mhurhangee/ep-ind-claims huggingface dataset:
Device for feeding an object arranged in a film bag from a room, in particular a cleanroom, into a further room separated by a partition, in particular a further cleanroom, comprising at least one holding means for holding the film bag, at least one cutting device for cutting open the film bag, wherein the holding means and/or the cutting device are arranged in the room, with at least one feed means in order to feed the object to the further room, wherein the feed means is also arranged in the room, wherein the feed means comprises at least one advance system and at least one transfer system which are designed to be movable both together and also relative to one another, wherein the transfer system is arranged on the advance system, wherein at least one coupling means is provided which interconnects or disconnects the advance system and the transfer system, and which interacts with an actuating means.
Food packaging, comprising: a food vessel having an upper lip and an inwardly projecting ledge below said upper lip; a food tray having a pair of opposed handle structures (70a, 70b) and a tray portion depending from said handle structures (70a, 70b), each handle structure having an outwardly projecting protuberance, said food tray positioned within said food vessel with each said protuberance resting on said inwardly projecting ledge such that said tray portion is suspended within said food vessel by said handle structures (70a, 70b). a food vessel having an upper lip and an inwardly projecting ledge below said upper lip; a food tray having a pair of opposed handle structures (70a, 70b) and a tray portion depending from said handle structures (70a, 70b), each handle structure having an outwardly projecting protuberance, said food tray positioned within said food vessel with each said protuberance resting on said inwardly projecting ledge such that said tray portion is suspended within said food vessel by said handle structures (70a, 70b).
A directional backlight (100, 200, 230, 300, 340, 400, 500, 600), comprising: a directional backplane (125a, 205, 235,305, 345, 405, 505, 605) having a plurality of directional pixels (115a-d, 210, 240, 350a-d, 425-435, 525-535, 620) to scatter a plurality of input planar lightbeams (110, 215,245, 315, 355, 410-420, 510-520, 610-620) into a plurality of directional lightbeams (120a-d, 220, 250, 320a-d, 360a-d), each directional lightbeam having a direction and an angular spread controlled by characteristics of a directional pixel of the plurality of directional pixels; and a modulation layer having a plurality of modulators (225, 255, 325a-d, 370a-d, 455, 555, 625) to modulate the plurality of directional lightbeams, wherein the plurality of directional pixels and plurality of modulators are configured such that the directional lightbeams scattered by the directional pixels and modulated by the modulators represent multiple image views that when combined form a 3D image. a directional backplane (125a, 205, 235,305, 345, 405, 505, 605) having a plurality of directional pixels (115a-d, 210, 240, 350a-d, 425-435, 525-535, 620) to scatter a plurality of input planar lightbeams (110, 215,245, 315, 355, 410-420, 510-520, 610-620) into a plurality of directional lightbeams (120a-d, 220, 250, 320a-d, 360a-d), each directional lightbeam having a direction and an angular spread controlled by characteristics of a directional pixel of the plurality of directional pixels; and a modulation layer having a plurality of modulators (225, 255, 325a-d, 370a-d, 455, 555, 625) to modulate the plurality of directional lightbeams, wherein the plurality of directional pixels and plurality of modulators are configured such that the directional lightbeams scattered by the directional pixels and modulated by the modulators represent multiple image views that when combined form a 3D image.
