mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a colloidal silica concentrate from a geothermal fluid comprising silica, the fluid having a silica concentration of at least 300ppm and an initial temperature of at least 85°C, the method comprising: a. cooling the geothermal fluid from the initial temperature to a nucleation temperature between 25°C and 70°C to initiate silica colloid growth; b. curing the geothermal fluid after cooling for a period which is sufficient for silica colloids of the desired size to form from monomeric silica, to produce an ultrafiltration feed, wherein the silica colloids of the desired size have a mean silica colloid size of between 3nm and 8nm; c. treating the UF feed using ultrafiltration to yield a UF retentate; d. diafiltering the UF retentate during or after ultrafiltration to produce a colloidal silica concentrate; wherein the UF retentate comprises a silica concentration of between 1m% and 15m%. a. cooling the geothermal fluid from the initial temperature to a nucleation temperature between 25°C and 70°C to initiate silica colloid growth; b. curing the geothermal fluid after cooling for a period which is sufficient for silica colloids of the desired size to form from monomeric silica, to produce an ultrafiltration feed, wherein the silica colloids of the desired size have a mean silica colloid size of between 3nm and 8nm; c. treating the UF feed using ultrafiltration to yield a UF retentate; d. diafiltering the UF retentate during or after ultrafiltration to produce a colloidal silica concentrate;
A pixel structure for a liquid crystal display, comprising: a plate electrode, an interlayer insulating layer, and strip electrodes that are sequentially disposed on a substrate, wherein the strip electrodes include first strip electrode(s), second strip electrode(s) and third strip electrode(s); the first strip electrode(s) and the plate electrode are oppositely disposed, so that an orthographic projection of the first strip electrode(s) on the substrate at least partially overlaps with an orthographic projection of the plate electrode on the substrate; and the first strip electrode(s) and the plate electrode are configured to be applied with different voltages during display; an orthographic projection of the second strip electrode(s) on the substrate and an orthographic projection of the third strip electrode(s) on the substrate are outside the orthographic projection of the plate electrode on the substrate; characterized in that, the first strip electrode(s) are disposed in a middle region of the pixel structure, and the second strip electrode(s) and the third strip electrode(s) are all disposed in peripheral region(s) of the pixel structure. the strip electrodes include first strip electrode(s), second strip electrode(s) and third strip electrode(s); the first strip electrode(s) and the plate electrode are oppositely disposed, so that an orthographic projection of the first strip electrode(s) on the substrate at least partially overlaps with an orthographic projection of the plate electrode on the substrate; and the first strip electrode(s) and the plate electrode are configured to be applied with different voltages during display; an orthographic projection of the second strip electrode(s) on the substrate and an orthographic projection of the third strip electrode(s) on the substrate are outside the orthographic projection of the plate electrode on the substrate; characterized in that, the first strip electrode(s) are disposed in a middle region of the pixel structure, and the second strip electrode(s) and the third strip electrode(s) are all disposed in peripheral region(s) of the pixel structure.
Item of linen for beds, seating and/or reclining furniture, in particular duvet covers or pillowcases, made of a printable natural-fibre fabric, synthetic-fibre fabric or union fabric made up of warp and weft threads, the item of linen being formed as a reversible item of linen having basic fabric parts (2, 3) that are interconnected so as to form a receiving chamber, the item of linen being formed as a multiway item of linen having basic fabric parts (2, 3) made of a 1/1 plain weave or a 1/3 twill weave or a 1/4 satin weave, the basic fabric parts (2, 3) being printed with pigments or Caledon dyes on either side, characterised in that the edges of the reversible item of linen each comprise two quilting seams (4, 6), the first quilting seam being provided such that a seam allowance is provided at each of the edges of the basic fabric parts (2, 3), and the seam allowance at each edge of the reversible item of linen is arranged in a tube formed by a second warp quilting seam so as to be covered, the first quilting seam forming the outer quilting seam in one reversed state of the item of linen and the second quilting seam forming the outer quilting seam in a different reversed state of the item of linen.
A telecommunications method comprising the step of establishing an instant messaging session among a plurality of network clients (112, 118, 120, 122, 124) operably coupled to a packet network, including a plurality of telephony clients (126a, 126b, 126c, 126d, 126e) and an associated plurality of Instant Messaging clients (128a, 128b, 128c, 128d, 128e); the packet network comprising a teleconferencing server operably coupled to the packet network and an Instant Messaging server operably coupled to the packet network; characterized by the following steps: using an instant messaging channel of the instant messaging session adapted to provide signaling control and to carry signaling to establish a multimedia conference over IP session among a plurality of telephony clients (126a, 126b, 126c, 126d) of the network clients (112, 118, 120, 122, 124) and wherein said multimedia over IP session comprises establishing an initial multimedia conference; carrying telephony call setup and telephony signaling over the instant messaging channel; wherein said multimedia conference over IP session comprises a whiteboarding session during a pre-established multimedia session.
