns or the connection part.
A nozzle, comprising: a shaft body having a center axis and the shaft body is cylindrical; a liquid guide path located inside the shaft body, the liquid guide path extending along the center axis; a liquid chamber disposed at a distal end portion of the liquid guide path, the liquid chamber having a nozzle hole located at a distal end portion of the liquid chamber, the nozzle hole extending along an ejection axis which direction is different from the center axis, the nozzle hole extends perpendicularly to the center axis, the nozzle hole having an inlet portion connected to the liquid chamber, the inlet portion having a smaller diameter toward the downstream, and a guide portion connected to the downstream of the inlet portion to guide liquid to an opening, and the guide portion has a cylindrical shape up to the opening, characterized in that the nozzle further comprises a plurality of liquid chambers (206a, 206b); wherein each of the liquid chamber (206a, 206b) has only one nozzle hole (208a, 208b). a shaft body having a center axis and the shaft body is cylindrical; a liquid guide path located inside the shaft body, the liquid guide path extending along the center axis; a liquid chamber disposed at a distal end portion of the liquid guide path, the liquid chamber having a nozzle hole located at a distal end portion of the liquid chamber, the nozzle hole extending along an ejection axis which direction is different from the center axis, the nozzle hole extends perpendicularly to the center axis, the nozzle hole having an inlet portion connected to the liquid chamber, the inlet portion having a smaller diameter toward the downstream, and a guide portion connected to the downstream of the inlet portion to guide liquid to an opening, and the guide portion has a cylindrical shape up to the opening, characterized in that the nozzle further comprises a plurality of liquid chambers (206a, 206b); wherein each of the liquid chamber (206a, 206b) has only one nozzle hole (208a, 208b).
A blow mould assembly for moulding plastic preforms into plastic containers, comprising a blow mould unit forming a cavity, within which the plastic preforms can be expanded into plastic containers, wherein said blow mould unit is formed at least in two parts, and comprises a blow mould holder for receiving the blow mould unit, wherein the blow mould holder has at least two mould holder elements (4a, 4b) for receiving parts (2a, 2b) of the blow mould unit, and comprising a locking mechanism in order to arrest at least a part of the blow mould unit in relation to at least one mould holder element, wherein said locking mechanism has an engagement member (12, 52) that can be pivoted and/or displaced in relation to a specified axis, wherein said locking mechanism has an engagement member (12, 52) that rests in an arrested condition of part of the blow mould unit in relation to a mould holder element on a section of part of the blow mould unit, wherein the locking mechanism has an actuating member (14, 54), in order to release an arrest between the mould holder element and the blow mould unit, and a movement of this actuating member (14, 54) is coupled to the movement of the engagement member (12, 52), and wherein the actuating member (14, 54) is adapted and intended to be displaceable in a direction, in order to achieve an arrest of a part of the blow mould relative to the blow mould holder element, characterized in that the locking mechanism is pneumatically operable.
Latch for a motor vehicle, comprising a locking mechanism consisting of a catch and at least one pawl, a closing device having an electric drive, it being possible for the locking mechanism to be transferred from an open position, in particular a pre-ratchet position, into at least one main ratchet position by means of the closing device, and a control unit for the closing drive, it being possible to prevent a closing operation on the basis of a measurement variable (I, U, n) of the closing drive, it being possible to prevent the closing operation on the basis of a determinable deviation (ΔI, ΔU, Δn) from a setpoint value curve (24, 25, 28), it being possible to prevent the closing operation on the basis of a current difference (ΔI) and/or a speed difference (Δn) and/or a voltage difference (ΔU) as a deviation from the setpoint value curve (24, 25, 28), characterized in that a catch sensor is provided, it being possible to determine a closed position (VR, HR) of the catch by means of the catch sensor, it being possible to activate or deactivate anti-jamming protection on the basis of the signal from the catch sensor.
A stator assembly for an electric motor comprising: a core comprising a plurality of similar plates stacked against each other, the plurality of plates each including a plurality of fins that define a plurality of cooling air paths that extend longitudinally along an outer surface of the core and parallel to the axis of rotation, wherein at least one of the plurality of plates includes fins that are offset circumferentially relative to the adjacent fins of the other of the plurality of plates, characterized in that the offset fins extend in a circumferential direction inwardly into each of the plurality of cooling air paths for disrupting cooling air flow, and wherein the at least one of the plurality of plates includes a fin offset circumferentially relative to the remainder of the plurality of plates and recessed in a circumferential direction inward to define a recess in a lateral boundary of the corresponding cooling air path. a core comprising a plurality of similar plates stacked against each other, the plurality of plates each including a plurality of fins that define a plurality of cooling air paths that extend longitudinally along an outer surface of the core and parallel to the axis of rotation, wherein at least one of the plurality of plates includes fins that are offset circumferentially relative to the adjacent fins of the other of the plurality of plates, characterized in that the offset fins extend in a circumferential direction inwardly into each of the plurality of cooling air paths for disrupting cooling air flow, and wherein the at least one of the plurality of plates includes a fin offset circumferentially relative to the remainder of the plurality of plates and recessed in a circumferential direction inward to define a recess in a lateral boundary of the corresponding cooling air path.