An ostomy pouch (10, 100, 400) comprising: a body-side wall and a distal-side wall joined at an outer periphery and defining an interior volume comprising a collection area; an inlet for receiving ostomy effluent; an outlet for egress of gas collected in the collection area; a filter assembly (16, 116, 216, 316, 416) covering the outlet; and a multi-stage filter protection configured to protect the filter assembly, wherein the filter assembly is attached to an outer surface or an inner surface of one of the body-side wall and the distal-side wall such that the membrane layer covers the outlet, wherein the multi-stage filter protection comprises a prefilter (24, 124, 224, 324, 424) and a protective panel (20, 220, 320, 420, 520) covering the prefilter, characterised in that the filter assembly comprises a membrane layer (104, 204, 304, 404), a backing layer (202, 402), and a filter media (18, 218, 318, 418) arranged therebetween, wherein the membrane layer is formed from a spunbond-meltblown-spunbond polypropylene (SMS PP) nonwoven. a body-side wall and a distal-side wall joined at an outer periphery and defining an interior volume comprising a collection area; an inlet for receiving ostomy effluent; an outlet for egress of gas collected in the collection area; a filter assembly (16, 116, 216, 316, 416) covering the outlet; and a multi-stage filter protection configured to protect the filter assembly, wherein the filter assembly is attached to an outer surface or an inner surface of one of the body-side wall and the distal-side wall such that the membrane layer covers the outlet, wherein the multi-stage filter protection comprises a prefilter (24, 124, 224, 324, 424) and a protective panel (20, 220, 320, 420, 520) covering the prefilter, characterised in that the filter assembly comprises a membrane layer (104, 204, 304, 404), a backing layer (202, 402), and a filter media (18, 218, 318, 418) arranged therebetween, wherein the membrane layer is formed from a spunbond-meltblown-spunbond polypropylene (SMS PP) nonwoven.
An axial air-gap electronic motor in which a stator and a rotor are arranged in an opposed manner with a prescribed air gap provided along an axis direction of a rotor output shaft of the rotor, the stator has a plurality of core members (21; 21a...21i) arranged annularly around an axis of the rotor output shaft and the core members are mutually connected via prescribed connection means, wherein each of the core members is formed in the shape of a bobbin that has a stator core and an insulator insulating a winding portion of the stator core, the insulator has a pair of flanged portions (110a, 110b) parallel to a teeth face of the stator core, and at least one of the flanged portions is provided with a winding draw-out portion for drawing out part of the winding to outside the core member, and characterised in that: the winding draw-out portion comprises a notched portion (141, 142) formed in one of two circumferential end portions of each of the flange portions (110a, 110b) or both of the circumferential end portions and in connecting the adjacent core members to each other, the winding draw-out portion is formed between abutted end portions of each of the flanged portions (110a, 110b). the winding draw-out portion comprises a notched portion (141, 142) formed in one of two circumferential end portions of each of the flange portions (110a, 110b) or both of the circumferential end portions and in connecting the adjacent core members to each other, the winding draw-out portion is formed between abutted end portions of each of the flanged portions (110a, 110b).
Rolling-bearing transmission, including the following features: - at least a first, second and third rolling-surface element having raceways, on which rolling elements are provided to roll, - at least a first set of rolling elements, which is arranged between the first and second rolling-surface element in such a way that the rolling-surface elements are rotatable relative to each other in the manner of a rolling bearing, - at least a second set of rolling elements, which is arranged between the second and third rolling-surface element in such a way that the rolling-surface elements are rotatable relative to each other in the manner of a rolling bearing, - the first and the third rolling-surface element are arranged axially beside each other, - the two raceways of the second rolling-surface element for the two rolling element sets are arranged on one and the same radial side of the rolling-surface element, - each of the rolling-surface elements is configured to form a transmission element or support at least one transmission element, and - the transmission elements are arranged and formed as gears in such a way that they interact in the manner of a transmission. - at least a first, second and third rolling-surface element having raceways, on which rolling elements are provided to roll, - at least a first set of rolling elements, which is arranged between the first and second rolling-surface element in such a way that the rolling-surface elements are rotatable relative to each other in the manner of a rolling bearing, - at least a second set of rolling elements, which is arranged between the second and third rolling-surface element in such a way that the rolling-surface elements are rotatable relative to each other in the manner of a rolling bearing, - the first and the third rolling-surface element are arranged axially beside each other, - the two raceways of the second rolling-surface element for the two rolling element sets are arranged on one and the same radial side of the rolling-surface element, - each of the rolling-surface elements is configured to form a transmission element or support at least one transmission element, and - the transmission elements are arranged and formed as gears in such a way that they interact in the manner of a transmission.