A cleaning implement comprising melamine-formaldehyde foam characterized in that the melamine-formaldehyde foam has a d90/d10 ratio above 1.65 and a compression deflection force above 22.41 kPa.
Device for producing butyl sealing strips, wherein the device has an extrusion device with a nozzle unit, a liner feed device which can be used to feed a liner for receiving at least one sealing strip dispensed by the nozzle unit to a dispensing region of the nozzle unit, and a transport device with a transport means, said transport device being mounted downstream of the nozzle unit and of the liner feed device in the conveying direction of the at least one sealing strip and being able to be used to transport away a liner equipped with at least one sealing strip, characterized in that the liner feed device is configured such that a conveying speed of the liner feed device is as great as a dispensing speed of the nozzle unit, and wherein the transport device is configured such that a movement speed of the transport means of the transport device is greater than the conveying speed of the liner feed device and greater than the dispensing speed of the nozzle unit.
A polymeric conjugate represented by the formula: Wherein: T1 is a first agent that down-regulates MEK and/or BRAF, and is either selumetinib or a structural analog thereof, wherein selumetinib and the structural analog thereof exhibit substantially the same biological activity; T2 is a second agent that down-regulates MEK and/or BRAF, and is either dabrafenib or a structural analog thereof, wherein dabrafenib and the structural analog thereof exhibit substantially the same biological activity; L is a targeting moiety which exhibits high affinity to polypeptides that are expressed on the surface of tumor cells or in the microenvironment of tumor cells; y ranges from 50 to 99.9 mol percent; x ranges from 0.1 to 50 mol percent; z ranges from 0.1 to 20 mol percent; and n ranges from 0 to 10 mol percent, wherein said first agent and said second agent act in synergy in downregulation of proliferation of melanoma cells. T1 is a first agent that down-regulates MEK and/or BRAF, and is either selumetinib or a structural analog thereof, wherein selumetinib and the structural analog thereof exhibit substantially the same biological activity; T2 is a second agent that down-regulates MEK and/or BRAF, and is either dabrafenib or a structural analog thereof, wherein dabrafenib and the structural analog thereof exhibit substantially the same biological activity; L is a targeting moiety which exhibits high affinity to polypeptides that are expressed on the surface of tumor cells or in the microenvironment of tumor cells; y ranges from 50 to 99.9 mol percent; x ranges from 0.1 to 50 mol percent; z ranges from 0.1 to 20 mol percent; and n ranges from 0 to 10 mol percent, wherein said first agent and said second agent act in synergy in downregulation of proliferation of melanoma cells.
A polypropylene composition comprising: A) from 50 wt% to 90 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25 °C, higher than 90 %; and a MFR L (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) from 0.5 to 200 g/10 min; B) from 10 wt% to 50wt%; %; of a copolymer of propylene and ethylene having from 30.0 wt% to 70.0wt%, of ethylene derived units; the sum of the amount of component A) and B) being 100; the composition having: i) an intrinsic viscosity of the fraction soluble in xylene at 25 °C comprised between 2.2 and 4.0 dl/g; ii) a MFR L (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) from 0.5 to 100 g/10 min; iii) a xylene soluble fraction ranging from 20 wt% to 50 wt%; the polypropylene composition being obtained by a two steps polymerization process wherein: step a) propylene is polymerized to obtain component A) in the presence of a catalyst comprising the product of the reaction between: a) a solid catalyst component comprising Ti, Mg, Cl, and an internal electron donor compound characterized by the fact that it contains from 0.1 to 50%wt of Bi with respect to the total weight of said solid catalyst component; b) an alkylaluminum compound and, c) an electron-donor compound; step b) propylene and ethylene are polymerized to obtain component B) in the presence of the polymerization product of step A). A) from 50 wt% to 90 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25 °C, higher than 90 %; and a MFR L (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) from 0.5 to 200 g/10 min; B) from 10 wt% to 50wt%; %; of a copolymer of propylene and ethylene having from 30.0 wt% to 70.0wt%, of ethylene derived units; i) an intrinsic viscosity of the fraction soluble in xylene at 25 °C comprised between 2.2 and 4.0 dl/g; ii) a MFR L (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) from 0.5 to 100 g/10 min; iii) a xylene soluble fraction ranging from 20 wt% to 50 wt%; step a) propylene is polymerized to obtain component A) in the presence of a catalyst comprising the product of the reaction between: a) a solid catalyst component comprising Ti, Mg, Cl, and an internal electron donor compound characterized by the fact that it contains from 0.1 to 50%wt of Bi with respect to the total weight of said solid catalyst component; b) an alkylaluminum compound and, c) an electron-donor compound; a) a solid catalyst component comprising Ti, Mg, Cl, and an internal electron donor compound characterized by the fact that it contains from 0.1 to 50%wt of Bi with respect to the total weight of said solid catalyst component; b) an alkylaluminum compound and, c) an electron-donor compound; step b) propylene and ethylene are polymerized to obtain component B) in the presence of the polymerization product of step A).
