mhurhangee/ep-ind-claims huggingface dataset:
A memory comprising: a segmented bit line and/or a segmented word line for data access to said memory, wherein said bit line and/or word line is broken into segments using latch repeaters (30-A, 30-B, 30-C); wherein each latch repeater (30-A, 30-B, 30-C) comprises a latch and a switch controlled by a respective control signal (control A, control B, control C) to: close to enable a data value to flow from a first segment to a second segment, hold the data value in the latch and maintain the data value at the second segment; or open; characterized in that said switch of said latch repeater (30-A, 30-B, 30-C) is controlled based on certain bits of a memory address. a segmented bit line and/or a segmented word line for data access to said memory, wherein said bit line and/or word line is broken into segments using latch repeaters (30-A, 30-B, 30-C); wherein each latch repeater (30-A, 30-B, 30-C) comprises a latch and a switch controlled by a respective control signal (control A, control B, control C) to: close to enable a data value to flow from a first segment to a second segment, hold the data value in the latch and maintain the data value at the second segment; or open; characterized in that said switch of said latch repeater (30-A, 30-B, 30-C) is controlled based on certain bits of a memory address.
A liquid dispensing apparatus for an automated analyzer, comprising: a nozzle for sucking a solution in a cassette and dispensing the sucked solution into another cassette; measurement means for measuring an electrical physical quantity between the nozzle side and the other cassette side, wherein the measurement means are adapted to measure the electrical physical quantity while the nozzle is lowered into the cassette for sucking the solution, in order to detect the contact of the nozzle with the liquid surface, characterized in that the measurement means are further adapted to measure the electrical physical quantity between the nozzle side and the other cassette side throughout the dispensing operation of the sucked solution into the other cassette between a moment before the start of the dispensing operation and a moment immediately after it; and the liquid dispensing apparatus further comprises failure judgement means for judging whether or not there is a dispensing operation failure from a change of the electrical physical quantity measured throughout the dispensing operation. a nozzle for sucking a solution in a cassette and dispensing the sucked solution into another cassette; measurement means for measuring an electrical physical quantity between the nozzle side and the other cassette side, wherein the measurement means are adapted to measure the electrical physical quantity while the nozzle is lowered into the cassette for sucking the solution, in order to detect the contact of the nozzle with the liquid surface, characterized in that the measurement means are further adapted to measure the electrical physical quantity between the nozzle side and the other cassette side throughout the dispensing operation of the sucked solution into the other cassette between a moment before the start of the dispensing operation and a moment immediately after it; and the liquid dispensing apparatus further comprises failure judgement means for judging whether or not there is a dispensing operation failure from a change of the electrical physical quantity measured throughout the dispensing operation.
A method for wireless communication at a first wireless device, comprising: transmitting or receiving, to or from a second wireless device, signaling that indicates a carrier aggregation configuration comprising a first carrier of a first cell having a first cell identity and a second carrier of a second cell having a second cell identity, wherein a numerology or slot duration of the first carrier is different from a numerology or slot duration of the second carrier, the signaling comprising an indication of a cell identity with a higher priority; identifying (2710, 2810) a symbol period designated for communication in a first link direction on resources of the first carrier and designated for communication in a second link direction on resources of the second carrier; and prioritizing communicating (2715, 2815) on resources of the first carrier or the second carrier during the symbol period based at least in part on a capability and on the cell identities of the first or second carrier and based on the cell identity with the higher priority. identifying (2710, 2810) a symbol period designated for communication in a first link direction on resources of the first carrier and designated for communication in a second link direction on resources of the second carrier; and prioritizing communicating (2715, 2815) on resources of the first carrier or the second carrier during the symbol period based at least in part on a capability and on the cell identities of the first or second carrier and based on the cell identity with the higher priority.
A selective laser melting additive manufacturing apparatus comprising a build chamber, a build platform lowerable in the build chamber such that layers of powder can be successively formed across the build platform, a laser for generating a laser beam, a scanning unit for directing the laser beam onto each layer to selectively solidify the powder and a processor for controlling the scanning unit, the processor arranged to control the scanning unit to direct the laser beam to solidify a selected area of a layer of powder by:- irradiating sections of the selected area with the laser beam such that each irradiated section is allowed to solidify before an adjacent section is irradiated with the or another laser beam, and solidifying the sections non-continuously and in an order such that consecutively solidified sections (201a;201b, 210;211) are spaced apart, wherein each section (201, 210, 211, 301, 401) is sub-millimetre sized such that irradiation of the section with the laser beam results in a melt pool extending across the entire section (201, 210, 211, 301, 401) and the powder is a metal.