An aerosol delivery device, comprising: an outer body (116, 716, 816, 916, 1016); a heating element (122, 722, 822, 922, 1022) received in the outer body (116, 716, 816, 916, 1016); a reservoir (118, 718, 818, 918, 1018) received in the outer body (116, 716, 816, 916, 1016); and a liquid transport element (120, 720, 820, 920, 1020) wrapped with the reservoir (118, 718, 818, 918, 1018) so that the liquid transport element (120, 720, 820, 920, 1020) is at least partially received within the reservoir (118, 718, 818, 918, 1018), the liquid transport element (120, 720, 820, 920, 1020) being adapted to transport an aerosol precursor composition stored in the reservoir to the heating element (122, 722, 822, 922, 1022); a power source; a control component; one or more electronic component (126, 726, 826, 926, 1026) being adapted to communicate with the control component for controlling electrical current flow from the power source to the heating element (122, 722, 822, 922, 1022); characterized in that the liquid transport element (120, 720, 820, 920, 1020) comprises a porous monolith that defines one or more channels extending at least partially therethrough and configured so that the one or more electronic component (126, 726, 826, 926, 1026) of the aerosol delivery device is at least partially received in the one or more channels. an outer body (116, 716, 816, 916, 1016); a heating element (122, 722, 822, 922, 1022) received in the outer body (116, 716, 816, 916, 1016); a reservoir (118, 718, 818, 918, 1018) received in the outer body (116, 716, 816, 916, 1016); and a liquid transport element (120, 720, 820, 920, 1020) wrapped with the reservoir (118, 718, 818, 918, 1018) so that the liquid transport element (120, 720, 820, 920, 1020) is at least partially received within the reservoir (118, 718, 818, 918, 1018), the liquid transport element (120, 720, 820, 920, 1020) being adapted to transport an aerosol precursor composition stored in the reservoir to the heating element (122, 722, 822, 922, 1022); a power source; a control component; one or more electronic component (126, 726, 826, 926, 1026) being adapted to communicate with the control component for controlling electrical current flow from the power source to the heating element (122, 722, 822, 922, 1022); characterized in that the liquid transport element (120, 720, 820, 920, 1020) comprises a porous monolith that defines one or more channels extending at least partially therethrough and configured so that the one or more electronic component (126, 726, 826, 926, 1026) of the aerosol delivery device is at least partially received in the one or more channels.
A toilet bowl pressure flushing system with shock wave flushing comprising a rigid compact unit made by a fixed connection of a rigid body of a pressure module containing at least one gas hydraulic accumulator (1.2) and one downstream flow tank (1.4), an outlet pipe, an automatic hydraulic valve module comprising a core (4.1), an inlet and outlet elements (4.2, 4.3), where the inlet element (4.2) of the automatic hydraulic valve is connected to an outlet (1.4.1) of the flow tank (1.4) and where the outlet element (4.3) of the automatic hydraulic valve module feeds into the outlet pipe, wherein it comprises an inlet from a pressure water supply, characterized in that the at least one gas hydraulic accumulator (1.2) and the one downstream flow tank (1.4) are interconnected by at least one flooded connection opening (1.3).