A method for transmitting a signal including data information and control information in a subframe in a wireless mobile communication system, the method including: writing a first vector sequence of rank information onto a first set of four columns of a matrix starting from the last row of the matrix and moving upwards when the rank information is transmitted in the subframe; generating a second vector sequence by multiplexing Chanel Quality Information and/or Precoding Matrix Index, CQI/PMI, information with the data information; writing the second vector sequence onto the matrix starting from row '0' downwards, wherein, in each row, the writing is performed rightwards starting from column '0' skipping matrix entries that are already occupied; and writing a third vector sequence of Hybrid Automatic Repeat reQuest. Acknowledgment, HARQ-ACK information onto a second set of four columns of the matrix starting from the last row and moving upwards when the HARQ-ACK information is transmitted in the subframe, wherein the second set of four columns is different from the first set of four columns; and transmitting the output of the matrix, wherein the output is a bit sequence readout column by column from the matrix. writing a first vector sequence of rank information onto a first set of four columns of a matrix starting from the last row of the matrix and moving upwards when the rank information is transmitted in the subframe; generating a second vector sequence by multiplexing Chanel Quality Information and/or Precoding Matrix Index, CQI/PMI, information with the data information; writing the second vector sequence onto the matrix starting from row '0' downwards, wherein, in each row, the writing is performed rightwards starting from column '0' skipping matrix entries that are already occupied; and writing a third vector sequence of Hybrid Automatic Repeat reQuest. Acknowledgment, HARQ-ACK information onto a second set of four columns of the matrix starting from the last row and moving upwards when the HARQ-ACK information is transmitted in the subframe, wherein the second set of four columns is different from the first set of four columns; and transmitting the output of the matrix, wherein the output is a bit sequence readout column by column from the matrix.
A method for the detection of anti-drug antibodies against a drug antibody in a sample of an rheumatoid arthritis patient comprising a capture drug antibody and a tracer drug antibody, wherein a) the capture drug antibody and the tracer drug antibody have a concentration of 0.5 μg/ml or more, b) the sample is incubated simultaneously with the capture drug antibody and the tracer drug antibody for 0.5 to 24 hours, c) the capture drug antibody and the tracer drug antibody are each derivatized only once via a single lysine residue, d) the sample comprises 1 % serum/plasma or more, e) oligomeric human IgG is added to the sample prior to the incubation with the capture drug antibody and the tracer drug antibody, and f) monomeric biotin and digoxygenin on capture and tracer drug antibody. a) the capture drug antibody and the tracer drug antibody have a concentration of 0.5 μg/ml or more, b) the sample is incubated simultaneously with the capture drug antibody and the tracer drug antibody for 0.5 to 24 hours, c) the capture drug antibody and the tracer drug antibody are each derivatized only once via a single lysine residue, d) the sample comprises 1 % serum/plasma or more, e) oligomeric human IgG is added to the sample prior to the incubation with the capture drug antibody and the tracer drug antibody, and f) monomeric biotin and digoxygenin on capture and tracer drug antibody.
A vehicle lamp, comprising: a plurality of semiconductor light emitting modules vertically stacked with each other, each of semiconductor light emitting modules having a substrate and a plurality of semiconductor light emitting devices (150, 250) disposed on the substrate; partition walls formed between the semiconductor light emitting devices (150, 250) in each of semiconductor light emitting modules and passing through each of the semiconductor light emitting modules in a thickness direction, wherein each of the respective semiconductor light emitting modules has semiconductor light emitting devices (150, 250) that emit different wavelengths of light; and electrode lines (120, 140, 351, 352) electrically connected to each of the plurality of semiconductor light emitting devices (150, 250), wherein each of the semiconductor light emitting modules has first and second electrodes, wherein the partition walls have holes through which the electrode lines (120, 140, 351, 352) pass, and wherein the electrode lines (120, 140, 351, 352) comprise first and second electrode lines (120, 140) provided in at least one of the semiconductor light emitting modules, except the semiconductor light emitting module stacked on a bottommost layer of the lamp. a plurality of semiconductor light emitting modules vertically stacked with each other, each of semiconductor light emitting modules having a substrate and a plurality of semiconductor light emitting devices (150, 250) disposed on the substrate; partition walls formed between the semiconductor light emitting devices (150, 250) in each of semiconductor light emitting modules and passing through each of the semiconductor light emitting modules in a thickness direction, wherein each of the respective semiconductor light emitting modules has semiconductor light emitting devices (150, 250) that emit different wavelengths of light; and electrode lines (120, 140, 351, 352) electrically connected to each of the plurality of semiconductor light emitting devices (150, 250), wherein each of the semiconductor light emitting modules has first and second electrodes, wherein the partition walls have holes through which the electrode lines (120, 140, 351, 352) pass, and wherein the electrode lines (120, 140, 351, 352) comprise first and second electrode lines (120, 140) provided in at least one of the semiconductor light emitting modules, except the semiconductor light emitting module stacked on a bottommost layer of the lamp.
