mhurhangee/patent-ind-claim-en huggingface dataset:
A hydrocyclone separator for classifying solid material in liquid suspension, comprising: a head portion having an inlet conduit adapted to feed a suspension into the head portion; an overflow discharge tube arranged in the head portion ; an apex discharge port ; a tapered separation portion arranged between the head portion and the apex discharge port, the tapered separation portion having a proximal end and a distal end , and wherein said tapered separation portion tapers towards said distal end; characterized in that the hydrocyclone separator further comprises a flow support portion provided at the tapered separation portion or between the tapered separation portion and the apex discharge port, said flow support portion comprising at least one flow support inlet configured to inject a fluid along at least a portion of an inner surface of the flow support portion in a direction at least partly towards the apex discharge port ; wherein said hydrocyclone separator is configured to be oriented such that said apex discharge port is at a vertically elevated position relative to the overflow discharge tube. a head portion having an inlet conduit adapted to feed a suspension into the head portion; an overflow discharge tube arranged in the head portion ; an apex discharge port ; a tapered separation portion arranged between the head portion and the apex discharge port, the tapered separation portion having a proximal end and a distal end , and wherein said tapered separation portion tapers towards said distal end; characterized in that the hydrocyclone separator further comprises a flow support portion provided at the tapered separation portion or between the tapered separation portion and the apex discharge port, said flow support portion comprising at least one flow support inlet configured to inject a fluid along at least a portion of an inner surface of the flow support portion in a direction at least partly towards the apex discharge port ; wherein said hydrocyclone separator is configured to be oriented such that said apex discharge port is at a vertically elevated position relative to the overflow discharge tube.
A combination of a building and equipment for ventilation of a building, the building comprising at least one room separated by a wall from a corridor or at least two rooms separated by a wall, the equipment for ventilation comprising at least one heat exchange unit , configured to exchange energy between intake air into the building and exhaust air from the building, which equipment is configured to be controlled electronically and centrally, the equipment for ventilation further comprising at least one indoor unit , characterized in that said at least one indoor unit is configured to be arranged in said wall separating a room from a corridor or at least two rooms and comprising a first flow channel with a blower and an adjacent second flow channel with a blower , which two blowers can be controlled separately, which first and second flow channel is separated from each other by a partition , said indoor unit being configured for blowing air simultaneously through said flow channels in opposite directions by said blowers .
Device for the optical recognition of objects , in particular empties , in an empties return system , comprising an optical sensor ; comprising a light source ; comprising a reflector configured and arranged in such a way that it reflects light beams, emitted by the light source , onto the optical sensor on a predetermined beam path ; and comprising at least one directionally selective filter , which is arranged on the predetermined beam path of the light beams emitted by the light source and reflected by the reflector , characterised in that the directionally selective filter has a curvature at least in portions. comprising a light source ; comprising a reflector configured and arranged in such a way that it reflects light beams, emitted by the light source , onto the optical sensor on a predetermined beam path ; and comprising at least one directionally selective filter , which is arranged on the predetermined beam path of the light beams emitted by the light source and reflected by the reflector , characterised in that the directionally selective filter has a curvature at least in portions.
A pharmaceutical composition comprising a plurality of active agents in a therapeutically effective amount and one or more pharmaceutical excipients, characterized in that a. at least one active agent inhibits VEGF's and/or VEGFR1-3 signaling, wherein the at least one VEGF's and/or VEGFR1-3 inhibitor is cabozantinib, b. at least one active agent inhibits SDF1alpha and/or CXCR4 signaling, wherein the at least one SDF1alpha and/or CXCR4 inhibitor is plerixafor, c. at least one active agent inhibits EGF and/or EGFR1-3 signaling, wherein the at least one EGF and/or EGFR1-3 inhibitor is afatinib, d. at least one active agent inhibits COX2 and/or PGE2 and/or EP signaling, wherein the at least one COX2 and/or PGE2 inhibitor is etoricoxib and e. at least one active agent inhibits HGF and/or HGFR (MET) signaling, wherein the at least one HGF and/or HGFR (MET) inhibitor is cabozantinib. a. at least one active agent inhibits VEGF's and/or VEGFR1-3 signaling, wherein the at least one VEGF's and/or VEGFR1-3 inhibitor is cabozantinib, b. at least one active agent inhibits SDF1alpha and/or CXCR4 signaling, wherein the at least one SDF1alpha and/or CXCR4 inhibitor is plerixafor, c. at least one active agent inhibits EGF and/or EGFR1-3 signaling, wherein the at least one EGF and/or EGFR1-3 inhibitor is afatinib, d. at least one active agent inhibits COX2 and/or PGE2 and/or EP signaling, wherein the at least one COX2 and/or PGE2 inhibitor is etoricoxib and e. at least one active agent inhibits HGF and/or HGFR (MET) signaling, wherein the at least one HGF and/or HGFR (MET) inhibitor is cabozantinib.