A method of receiving, by a user equipment, UE, a Physical Downlink Shared Channel, PDSCH, in a wireless communication system, the method comprising: transmitting, to a base station, BS, capability information including first information indicating whether to support an operation related to a PDSCH repetition and, second information indicating whether to support a configuration of the number of symbols of a control region by a higher layer signaling; receiving, from the BS, information for enabling the operation related to the PDSCH repetition; receiving, from the BS, configuration information of the number of symbols of the control region via a higher layer signaling; receiving, from the BS, Downlink Control Information, DCI, related to the PDSCH repetition in the control region; and repeatedly receiving, from the BS, the PDSCH based on the DCI. transmitting, to a base station, BS, capability information including first information indicating whether to support an operation related to a PDSCH repetition and, second information indicating whether to support a configuration of the number of symbols of a control region by a higher layer signaling; receiving, from the BS, information for enabling the operation related to the PDSCH repetition; receiving, from the BS, configuration information of the number of symbols of the control region via a higher layer signaling; receiving, from the BS, Downlink Control Information, DCI, related to the PDSCH repetition in the control region; and repeatedly receiving, from the BS, the PDSCH based on the DCI.
A bioreactor adapted for rotation, the bioreactor comprising: - an incubation chamber, the incubation chamber providing, in conjunction with a first semipermeable membrane, a substantially closed confinement, - a reservoir comprising an aqueous liquid, the reservoir comprising a second semipermeable membrane arranged in fluid contact with the aqueous liquid, said membrane further being selected to promote evaporation of the aqueous liquid into a conduction means, and - conduction means providing a substantially enclosed conduit from the first semipermeable membrane to the second semipermeable membrane, said conduction means provided with ventilation means for enhancing gas exchange with the atmosphere surrounding the bioreactor, wherein said first semipermeable membrane is permeable to oxygen and carbon dioxide so as to facilitate aeration of the incubation chamber and the second semipermeable membrane is selected to promote evaporation of the aqueous liquid from the reservoir into a conduction means. - an incubation chamber, the incubation chamber providing, in conjunction with a first semipermeable membrane, a substantially closed confinement, - a reservoir comprising an aqueous liquid, the reservoir comprising a second semipermeable membrane arranged in fluid contact with the aqueous liquid, said membrane further being selected to promote evaporation of the aqueous liquid into a conduction means, and - conduction means providing a substantially enclosed conduit from the first semipermeable membrane to the second semipermeable membrane, said conduction means provided with ventilation means for enhancing gas exchange with the atmosphere surrounding the bioreactor,
Method for determining the position (P1, P2) of operating resources (A, F1...F4, R, P, Z) of an industrial automation arrangement, in particular a process engineering installation, the operating resources (A, F1...F4, R, P, Z) being recorded as data objects in a database, in particular a planning tool, and the coordinates of the operating resources (A, F1...F4, R, P, Z) each being assigned to the corresponding objects in the database and being stored, characterized in that, in a first step, the operating resources (A, F1...F4, R, P, Z) are provided with machine-readable optical marks (M, M_A, M_F4, M_Z), the optical marks (M, M_A, M_F4, M_Z) each having an identification feature for the respective operating resource (A, F1...F4, R, P, Z), in that, in a second step, a 3-D laser scanner is respectively used to capture a multiplicity of measuring points with distance values of the 3-D laser scanner with respect to reflective surfaces at at least two different positions (P1, P2) of the automation arrangement, a relative position value of the reflective surface with respect to the respective position (P1, P2) of the laser scanner and a reflection value for the captured point of the surface being captured for each measuring point, and an absolute position value of the captured point of the surface being calculated from the respective position (P1, P2) of the 3-D laser scanner and the relative position value and being stored together with the respectively captured reflection value as a measuring point, in that, in a third step, an overall image is produced from the measuring points stored at the at least two positions (P1, P2) of the automation arrangement, in that, in a fourth step, the optical marks (M, M_A, M_F4, M_Z) are searched for in the overall image and are then evaluated, the identification features each being extracted from the optical marks (M, M_A, M_F4, M_Z) found and each being linked to an absolute position value of the optical marks (M, M_A, M_F4, M_Z), and in that, in a fifth step, the absolute position values are assigned to the data objects of the respective operating resources (A, F1...F4, R, P, Z) using the linked identification features.