A method for measuring X-ray energy of an accelerator in an inspection system, comprising: building a database comprising correspondence between half-value layer and X-ray energy under a predetermined condition; measuring HVL for X-rays of the accelerator in the inspection system on line under the same predetermined condition; and the method is characterized by comprising: comparing the measured HVL with HVLs in the database comprising correspondence between HVL and X-ray energy to determine the X-ray energy of the accelerator. building a database comprising correspondence between half-value layer and X-ray energy under a predetermined condition; measuring HVL for X-rays of the accelerator in the inspection system on line under the same predetermined condition; and the method is characterized by comprising: comparing the measured HVL with HVLs in the database comprising correspondence between HVL and X-ray energy to determine the X-ray energy of the accelerator.
A system for generating echolocation sounds to assist a user in navigating a three-dimensional space, comprising: a processing system comprising one or more processors and a memory having computer-executable instructions stored thereupon which, when executed by the one or more processors, cause the processing system to: receive, by an input component, input from a user to generate echolocation sounds to navigate a three-dimensional space; characterized in that the computer-executable instructions, when executed by the one or more processors, cause the processing system to: based at least on the received input: segment, by a depth planes component, a digital representation of the three-dimensional space into one or more depth planes (310, 320, 330, 340) using an unsupervised machine learning algorithm; for each depth plane (310, 320, 330, 340), determine, by an object segments component, object segments for each object within the particular depth plane (310, 320, 330, 340); determine, by a spatial node location component, locations of a plurality of echo sound nodes in accordance with the depth level and surface area of each object defined by the determined segments; and generate, by a sound generation component, the echolocation sounds comprising a spatialized sound from each echo sound node originating from the determined location. receive, by an input component, input from a user to generate echolocation sounds to navigate a three-dimensional space; characterized in that the computer-executable instructions, when executed by the one or more processors, cause the processing system to: based at least on the received input: segment, by a depth planes component, a digital representation of the three-dimensional space into one or more depth planes (310, 320, 330, 340) using an unsupervised machine learning algorithm; for each depth plane (310, 320, 330, 340), determine, by an object segments component, object segments for each object within the particular depth plane (310, 320, 330, 340); determine, by a spatial node location component, locations of a plurality of echo sound nodes in accordance with the depth level and surface area of each object defined by the determined segments; and generate, by a sound generation component, the echolocation sounds comprising a spatialized sound from each echo sound node originating from the determined location. segment, by a depth planes component, a digital representation of the three-dimensional space into one or more depth planes (310, 320, 330, 340) using an unsupervised machine learning algorithm; for each depth plane (310, 320, 330, 340), determine, by an object segments component, object segments for each object within the particular depth plane (310, 320, 330, 340); determine, by a spatial node location component, locations of a plurality of echo sound nodes in accordance with the depth level and surface area of each object defined by the determined segments; and generate, by a sound generation component, the echolocation sounds comprising a spatialized sound from each echo sound node originating from the determined location.
A method implemented in a computing device having multiple energy storage devices, the method comprising: determining, for each of multiple thermal zones of the computing device, respective temperatures of the thermal zones; and determining one or more of the multiple energy storage devices to draw power from based on multiple criteria regarding operation of the computing device including the temperature of each of the one or more thermal zones, and which one of the multiple energy storage devices is not in a thermally hot zone; and configuring, according to the determining, one or more of the multiple energy storage devices not in a thermally hot zone to provide power to the computing device. determining, for each of multiple thermal zones of the computing device, respective temperatures of the thermal zones; and determining one or more of the multiple energy storage devices to draw power from based on multiple criteria regarding operation of the computing device including the temperature of each of the one or more thermal zones, and which one of the multiple energy storage devices is not in a thermally hot zone; and configuring, according to the determining, one or more of the multiple energy storage devices not in a thermally hot zone to provide power to the computing device.