mhurhangee/ep-ind-claims huggingface dataset:
An inkjet recording device having a nozzle configured to apply print onto a printing medium by discharging ink, the nozzle mounted on a print head that houses therein a deflection electrode (9, 10, 250) for deflecting the discharged ink by means of an electrostatic force, the device characterized by comprising: an ink suction unit (252, 300) that sucks in floating ink by means of the electrostatic force, wherein the ink suction unit (252, 300) is provided inside the print head. an ink suction unit (252, 300) that sucks in floating ink by means of the electrostatic force, wherein the ink suction unit (252, 300) is provided inside the print head.
A solar cell comprising: a I-VII compound photovoltaic layer comprising a transparent electrode layer operating as n-type of pn-junction and a I-VII compound layer formed under the transparent electrode layer and operating as p-type of the pn-junction; a silicon photovoltaic layer including a first type silicon layer and a second type silicon layer, the first type silicon layer having first type dopants, the second type silicon layer having second type dopants of which polarity is opposite to a polarity of the first type dopants, the first type silicon layer being disposed under the I-VII compound photovoltaic layer, and the second type silicon layer being disposed under the first type silicon layer; and an electrode formed under the second type silicon layer. a I-VII compound photovoltaic layer comprising a transparent electrode layer operating as n-type of pn-junction and a I-VII compound layer formed under the transparent electrode layer and operating as p-type of the pn-junction; a silicon photovoltaic layer including a first type silicon layer and a second type silicon layer, the first type silicon layer having first type dopants, the second type silicon layer having second type dopants of which polarity is opposite to a polarity of the first type dopants, the first type silicon layer being disposed under the I-VII compound photovoltaic layer, and the second type silicon layer being disposed under the first type silicon layer; and an electrode formed under the second type silicon layer.
A personal basic service set, PBSS, comprising: a first device configured to communicate in the PBSS, wherein the first device includes a first station (32-1 to 32-4) of the PBSS; and a second device configured to communicate in the PBSS, wherein the second device includes a second station (32-1 to 32-4) of the PBSS or a PBSS control point, PCP, wherein the first device is configured to establish a robust security network association, RSNA, with the second device (i) without associating with the PCP and (ii) without associating with the second device, wherein the first device and the second device are further configured to: exchange security capabilities of each other using messages other than association frames; and selectively perform a single authentication procedure, and then perform a single 4-way handshake to establish the robust security network association, RSNA, between the first device and the second device, and wherein the authentication procedure and the 4-way handshake are conducted only once. a first device configured to communicate in the PBSS, wherein the first device includes a first station (32-1 to 32-4) of the PBSS; and a second device configured to communicate in the PBSS, wherein the second device includes a second station (32-1 to 32-4) of the PBSS or a PBSS control point, PCP, wherein the first device is configured to establish a robust security network association, RSNA, with the second device (i) without associating with the PCP and (ii) without associating with the second device, wherein the first device and the second device are further configured to: exchange security capabilities of each other using messages other than association frames; and selectively perform a single authentication procedure, and then perform a single 4-way handshake to establish the robust security network association, RSNA, between the first device and the second device, and exchange security capabilities of each other using messages other than association frames; and selectively perform a single authentication procedure, and then perform a single 4-way handshake to establish the robust security network association, RSNA, between the first device and the second device, and wherein the authentication procedure and the 4-way handshake are conducted only once.
A measuring device for measuring a reflectivity of a coated optical element for an objective, wherein the metering device comprises the following features: a light-providing device having at least one light source, which device is designed to provide at least two light beams, each having a different defined wavelength, at least one measuring device objective configured to focus the light beams onto the coated optical element, at least one image sensor arranged and designed to sense at least one intensity of the light beams reflected from the optical element, in order to measure reflectivity in response to the sensed intensity of the light beams reflected from the optical element, and an evaluation device designed to determine a positive measurement result if the intensity of at least one reflected light beam does not exceed a threshold value and/or to determine a negative measurement result if the intensity of at least one reflected light beam exceeds a threshold value, and/or to determine a positive measurement result if the intensity of at least one reflected light beam is smaller than a further intensity of a further light beam with a further defined wavelength which was provided by the light-providing device and which was reflected by the optical element. a light-providing device having at least one light source, which device is designed to provide at least two light beams, each having a different defined wavelength, at least one measuring device objective configured to focus the light beams onto the coated optical element, at least one image sensor arranged and designed to sense at least one intensity of the light beams reflected from the optical element, in order to measure reflectivity in response to the sensed intensity of the light beams reflected from the optical element, and an evaluation device designed to determine a positive measurement result if the intensity of at least one reflected light beam does not exceed a threshold value and/or to determine a negative measurement result if the intensity of at least one reflected light beam exceeds a threshold value, and/or to determine a positive measurement result if the intensity of at least one reflected light beam is smaller than a further intensity of a further light beam with a further defined wavelength which was provided by the light-providing device and which was reflected by the optical element.