A method for transmitting Downlink Control Information, DCI, applied to a base station, comprising: determining an Aggregation Level, AL, of to-be-transmitted DCI, based on a corresponding relationship between a DCI AL and a DCI payload size, and/or, determining the number of blind detections of the to-be-transmitted DCI based on a corresponding relationship between the number of blind detections corresponding to the DCI payload size; configuring the to-be-transmitted DCI based on the AL and/or the number of blind detections of the to-be-transmitted DCI; and, transmitting the to-be-transmitted DCI to a mobile communication terminal; wherein the method further comprises: transmitting a Control Resource Set, CORESET, to the mobile communication terminal; wherein the CORESET is pre-configured with DCI payload sizes corresponding to the CORESET, the corresponding relationship between the DCI AL and the DCI payload size, and/or the corresponding relationship between the number of blind detections corresponding to the DCI payload size, and the CORESET is used to determine a possible payload size of the to-be-transmitted DCI, and determine an AL and/or the number of blind detections corresponding to the possible payload size. determining an Aggregation Level, AL, of to-be-transmitted DCI, based on a corresponding relationship between a DCI AL and a DCI payload size, and/or, determining the number of blind detections of the to-be-transmitted DCI based on a corresponding relationship between the number of blind detections corresponding to the DCI payload size; configuring the to-be-transmitted DCI based on the AL and/or the number of blind detections of the to-be-transmitted DCI; and, transmitting the to-be-transmitted DCI to a mobile communication terminal; wherein the method further comprises: transmitting a Control Resource Set, CORESET, to the mobile communication terminal; wherein the CORESET is pre-configured with DCI payload sizes corresponding to the CORESET, the corresponding relationship between the DCI AL and the DCI payload size, and/or the corresponding relationship between the number of blind detections corresponding to the DCI payload size, and the CORESET is used to determine a possible payload size of the to-be-transmitted DCI, and determine an AL and/or the number of blind detections corresponding to the possible payload size.
A medication and medical supply dispenser system comprising a substantially planar base, a plurality of separators for being removably fixed on the base and thus for defining separated compartments thereon, said system being connectable to a further device having computing and data storage abilities; the system further comprises a set of aligned transducers, each separator is provided with a counterpart, position of which being detectable by any of said transducers; wherein the transducers are Hall Effect sensors and the counterparts are magnetic and wherein the set is configured to scan the base.
Catalytic reactor for producing a synthetic gas containing hydrogen from a rich fuel-oxidator mixture, - with a plurality of parallel channels extending from an inlet side to an outlet side, - wherein the catalytic activity of the channels is formed by a catalytically active coating on the surfaces of the channels exposed to the gas flow, characterised in that at least in a core region of a cross-section of the reactor, all channels are configured catalytically active, wherein the catalytically active first channels (5 I) in a first longitudinal section of the reactor containing the inlet side have a larger proportion of catalytically actively coated surface than the catalytically active second channels (5 II) in a second longitudinal portion of the reactor containing the outlet side and adjacent to the first longitudinal portion. - with a plurality of parallel channels extending from an inlet side to an outlet side, - wherein the catalytic activity of the channels is formed by a catalytically active coating on the surfaces of the channels exposed to the gas flow,
Measuring tape (1, 10, 40, 50, 110, 151, 171, 190) for determining the position of a lift cabin in a lift shaft, arranged vertically in the lift shaft and designed with regard to its length in such a way that it extends across at least two storeys, and wherein the measuring tape (1, 10, 40, 50, 110, 151, 171, 190) comprises a marker unit (M1, M2, M3, M4, 13, 25, 43, 53) for marking at least two positions in the lift shaft, wherein the marker unit extends along the length of the measuring tape, wherein the measuring tape comprises a support tape (11, 21) and a transmission device for transmitting information, wherein the transmission device comprises at least one communication line (5, 14, 28, 30, 41, 51, 61, 62, 63, 71, 72, 73, 81, 82, 83, 111, 122, 130, 140) for transmitting an information signal, and the at least one communication line extends or extend along the length of the measuring tape (1, 10, 40, 50, 110, 151, 171, 190), wherein the communication line is designed as an electric cable for transmitting an electric signal or as a fibreglass cable for transmitting an optical signal, characterised in that the communication line is designed for communicating from storey to storey and in that an upper and lower installation device is envisaged for suspending the measuring tape in the upper or lower area of the lift shaft, in particular on the ceiling and/or the floor of the lift shaft.