Photovoltaic installation which is suitable for being integrated into the building and comprises at least one photovoltaic cell made of silicon, the photovoltaic installation being such that it comprises a transparent or translucent layered element comprising at least one lower outer layer which is intended to be oriented toward the interior of the building, and an upper outer layer which is intended to be oriented toward the outside of the building, the outer layers (2, 4) each forming an outer main surface (2A, 4A) of the layered element and consisting of dielectric materials, the layered element further comprising a laminar assembly which is inserted between the outer layers (2, 4) and is formed from at least one intermediate layer, the intermediate layer being either a single layer which is a dielectric layer having a refractive index which is different from that of the outer layers or a metal layer, or a stack of layers (31, 32,..., 3k) which comprises at least one dielectric layer having a refractive index which is different from that of the outer layers or a metal layer, each contact surface (S0, S1,..., Sk) between two adjacent layers of the layered element, of which one is dielectric and the other is metal or which are two dielectric layers having different refractive indexes, being textured and preferably parallel to the other contact surfaces (S0, S1,..., Sk), the photovoltaic cell either being arranged below or being integrated into the lower outer layer, characterized in that the lower outer layer has a refractive index which is between the refractive index of the upper outer layer and the refractive index of the photovoltaic cell, the index of the photovoltaic cell being that of silicon, and satisfies the formula: n2 ≥ n4 + (n7 - n4)/3
Method for producing an electrical component, comprising: - providing a carrier element, - providing a material having a temperature-dependent resistance, as a non-sintered, calcined metal oxide comprising one out of nickel oxide, manganese oxide, copper oxide and zinc oxide or combinations thereof, - applying the material on a surface of the carrier element for producing a resistance layer on the carrier element, - subsequently sintering the resistance layer for linking the resistance layer to the carrier element. - providing a carrier element, - providing a material having a temperature-dependent resistance, as a non-sintered, calcined metal oxide comprising one out of nickel oxide, manganese oxide, copper oxide and zinc oxide or combinations thereof, - applying the material on a surface of the carrier element for producing a resistance layer on the carrier element, - subsequently sintering the resistance layer for linking the resistance layer to the carrier element.
A compound represented by the following formula or a pharmaceutically-acceptable salt or tautomer thereof: wherein: o is 0, 1, 2 or 3; X is O, S or NR N; ZisO; B is C 1-6 alkyl, C 1-6 haloalkyl or C 1-6 alkenyl; each R, R 1 and R 3 is independently H or C 1-6 alkyl; each R A is independently H, C 1-12 alkyl, C 1-12 alkenyl, C 1-12 alkynyl, halo, C 1-12 halohydrocarbyl, C 1-12 hydroxyalkyl, C 3-12 cyclic hydrocarbyl, or heteroaryl; and R N is H or C 1-6 alkyl. o is 0, 1, 2 or 3; X is O, S or NR N; ZisO; B is C 1-6 alkyl, C 1-6 haloalkyl or C 1-6 alkenyl; each R, R 1 and R 3 is independently H or C 1-6 alkyl; each R A is independently H, C 1-12 alkyl, C 1-12 alkenyl, C 1-12 alkynyl, halo, C 1-12 halohydrocarbyl, C 1-12 hydroxyalkyl, C 3-12 cyclic hydrocarbyl, or heteroaryl; and R N is H or C 1-6 alkyl.
Device for fashioning a loop on a cable, comprising: - means for guiding the cable, comprising a channel that extends along a channel axis (X-X'), said channel comprising a front part and a rear part, - a winding cam comprising a winding axis (Y-Y') orthogonal to said channel axis, said cam being disposed above the front part of said channel, between raised parts of sides of said channel, so that the cable can extend in the channel and below the winding cam, - two parallel linkages (43a, 43b) mounted so as to be able to rotate freely about the winding axis (Y-Y') by a first of their ends, their second ends, distant from said winding axis, being joined by a strut, - a cable passage, formed by said cam, said linkages (43a, 43b) and said strut, able to rotate about said winding axis (Y-Y') of the winding cam, between a first position in which the passage is substantially aligned with the axis (X-X') of the channel and in which the cable can be inserted in said passage, and a second position in which the passage is folded towards the rear of said channel, - means for folding said cable passage from said first position to said second position so that said loop is formed on said cable, around said winding cam. - means for guiding the cable, comprising a channel that extends along a channel axis (X-X'), said channel comprising a front part and a rear part, - a winding cam comprising a winding axis (Y-Y') orthogonal to said channel axis, said cam being disposed above the front part of said channel, between raised parts of sides of said channel, so that the cable can extend in the channel and below the winding cam, - two parallel linkages (43a, 43b) mounted so as to be able to rotate freely about the winding axis (Y-Y') by a first of their ends, their second ends, distant from said winding axis, being joined by a strut, - a cable passage, formed by said cam, said linkages (43a, 43b) and said strut, able to rotate about said winding axis (Y-Y') of the winding cam, between a first position in which the passage is substantially aligned with the axis (X-X') of the channel and in which the cable can be inserted in said passage, and a second position in which the passage is folded towards the rear of said channel, - means for folding said cable passage from said first position to said second position so that said loop is formed on said cable, around said winding cam.