A method for configuring a code superposition-based multiuser encoding mode, comprising: determining, by a network device, User Equipments, UEs, by which an identical transmission resource is to be multiplexed; and configuring, by the network device, different columns in a preconfigured encoding matrix formed through a multiuser code superposition for the UEs, to enable each UE to transmit data in accordance with an encoding mode corresponding to the column configured by the network device, at least two columns in the encoding matrix having different diversity orders; characterized in that the configuring, by the network device, different columns in the preconfigured encoding matrix for the UEs comprises: randomly configuring, by the network device, different columns in the preconfigured encoding matrix for the UEs; or configuring, by the network device, different columns in the preconfigured encoding matrix for the UEs in accordance with received power of respective UEs. determining, by a network device, User Equipments, UEs, by which an identical transmission resource is to be multiplexed; and configuring, by the network device, different columns in a preconfigured encoding matrix formed through a multiuser code superposition for the UEs, to enable each UE to transmit data in accordance with an encoding mode corresponding to the column configured by the network device, at least two columns in the encoding matrix having different diversity orders; characterized in that the configuring, by the network device, different columns in the preconfigured encoding matrix for the UEs comprises: randomly configuring, by the network device, different columns in the preconfigured encoding matrix for the UEs; or configuring, by the network device, different columns in the preconfigured encoding matrix for the UEs in accordance with received power of respective UEs.
An intervertebral disc replacement comprising: a first layer having a lower surface for contacting a first vertebral bone; a second layer coupled to the first layer, the second layer comprising a plurality of compressible column springs; and a third layer coupled to the second layer, the third layer having an upper surface for contacting a second vertebral bone, wherein the first layer, the second layer and the third layer are one unitary piece, wherein the first layer and the third layer have a thickness that varies, wherein each of the plurality of compressible column springs comprises a plurality of stacked coils, wherein each coil of each of the plurality of stacked coils has a spring constant, and wherein at least one of the plurality of compressible column springs comprises a first coil having a first spring constant and a second coil comprising a second spring constant, wherein the first spring constant is different from the second spring constant. a first layer having a lower surface for contacting a first vertebral bone; a second layer coupled to the first layer, the second layer comprising a plurality of compressible column springs; and a third layer coupled to the second layer, the third layer having an upper surface for contacting a second vertebral bone, wherein the first layer, the second layer and the third layer are one unitary piece, wherein the first layer and the third layer have a thickness that varies, wherein each of the plurality of compressible column springs comprises a plurality of stacked coils, wherein each coil of each of the plurality of stacked coils has a spring constant, and wherein at least one of the plurality of compressible column springs comprises a first coil having a first spring constant and a second coil comprising a second spring constant, wherein the first spring constant is different from the second spring constant.
A process for increasing MFR 2 of a polyethylene copolymer or an ethylene plastomer or elastomer comprising: extruding a copolymer of polyethylene having a density of 910 to 970 kg/m 3 and an MFR 2 of 1 and 100 g/10min or an ethylene plastomer or elastomer having a density of 855 to 910 kg/m 3 and an MFR 2 of 0.5 and 100 g/10min in the presence of 0.1 to 2 wt% of a non-peroxide radical initiator so as to produce a polyethylene copolymer having an MFR 2 of 200 g/10min or more, or an ethylene plastomer or elastomer having a MFR 2 of 200 g/10min or more. extruding a copolymer of polyethylene having a density of 910 to 970 kg/m 3 and an MFR 2 of 1 and 100 g/10min or an ethylene plastomer or elastomer having a density of 855 to 910 kg/m 3 and an MFR 2 of 0.5 and 100 g/10min in the presence of 0.1 to 2 wt% of a non-peroxide radical initiator so as to produce a polyethylene copolymer having an MFR 2 of 200 g/10min or more, or an ethylene plastomer or elastomer having a MFR 2 of 200 g/10min or more.
A molding element for a mold used for manufacturing a tread of a tire having a plurality of contacting elements delimited by a plurality of grooves, the molding element having a molding surface for forming a contact face of the contacting elements intended to come into contact with ground during rolling and a groove forming rib portion for forming the groove comprising two opposed rib side faces (31, 32) for forming two opposed groove side faces (1031, 1032) and a rib top face connecting two rib side faces (31, 32) for forming a groove bottom, the groove forming rib portion providing a space opening to at least one of the rib side faces (31, 32) and/or to the rib top face and an insert received in the space for forming a portion of the groove and a closing device in the groove, wherein the insert comprises at least one notched plate of thickness t1, and the notched plate includes at least one notch for forming a flexible fence of the closing device, the molding element being characterized in that the thickness t1 of the at least one notched plate is substantially equal to the thickness of the flexible fence to be formed.