A development cartridge attachable/detachable to/from a main body of an image forming apparatus, the development cartridge comprising: a photosensitive drum configured to form an electrostatic latent image thereon; a developer roller configured to develop the electrostatic latent image by supplying a developer to the photosensitive drum ; a housing configured to support the photosensitive drum and the developer roller ; a developer roller gear provided on a rotation shaft of the developer roller and connected to a driving gear of the main body when the development cartridge is attached to the main body ; and a driven coupler provided at an end of the photosensitive drum and, when the development cartridge is attached to the main body , connected to a driving coupler of a driver provided in the main body and located coaxially with the driving gear of the main body , based on a shaft connection method, wherein the shaft connection method refers to a method of directly connecting a shaft to a shaft, and characterized in that the photosensitive drum and the developer roller are individually connected to the driver provided in the main body when the development cartridge is attached to the main body , and there is no gear-based interconnection between the photosensitive drum and the developer roller in the development cartridge . a photosensitive drum configured to form an electrostatic latent image thereon; a developer roller configured to develop the electrostatic latent image by supplying a developer to the photosensitive drum ; a housing configured to support the photosensitive drum and the developer roller ; a developer roller gear provided on a rotation shaft of the developer roller and connected to a driving gear of the main body when the development cartridge is attached to the main body ; and a driven coupler provided at an end of the photosensitive drum and, when the development cartridge is attached to the main body , connected to a driving coupler of a driver provided in the main body and located coaxially with the driving gear of the main body , based on a shaft connection method, wherein the shaft connection method refers to a method of directly connecting a shaft to a shaft, and characterized in that the photosensitive drum and the developer roller are individually connected to the driver provided in the main body when the development cartridge is attached to the main body , and there is no gear-based interconnection between the photosensitive drum and the developer roller in the development cartridge .
A wireless communication device (200A#1) operating as a first station, comprising a communication unit configured to: receive a first signal (S302) including first information from a first wireless communication device (100# 1) operating as an access point, wherein the first information includes a first physical layer identifier identifying a first network; receive a second signal (S303) including a second information from a second wireless communication device (200#2) operating as a second station, wherein the second information includes a second physical layer identifier identifying a second network different from the first network; determine (S308) whether the first physical layer identifier and the second physical layer identifier overlap; and in response to detecting the first physical layer identifier and the second physical layer identifier overlap, transmit a frame (S309) to the first wireless communication device including information indicating the overlap. receive a first signal (S302) including first information from a first wireless communication device (100# 1) operating as an access point, wherein the first information includes a first physical layer identifier identifying a first network; receive a second signal (S303) including a second information from a second wireless communication device (200#2) operating as a second station, wherein the second information includes a second physical layer identifier identifying a second network different from the first network; determine (S308) whether the first physical layer identifier and the second physical layer identifier overlap; and in response to detecting the first physical layer identifier and the second physical layer identifier overlap, transmit a frame (S309) to the first wireless communication device including information indicating the overlap.
A diffuser plate where a plurality of microlenses are placed on a principal surface (S1), wherein shapes of the plurality of microlenses along a cross-section perpendicular to the principal surface (S1) are different from one another and do not have an axis of symmetry, wherein a surface shape of each of the plurality of microlenses along the cross-section consists only of curves, and wherein a shape of the plurality of microlenses is a composite shape of one reference microlens repetitively placed on the principal surface (S1) and a phase modulation shape having a curve continuously varying with respect to the principal surface (S1).