An oil filtration system for a fryer, comprising: a housing defining an interior space and including an inlet for supplying unfiltered oil to the interior space and an outlet for dispensing filtered oil from the interior space, the unfiltered oil containing particles of debris collected from food products during operation of the fryer; a conveyor belt positioned in the interior space for receiving the unfiltered oil from the inlet and the conveyor belt formed from material that allows passage of oil without particles towards the outlet; and the conveyor belt for advancing at least a portion of the unfiltered oil through the interior space, a scraper positioned in the interior space, wherein at least a portion of the scraper contacts the conveyor belt to inhibit the advancement of particles within the oil on the conveyor belt, thereby converting the unfiltered oil into filtered oil before flow towards the outlet, and wherein the inlet is located at a top of the housing, characterized in that the outlet is located at a bottom of the housing such that gravity promotes movement of oil through the interior space in the housing from the inlet to the outlet. a housing defining an interior space and including an inlet for supplying unfiltered oil to the interior space and an outlet for dispensing filtered oil from the interior space, the unfiltered oil containing particles of debris collected from food products during operation of the fryer; a conveyor belt positioned in the interior space for receiving the unfiltered oil from the inlet and the conveyor belt formed from material that allows passage of oil without particles towards the outlet; and the conveyor belt for advancing at least a portion of the unfiltered oil through the interior space, a scraper positioned in the interior space, wherein at least a portion of the scraper contacts the conveyor belt to inhibit the advancement of particles within the oil on the conveyor belt, thereby converting the unfiltered oil into filtered oil before flow towards the outlet, and wherein the inlet is located at a top of the housing, characterized in that the outlet is located at a bottom of the housing such that gravity promotes movement of oil through the interior space in the housing from the inlet to the outlet.
Shelving device for displaying articles, comprising a base (2; 102), at least one moveable bottom shelf (7; 107) which is mounted on said base (2; 102) and a back frame (3; 103) extending from said base (2; 102) and configured to receive at least one fixed shelf overhanging said base (2; 102), said at least one moveable bottom shelf (7; 107) having an inserted position in which said at least one moveable bottom shelf (7; 107) is introduced into a receiving space defined at least by said base (2; 102) and a deployed position in which said at least one moveable bottom shelf (7; 107) is at least partially remote to said receiving space, wherein said at least one moveable bottom shelf (7; 107) comprises a support plate (30; 130) configured to display articles and a moving system (40; 140) configured to displace said support plate (30; 130) between said inserted and deployed positions, said moving system (40; 140) comprising at least one carrier (41; 141) on which said support plate (30; 130) rests, at least one mounting interface (42; 142) mounted on said base (2; 102) and at least one slide element (43; 143) sandwiched between and attached to both said at least one carrier (41; 141) and said at least one mounting interface (42; 142); said at least one carrier (41; 141), said at least one mounting interface (42; 142) and said at least one slide element (43; 143) being configured to allow the displacement of said at least one carrier (41; 141) and of said support plate (30; 130) which rests on said at least one carrier (41; 141) relative to said at least one mounting interface (42; 142) and to said base (2; 102) on which said at least one mounting interface (42; 142) is mounted; wherein said moving system (40; 140) comprises a plurality of wheels (44; 144) fixedly attached to said at least one carrier (41; 141) and configured to roll on a floor for displacing said carrier (41; 141); and characterised in that said base (2; 102) comprises at least one foot member (8; 108) having a receiving U-shaped portion and said at least one mounting interface (42; 142) has a generally C-shaped comprising a main portion, a first and a second auxiliary portions (82, 83) and a first edge portion extending from said first auxiliary portion and configured to be introduced into said receiving U-shaped portion.