An apparatus for ensuring fairness of user datagram protocol, UDP, data transmission between a transmission apparatus and a reception apparatus constituting an Ethernet environment, the apparatus comprising: a transmission control protocol transmission rate calculator configured to calculate a current TCP transmission rate on the basis of an amount of a TCP data stream transmitted in real time from the transmission apparatus and received by the reception apparatus; a UDP transmission rate calculator configured to calculate a UDP transmission rate on the basis of an amount of UDP data transmitted with the TCP data stream from the transmission apparatus and received by the reception apparatus; and a fairness determiner configured to transmit a control signal to a UDP transmission rate control means included in the transmission apparatus when the current TCP transmission rate is less than a predetermined optimum transmission rate and a difference between the current TCP transmission rate and the predetermined optimum transmission rate is a predetermined threshold value or more and the UDP transmission rate is increasing, wherein the TCP transmission rate calculator calculates the optimum transmission rate on the basis of a received amount of a TCP data stream transmitted to the reception apparatus before UDP data transmission of the transmission apparatus is started. a transmission control protocol transmission rate calculator configured to calculate a current TCP transmission rate on the basis of an amount of a TCP data stream transmitted in real time from the transmission apparatus and received by the reception apparatus; a UDP transmission rate calculator configured to calculate a UDP transmission rate on the basis of an amount of UDP data transmitted with the TCP data stream from the transmission apparatus and received by the reception apparatus; and a fairness determiner configured to transmit a control signal to a UDP transmission rate control means included in the transmission apparatus when the current TCP transmission rate is less than a predetermined optimum transmission rate and a difference between the current TCP transmission rate and the predetermined optimum transmission rate is a predetermined threshold value or more and the UDP transmission rate is increasing, wherein the TCP transmission rate calculator calculates the optimum transmission rate on the basis of a received amount of a TCP data stream transmitted to the reception apparatus before UDP data transmission of the transmission apparatus is started.
A surgical device comprising: (a) a proximal grip portion configured to be grasped outside a patient; (b) a distal hollow sharp needle portion configured to be manipulated using the grip portion and inserted submucosally into mucosal turbinate tissue in the patient; (c) one or more biodegradable, drug-eluting solid implants (232a, 232b, 402, 410, 420, 430, 440, 450, 460, 460, 470, 480, 490) disposed within the hollow needle portion, the implants having a length along the hollow needle portion, and one or more implant withdrawal-discouraging, mucosal tissue-engaging surface features along such length; and (d) an actuator disposed within the device and configured to deliver one or more of the implants from the hollow needle portion into such mucosal turbinate tissue and submucosally bury at least one such tissue-engaging feature therein. (a) a proximal grip portion configured to be grasped outside a patient; (b) a distal hollow sharp needle portion configured to be manipulated using the grip portion and inserted submucosally into mucosal turbinate tissue in the patient; (c) one or more biodegradable, drug-eluting solid implants (232a, 232b, 402, 410, 420, 430, 440, 450, 460, 460, 470, 480, 490) disposed within the hollow needle portion, the implants having a length along the hollow needle portion, and one or more implant withdrawal-discouraging, mucosal tissue-engaging surface features along such length; and (d) an actuator disposed within the device and configured to deliver one or more of the implants from the hollow needle portion into such mucosal turbinate tissue and submucosally bury at least one such tissue-engaging feature therein.
A photoionization detector comprising: an ultraviolet radiation source; a plurality of detector electrodes (204, 205); and a shielding material located between the ultraviolet radiation source and the plurality of detector electrodes (204, 205), wherein the ultraviolet radiation does not directly impinge on any part of the plurality of detector electrodes (204, 205); wherein the shielding material comprises an opening configured to allow a target gas to pass between the plurality of detector electrodes (204, 205), the photoionization detector being characterized in that the shielding material is configured to cover all surfaces of the plurality of detector electrodes (204, 205), except for the top surface of each of the plurality of detector electrodes (204, 205), with at least a portion of the shielding material located between the opening and side surfaces of the plurality of detector electrodes (204, 205). an ultraviolet radiation source; a plurality of detector electrodes (204, 205); and a shielding material located between the ultraviolet radiation source and the plurality of detector electrodes (204, 205), wherein the ultraviolet radiation does not directly impinge on any part of the plurality of detector electrodes (204, 205); wherein the shielding material comprises an opening configured to allow a target gas to pass between the plurality of detector electrodes (204, 205), the photoionization detector being characterized in that the shielding material is configured to cover all surfaces of the plurality of detector electrodes (204, 205), except for the top surface of each of the plurality of detector electrodes (204, 205), with at least a portion of the shielding material located between the opening and side surfaces of the plurality of detector electrodes (204, 205).