Genetically modified T-cells for use in adoptive immunotherapy wherein the cells are used as allogenic cells, characterized in that: (a) a first gene encoding CD52 or a glucocorticoid receptor has been inactivated, wherein the inactivation of said first gene renders said genetically modified T-cells resistant to an immunosuppressive agent targeting CD52 or GR; (b) a second gene encoding TCR alpha or TCR beta has been inactivated; (c) the cells have been expanded in vitro, optionally in presence of said immunosuppressive agent; and (d) said genetically modified T cells express a Chimeric Antigen Receptor; wherein said genetically modified T cells are administered to a patient treated with the immunosuppressive agent to avoid rejection of said allogenic cells by the patient's immune system. (a) a first gene encoding CD52 or a glucocorticoid receptor has been inactivated, wherein the inactivation of said first gene renders said genetically modified T-cells resistant to an immunosuppressive agent targeting CD52 or GR; (b) a second gene encoding TCR alpha or TCR beta has been inactivated; (c) the cells have been expanded in vitro, optionally in presence of said immunosuppressive agent; and (d) said genetically modified T cells express a Chimeric Antigen Receptor;
A method for synthesizing a protein of interest with reduced fucosylation and xylosylation comprising, introducing within a plant, a portion of a plant, or a plant cell, a nucleotide sequence comprising from 80% to 100% identity with a nucleotide sequence defined by SEQ ID NO:17 and encoding a hybrid protein comprising a cytoplasmic tail, transmembrane domain, stem region (CTS domain) of N-acetylglucosaminyl transferase fused to a catalytic domain of beta-1,4galactosyltransferase (GalT), the first nucleotide sequence operatively linked with a first regulatory region that is active in the plant, and a second nucleotide sequence for encoding the protein of interest, the second nucleotide sequence operatively linked with a second regulatory region that is active in the plant, and transiently co-expressing the first and second nucleotide sequences to synthesize the protein of interest comprising less than 10% fucosylation and xylosylation when compared to the same protein of interest produced in a wild-type plant.
A foam product comprising: (a) starch; and (b) superabsorbent polymer in an amount ranging from 0.001 to 10% by weight of the foam product, characterized in that the amount of superabsorbent polymer is at most 1% by weight of foam product. (a) starch; and (b) superabsorbent polymer in an amount ranging from 0.001 to 10% by weight of the foam product,
A system (300, 400, 700, 800, 900, 1000, 1100), comprising: at least one AC circuit power line communication injection module (320-1, 400, 720-1, 800, 900, 1020-1, 1100), the AC circuit PLC injection module comprising: an AC power input configured to receive an AC power signal; a PLC transmitter circuit (430/440) configured to couple a PLC signal onto the AC power signal; at least a first AC circuit output (411, 811, 911, 1101) configured to output AC power and the PLC signal; and a PLC blocking line filter configured to filter the PLC signal from passing to the AC power input; wherein the system comprises multiple PLC transmitter circuits including said PLC transmitter circuit, each configured to have a unique PLC network ID, and each connected to a PLC enabled device or group of PLC enabled devices; characterized in that the system further comprises: a power relay for each of the multiple PLC transmitters, arranged to isolate the PLC enabled devices until each of the PLC enabled devices are configured with one of said PLC network IDs. at least one AC circuit power line communication injection module (320-1, 400, 720-1, 800, 900, 1020-1, 1100), the AC circuit PLC injection module comprising: an AC power input configured to receive an AC power signal; a PLC transmitter circuit (430/440) configured to couple a PLC signal onto the AC power signal; at least a first AC circuit output (411, 811, 911, 1101) configured to output AC power and the PLC signal; and a PLC blocking line filter configured to filter the PLC signal from passing to the AC power input; an AC power input configured to receive an AC power signal; a PLC transmitter circuit (430/440) configured to couple a PLC signal onto the AC power signal; at least a first AC circuit output (411, 811, 911, 1101) configured to output AC power and the PLC signal; and a PLC blocking line filter configured to filter the PLC signal from passing to the AC power input; a power relay for each of the multiple PLC transmitters, arranged to isolate the PLC enabled devices until each of the PLC enabled devices are configured with one of said PLC network IDs.