A radiation-curable aqueous coating composition comprising a polyurethane A comprising as building blocks at least: (a) a polyisocyanate(s) containing at least two cyclic groups, (b) a non-cyclic aliphatic diisocyanate(s) whereby the non-cyclic aliphatic group connecting the two isocyanate groups has from 4 to 36 carbon atoms, and (c) a component(s) containing an isocyanate-reactive group(s), whereby the summed amount of (a) and (b) is 10 to 60 wt.%, relative to the total weight amount of components used to prepare the polyurethane A; and whereby the weight ratio between (a) and (b) is in the range from 75:25 to 95:5; and the composition optionally further comprises radiation-curable diluent; whereby the ethylenically unsaturated bond concentration of the coating composition is in the range from 0.5 to 6 milliequivalents per g of polyurethane A and radiation-curable diluent. (a) a polyisocyanate(s) containing at least two cyclic groups, (b) a non-cyclic aliphatic diisocyanate(s) whereby the non-cyclic aliphatic group connecting the two isocyanate groups has from 4 to 36 carbon atoms, and (c) a component(s) containing an isocyanate-reactive group(s),
LED module (M, M') comprising: - a carrier, - a first group (G1, G1') and a second group (G2, G2') of LED chips, arranged on the carrier, optionally one or more further groups of LED chips, and - a layer (T, T') which uniformly covers all of the LED chips and contains at least one color conversion substance that converts the spectrum of the LEDs of one or all of the groups into a spectrum having a different dominant wavelength, wherein: - each group (G1, G2, G1', G2') comprises at least one, preferably a plurality of LED chips, - the LED chips of a group (G1, G2, G1', G2') are preferably connected in series and can be supplied from the same electrical supply, and - the LED chips of different groups (G1, G2, G1', G2') can be supplied independently of one another from different electrical supplies; wherein - the radiation emitted by the LED chips of the second group (G2, G2') is not converted by the at least one color conversion substance in the covering layer (T, T'), characterized in that - the covering layer is uniform, and - the covering layer (T, T') is applied over/on the LED chips in a dam and fill process, wherein, in the dam and fill process, a barrier (B, B') is formed around the LED chips which prevents the covering layer (T, T') from flowing away beyond the barrier (B, B'). - a carrier, - a first group (G1, G1') and a second group (G2, G2') of LED chips, arranged on the carrier, optionally one or more further groups of LED chips, and - a layer (T, T') which uniformly covers all of the LED chips and contains at least one color conversion substance that converts the spectrum of the LEDs of one or all of the groups into a spectrum having a different dominant wavelength, wherein: - each group (G1, G2, G1', G2') comprises at least one, preferably a plurality of LED chips, - the LED chips of a group (G1, G2, G1', G2') are preferably connected in series and can be supplied from the same electrical supply, and - the LED chips of different groups (G1, G2, G1', G2') can be supplied independently of one another from different electrical supplies; wherein - the radiation emitted by the LED chips of the second group (G2, G2') is not converted by the at least one color conversion substance in the covering layer (T, T'), characterized in that - the covering layer is uniform, and - the covering layer (T, T') is applied over/on the LED chips in a dam and fill process, wherein, in the dam and fill process, a barrier (B, B') is formed around the LED chips which prevents the covering layer (T, T') from flowing away beyond the barrier (B, B').
A roll for use in a manufacture of a fibrous web comprising cellulosic fibres, the roll comprising - a roll body with a cylindrical surface, and - a roll cover , which is arranged to cover the cylindrical surface of the roll body , the cover comprising a functional layer , which comprises a polymer matrix and filler particles embedded in the polymer matrix, wherein the filler particles comprise hollow spherical particles of aluminium oxide, titanium oxide, zirconium oxide and/or silicon carbide, which hollow particles have a particle size of ≤ 200 μm. - a roll body with a cylindrical surface, and - a roll cover , which is arranged to cover the cylindrical surface of the roll body , the cover comprising a functional layer , which comprises a polymer matrix and filler particles embedded in the polymer matrix,
A herpes simplex virus (HSV) viral expression vector comprising at least: a) one promoter active selectively in afferent neurons of the bladder selected from a promoter of the TRP gene family and a promoter of CGRP, b) one transcription cassette comprising a nucleotide sequence operably linked to said promoter, wherein said nucleotide sequence silences or inhibits the transduction of the neurotransmitter signal in postsynaptic cell when transcribed, and c) one long-term expression sequence, wherein said long-term expression sequence is an LTE and a DNA insulator from the HSV-1 genome and wherein said transcription cassette is placed between the LTE and the DNA insulator. a) one promoter active selectively in afferent neurons of the bladder selected from a promoter of the TRP gene family and a promoter of CGRP, b) one transcription cassette comprising a nucleotide sequence operably linked to said promoter, wherein said nucleotide sequence silences or inhibits the transduction of the neurotransmitter signal in postsynaptic cell when transcribed, and c) one long-term expression sequence, wherein said long-term expression sequence is an LTE and a DNA insulator from the HSV-1 genome and wherein said transcription cassette is placed between the LTE and the DNA insulator.