A system for image alignment, comprising: an alignment mechanism configured to permit user alignment of images; an imaging mechanism associated with a first imaging modality, the imaging mechanism being configured to concurrently provide images in at least two imaging planes, wherein the imaging mechanism is associated with the alignment mechanism; an image processing module configured to concurrently display on a display of the system a plurality of first images collected with the first imaging modality, each first image corresponding to a different one of the at least two imaging planes, and a plurality of second images collected with a second imaging modality, each second image corresponding to a different one of the at least two imaging planes, to permit user alignment using the alignment mechanism between each one of the plurality of first images and the corresponding one of the plurality of second images; and a registration module stored in memory and configured to register each first image with its corresponding second image in each of the at least two imaging planes when alignment in the at least two imaging planes has been achieved; wherein the user alignment is performed by user manipulation of the alignment mechanism with visual feedback from the plurality of first images and the plurality of second images concurrently displayed on the display of the system. an alignment mechanism configured to permit user alignment of images; an imaging mechanism associated with a first imaging modality, the imaging mechanism being configured to concurrently provide images in at least two imaging planes, wherein the imaging mechanism is associated with the alignment mechanism; an image processing module configured to concurrently display on a display of the system a plurality of first images collected with the first imaging modality, each first image corresponding to a different one of the at least two imaging planes, and a plurality of second images collected with a second imaging modality, each second image corresponding to a different one of the at least two imaging planes, to permit user alignment using the alignment mechanism between each one of the plurality of first images and the corresponding one of the plurality of second images; and a registration module stored in memory and configured to register each first image with its corresponding second image in each of the at least two imaging planes when alignment in the at least two imaging planes has been achieved; wherein the user alignment is performed by user manipulation of the alignment mechanism with visual feedback from the plurality of first images and the plurality of second images concurrently displayed on the display of the system.
A composition, comprising: a polymer mixture comprising i. 1 to10 parts of a cellulose derivative; ii 1 to 4 parts of a tamarind seed extract; and iii 1 to 2 parts of hyaluronic acid. i. 1 to10 parts of a cellulose derivative; ii 1 to 4 parts of a tamarind seed extract; and iii 1 to 2 parts of hyaluronic acid.
A puree nutritional composition comprising: a puree selected from the group consisting of at least one fruit puree, at least one vegetable puree, at least one fruit puree concentrate, at least one vegetable puree concentrate, and combinations thereof; at least one nut butter; and an ingredient selected from the group consisting of dextrose, dextrose polymers, other grain/nut syrups comprising rice syrup, agave syrup, palm syrup, and combinations thereof, wherein the nutritional composition includes a carbohydrate fraction comprising glucose and fructose in a weight ratio from 0.5:1 to 5:1, wherein the puree is present in the nutritional composition in an amount ranging from 30% to about 100%, and wherein the carbohydrate fraction is present in an amount ranging from 10 g to 45 g per serving size of the nutritional composition, wherein the serving size is from 28.35 g to 141.75 g. a puree selected from the group consisting of at least one fruit puree, at least one vegetable puree, at least one fruit puree concentrate, at least one vegetable puree concentrate, and combinations thereof; at least one nut butter; and an ingredient selected from the group consisting of dextrose, dextrose polymers, other grain/nut syrups comprising rice syrup, agave syrup, palm syrup, and combinations thereof, wherein the nutritional composition includes a carbohydrate fraction comprising glucose and fructose in a weight ratio from 0.5:1 to 5:1, wherein the puree is present in the nutritional composition in an amount ranging from 30% to about 100%, and wherein the carbohydrate fraction is present in an amount ranging from 10 g to 45 g per serving size of the nutritional composition, wherein the serving size is from 28.35 g to 141.75 g.
Pipe connection, with a pipe sleeve that has an annular bead that is bounded by a bead base and a first bead wall in the insertion direction and a further bead wall opposite said first bead wall, and with an insertion pipe, with an insertion end and an outer casing surface, and with an elastic ring seal located in the annular bead that, with outer sealing lips arranged on an outer ring seal side, abuts on the bead base and that, on the inner ring seal side opposite the outer ring seal side, has one or more inner sealing lips (30, 32, 34) for sealing off against the outer casing surface of the insertion pipe in the connected state of the pipe connection, in which the insertion pipe is inserted into the pipe sleeve and the outer casing surface of the insertion pipe is sealed off against the pipe sleeve via the ring seal, wherein the ring seal has a support lip with a support lip tip and an outer support lip flank facing the pipe sleeve, and an inner support lip flank facing the insertion tube, wherein and the support lip is designed so that it can be moved from a home position in the pre-connected state of the pipe connection, in which the insertion pipe is still not in contact with the ring seal, into a sealing position in the connected state of the pipe connection, and wherein the support lip tip is designed to abut on the first bead wall in the home position and the inner support lip flank is designed to abut on the outer casing surface of the insertion pipe in the sealing position, and, in this sealing position, an entrance gap to a chamber bounded at least by the first bead wall and the ring seal is arranged between the support lip and the first bead wall, characterised in that the ring seal is designed to abut on the further bead wall in the pre-connected state of the pipe connection with its flank opposite the support lip.