A sputtering target characterized by having a composition, containing: 45 at% to 90 at% of In, optionally 0.1 at% to 10 at% of a Na compound, optionally 0.1 at% to 10 at% of a K compound, and the remainder being Cu and inevitable impurities, wherein an In single phase and a Cu 11 In 9 compound phase exist, and an XRD peak ratio I(In)/I(Cu 11 In 9) between the In single phase and the Cu 11 In 9 compound phase is in a range of 0.01 to 3, an average grain size of the Cu 11 In 9 compound phase is 150 μm or less, an amount of oxygen is 500 mass ppm or less, a theoretical density ratio is 85% or more, an amount of the Na compound is in terms of a Na component, and an amount of the K compound is in terms of a K component, I(Cu 11 In 9) is set as a peak intensity pertaining to a plane of Cu 11 In 9 according to DB card 01-065-4963, I(In) is set as a peak intensity pertaining to a plane of In according to DB card 01-074-6393, the theoretical density ratio is a density of a defect-free ingot of 10 cm×10 cm×10 cm obtained by melting a molten metal having a Cu/In ratio corresponding to the sputtering target and cooling the molten metal at a cooling rate 5 °C/min or less, and the amount of oxygen is measured by using TC600, manufactured by LECO JAPAN CORPORATION, in conformity to an infrared absorbing method described in JIS Z 2613 "General rules for determination of oxygen in metallic materials". 45 at% to 90 at% of In, optionally 0.1 at% to 10 at% of a Na compound, optionally 0.1 at% to 10 at% of a K compound, and the remainder being Cu and inevitable impurities, wherein an In single phase and a Cu 11 In 9 compound phase exist, and an XRD peak ratio I(In)/I(Cu 11 In 9) between the In single phase and the Cu 11 In 9 compound phase is in a range of 0.01 to 3, an average grain size of the Cu 11 In 9 compound phase is 150 μm or less, an amount of oxygen is 500 mass ppm or less, a theoretical density ratio is 85% or more, an amount of the Na compound is in terms of a Na component, and an amount of the K compound is in terms of a K component, I(Cu 11 In 9) is set as a peak intensity pertaining to a plane of Cu 11 In 9 according to DB card 01-065-4963, I(In) is set as a peak intensity pertaining to a plane of In according to DB card 01-074-6393, the theoretical density ratio is a density of a defect-free ingot of 10 cm×10 cm×10 cm obtained by melting a molten metal having a Cu/In ratio corresponding to the sputtering target and cooling the molten metal at a cooling rate 5 °C/min or less, and the amount of oxygen is measured by using TC600, manufactured by LECO JAPAN CORPORATION, in conformity to an infrared absorbing method described in JIS Z 2613 "General rules for determination of oxygen in metallic materials".
Method for oxidative erosion or for decontamination of a metallic surface comprising a step consisting of polarising the metallic surface to be eroded or decontaminated, put in contact with a solution containing manganese VII, at a more anodic electric potential than the corrosion potential of said surface, characterized in that said polarisation is intermittent and generated by at least one electric pulse.
A composition comprising a solid curable powder coating formulation including (i) at least one divinylarene dioxide resin; and (ii) at least one curing component, wherein the divinylarene dioxide resin comprises: (a) a mixture of a solid epoxy resin and a divinylarene dioxide compound; or (b) phenolic resin prepared from a divinylarene dioxide compound and a diphenol; or (c) a solid epoxy resin prepared from a divinylarene dioxide compound. (a) a mixture of a solid epoxy resin and a divinylarene dioxide compound; or (b) phenolic resin prepared from a divinylarene dioxide compound and a diphenol; or (c) a solid epoxy resin prepared from a divinylarene dioxide compound.
A method comprising: monitoring, at a processor of a mobile device, a stream of magnetic field measurements generated by a first sensor of the mobile device as the mobile device is manipulated by a user, each magnetic field measurement representing an orientation of the mobile device relative to a reference frame; for each magnetic field measurement of a set of magnetic field measurements of the stream, determining, at the processor, a point on a surface of a magnetometer calibration sphere associated with the orientation of the mobile device represented by that magnetic field measurement, and storing the magnetic field measurement to a corresponding data bin of a plurality of data bins (108; 504), each data bin of the plurality associated with a corresponding point on the surface of the magnetometer calibration sphere; and responsive to determining that a number of data bins (108; 504) containing magnetic field measurements exceeds a specified threshold, triggering, by the processor, a magnetometer calibration process for a magnetometer of the mobile device. monitoring, at a processor of a mobile device, a stream of magnetic field measurements generated by a first sensor of the mobile device as the mobile device is manipulated by a user, each magnetic field measurement representing an orientation of the mobile device relative to a reference frame; for each magnetic field measurement of a set of magnetic field measurements of the stream, determining, at the processor, a point on a surface of a magnetometer calibration sphere associated with the orientation of the mobile device represented by that magnetic field measurement, and storing the magnetic field measurement to a corresponding data bin of a plurality of data bins (108; 504), each data bin of the plurality associated with a corresponding point on the surface of the magnetometer calibration sphere; and responsive to determining that a number of data bins (108; 504) containing magnetic field measurements exceeds a specified threshold, triggering, by the processor, a magnetometer calibration process for a magnetometer of the mobile device.