An object processing system including a conveyor belt running around at least two rollers and having a conveying direction , a stationary processing unit adapted to process an object disposed on the conveyor belt , and a control unit adapted and configured to control the movement of the conveyor belt to position the object at the processing unit and to trigger action of the processing unit , wherein the conveyor belt is provided in its conveying direction with a linear encoder scale for position determining purposes and the system furthermore includes a position encoder comprising a first encoder head and a second encoder head arranged at a distance ( d enc ) from each other along the conveying direction to observe the encoder scale on the conveyor belt , as well as an encoder signal processing unit connected to the first and second encoder heads and to the control unit , the encoder signal processing unit being adapted and configured , i.e. programmed, to receive first and second encoder signals, i.e. pulses, from the first and second encoder heads , respectively, and to generate a belt position signal , i.e. encoder output, derived from the first and second encoder signals, which belt position signal serves as an input signal for the control unit , characterized in that the conveyor belt is a steel belt in which the encoder scale is provided on an upper surface of the belt , wherein the encoder scale comprises alternating marker sections and voids with a pitch (p), wherein the marker sections are composed of markers engraved in the belt surface at regular intervals, and wherein the distance ( d enc ) between the first and second encoder is d enc ≠ N·p, N being an integer.
A communication method performed by a reception node in a network, the method comprising: receiving at least one first packet transmitted from a transmission node ; receiving a first feedback message related to packet reception of the at least one first packet from another node in the network, the first feedback message comprising information on a number of packets required by the other node to decode the at least one first packet; comparing the number of packets required by the other node with a number of packets required by the reception node, wherein the number of packets required by the reception node is a minimum number of packets additionally required to decode the received at least one first packet; transmitting to the transmission node, a second feedback message comprising information on the number of packets required by the reception node in response to the number of packets required by the reception node being greater than the number of packets required by the other node, wherein the second feedback message includes a packet error rate; and in response to the transmitting of the second feedback message, receiving from the transmission node additional packets in addition to the number of packets required by the reception node based on the packet error rate. receiving at least one first packet transmitted from a transmission node ; receiving a first feedback message related to packet reception of the at least one first packet from another node in the network, the first feedback message comprising information on a number of packets required by the other node to decode the at least one first packet; comparing the number of packets required by the other node with a number of packets required by the reception node, wherein the number of packets required by the reception node is a minimum number of packets additionally required to decode the received at least one first packet; transmitting to the transmission node, a second feedback message comprising information on the number of packets required by the reception node in response to the number of packets required by the reception node being greater than the number of packets required by the other node, wherein the second feedback message includes a packet error rate; and in response to the transmitting of the second feedback message, receiving from the transmission node additional packets in addition to the number of packets required by the reception node based on the packet error rate.
A sanitary fitting , at least having: - a fitting housing with a mixer valve for mixing cold water and hot water to produce mixed water, - at least one actuator , with which the mixer valve is actuatable, - a magnet , which is movable by the at least one actuator upon actuation of the mixer valve , - a magnetic sensor for detecting an operational position of the at least one actuator by means of a magnetic field of the magnet , wherein a sensor signal can be generated with the magnetic sensor , characterized by - a radio module for transmitting the sensor signal to an external receiver and - a control integrated in the sanitary fitting or an external evaluator, which is connected to the external receiver such that data are transmitted, wherein the control or the external evaluator is designed to determine a volume of cold water, hot water or mixed water tapped with the sanitary fitting . - a fitting housing with a mixer valve for mixing cold water and hot water to produce mixed water, - at least one actuator , with which the mixer valve is actuatable, - a magnet , which is movable by the at least one actuator upon actuation of the mixer valve , - a magnetic sensor for detecting an operational position of the at least one actuator by means of a magnetic field of the magnet , wherein a sensor signal can be generated with the magnetic sensor , characterized by - a radio module for transmitting the sensor signal to an external receiver and - a control integrated in the sanitary fitting or an external evaluator, which is connected to the external receiver such that data are transmitted, wherein the control or the external evaluator is designed to determine a volume of cold water, hot water or mixed water tapped with the sanitary fitting .