A method of providing distributed controls for a power transmission and distribution system comprising: providing at least one group (501; 901, 902) of a plurality of FACTS modules (501- 1... 501-4; 401-111... 401-133, 401-211... 401-233), each module without fault current protection circuitry; providing at least one fault current protection module (601; 601-1, 601-2), not containing a FACTS device; coupling the at least one group (501; 901, 902) of FACTS modules in series to a power transmission line of the power transmission and distribution system; and wherein the method is characterized in that it further comprises coupling the at least one fault current protection module (601; 601-1, 601-2) in series to the power transmission line of the power transmission and distribution system, so that each fault current protection module (601; 601-1, 601-2) is coupled in parallel across one of the at least one group (501; 901, 902) of FACTS modules; and wherein the FACTS modules (401-111... 401-133, 401-211... 401-233) of the at least one group (901, 902) are connected in a serial parallel connection, such that some of the FACTS modules are connected in series and some of the FACTS modules are connected in parallel. providing at least one group (501; 901, 902) of a plurality of FACTS modules (501- 1... 501-4; 401-111... 401-133, 401-211... 401-233), each module without fault current protection circuitry; providing at least one fault current protection module (601; 601-1, 601-2), not containing a FACTS device; coupling the at least one group (501; 901, 902) of FACTS modules in series to a power transmission line of the power transmission and distribution system; and wherein the method is characterized in that it further comprises coupling the at least one fault current protection module (601; 601-1, 601-2) in series to the power transmission line of the power transmission and distribution system, so that each fault current protection module (601; 601-1, 601-2) is coupled in parallel across one of the at least one group (501; 901, 902) of FACTS modules; and wherein the FACTS modules (401-111... 401-133, 401-211... 401-233) of the at least one group (901, 902) are connected in a serial parallel connection, such that some of the FACTS modules are connected in series and some of the FACTS modules are connected in parallel.
A method of evaluating genomic DNA, the method comprising: providing a plurality of DNA samples, wherein at least one sample of the plurality of samples is a reference sample, with a known number of copies for each interrogated genomic locus, and at least one sample is a genomic DNA sample; providing a particle mixture, the mixture comprising particles from different particle sets, wherein each particle set contains numerous encoded particles, wherein each particle within a particle set comprises i) the same code, and ii) a nucleic acid hybridization probe for a particular genomic locus, wherein each different particle set is specific for a different genomic locus, such that the mixture collectively includes probes for a plurality of different genomic loci and wherein the nucleic acid hybridisation probe of each particle comprises BAC nucleic acid, wherein the hybridization probe of each particle is produced by sonicating or fragmenting the BAC DNA; labelling the reference sample with a first indirect label and labelling the genomic DNA sample and other samples of the plurality of samples with a second indirect label; contacting each of the labelled samples to a portion of the particle mixture under hybridization conditions; and evaluating hybridization of each of the samples to particles in the respective portion of the mixture by monitoring the first indirect label or the second indirect label, or both, wherein signals from monitoring the reference sample are compared to signals from other samples to determine the number of copies of each interrogated genomic locus for the samples. providing a plurality of DNA samples, wherein at least one sample of the plurality of samples is a reference sample, with a known number of copies for each interrogated genomic locus, and at least one sample is a genomic DNA sample; providing a particle mixture, the mixture comprising particles from different particle sets, wherein each particle set contains numerous encoded particles, wherein each particle within a particle set comprises i) the same code, and ii) a nucleic acid hybridization probe for a particular genomic locus, wherein each different particle set is specific for a different genomic locus, such that the mixture collectively includes probes for a plurality of different genomic loci and wherein the nucleic acid hybridisation probe of each particle comprises BAC nucleic acid, wherein the hybridization probe of each particle is produced by sonicating or fragmenting the BAC DNA; labelling the reference sample with a first indirect label and labelling the genomic DNA sample and other samples of the plurality of samples with a second indirect label; contacting each of the labelled samples to a portion of the particle mixture under hybridization conditions; and evaluating hybridization of each of the samples to particles in the respective portion of the mixture by monitoring the first indirect label or the second indirect label, or both, wherein signals from monitoring the reference sample are compared to signals from other samples to determine the number of copies of each interrogated genomic locus for the samples.