mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming an electrical device, comprising the steps of electrophotographically printing an electrically insulating particulate material on a device substrate, said electrically insulating particulate material forming at least a portion of the electrical device, and having an aspect ratio of at least about 2:1, wherein the aspect ratio is a ratio of the longest dimension to the shortest dimension of a particle, and wherein the step of electrophotographically printing, comprises the steps of: a) forming a first electrostatic latent image on a photoreceptor drum; b) contacting the first electrostatic latent image with a particulate material such that at least a portion of the particulate material electrostatically adheres to the electrostatic latent image to form a first patterned particulate layer; and c) transferring the first patterned particulate layer to the device substrate; and consolidating the first patterned particulate layer subsequent to the step of transferring using an impression member which is a heated roller which consolidates the printed patterned particulate layer through heat and mechanical pressure. a) forming a first electrostatic latent image on a photoreceptor drum; b) contacting the first electrostatic latent image with a particulate material such that at least a portion of the particulate material electrostatically adheres to the electrostatic latent image to form a first patterned particulate layer; and c) transferring the first patterned particulate layer to the device substrate; and consolidating the first patterned particulate layer subsequent to the step of transferring using an impression member which is a heated roller which consolidates the printed patterned particulate layer through heat and mechanical pressure.
Method of screen printing on at least one electric and/or electronic component of a number (d) of patterns (M1, M2) greater than or equal to two, each pattern (M1, M2) comprising printed lines extending in the same direction (D1, D2), the printed lines of two patterns (M1, M2) juxtaposed with one another extending respectively in first (D1) and second (D2) directions substantially perpendicular to one another, the method comprising the use of a screen printing plate for forming the patterns (M1, M2) on said at least one electric and/or electronic component , characterised in that the method further includes the use of at least one first doctor blade system and one second doctor blade system that are independent, configured respectively to enable the doctoring in the first direction (D1) and in the second direction (D2) in order to obtain a two-way doctoring for the printing of patterns (M1, M2).
A compound represented by Formula or Formula below: where in Formulas and , X represents S, and R 1 each independently represents a hydrogen atom, a halogen atom, an alkyl group, an aryl group, an aralkyl group, a pyridyl group, a furyl group, a thienyl group, or a thiazolyl group.
A method for preparing high protein flakes comprising: forming a plurality of first pellets having a protein content of at least 30%; introducing the first pellets and a food component into a cooker; cooking the first pellets and the food component to give a cooked food product; forming the cooked food product into a plurality of second pellets; and forming the plurality of second pellets into a plurality of high protein flakes having a protein content of 1% to 50% by weight of the high protein flakes, wherein the method for forming the first pellets comprises: providing a protein; introducing the protein to an extruder to form a protein extrudate; forcing the protein extrudate to exit the extruder; transferring the protein extrudate to a cold form extruder; forcing the protein extrudate to exit the cold form extruder; and cutting the protein extrudate to form the first pellets. forming a plurality of first pellets having a protein content of at least 30%; introducing the first pellets and a food component into a cooker; cooking the first pellets and the food component to give a cooked food product; forming the cooked food product into a plurality of second pellets; and forming the plurality of second pellets into a plurality of high protein flakes having a protein content of 1% to 50% by weight of the high protein flakes, wherein the method for forming the first pellets comprises: providing a protein; introducing the protein to an extruder to form a protein extrudate; forcing the protein extrudate to exit the extruder; transferring the protein extrudate to a cold form extruder; forcing the protein extrudate to exit the cold form extruder; and cutting the protein extrudate to form the first pellets. providing a protein; introducing the protein to an extruder to form a protein extrudate; forcing the protein extrudate to exit the extruder; transferring the protein extrudate to a cold form extruder; forcing the protein extrudate to exit the cold form extruder; and cutting the protein extrudate to form the first pellets.
A microfluidic device comprising a platform having a center (c) of rotation and comprising a microfluidic structure, wherein the microfluidic structure comprises: a plurality of first chambers arranged in a circumferential direction of the platform at different distances from the center of rotation; a plurality of first siphon channels , each of the plurality of first siphon channels being connected to a corresponding first chamber of the plurality of the first chambers; a plurality of second chambers connected to the plurality of first chambers by the plurality of first siphon channels ; and at least one reaction chamber connected to at least one second chamber of the plurality of second chambers; characterised by a metering chamber disposed between the at least one second chamber and the at least one reaction chamber and configured to meter an amount of a fluid transferred from the at least one second chamber; a fluid transfer assist unit connected between the metering chamber and the at least one reaction chamber ; and a magnetic body disposed in a magnetic body accommodating chamber disposed at a position adjacent to the reaction chamber for identifying the position of the reaction chamber . a plurality of first chambers arranged in a circumferential direction of the platform at different distances from the center of rotation; a plurality of first siphon channels , each of the plurality of first siphon channels being connected to a corresponding first chamber of the plurality of the first chambers; a plurality of second chambers connected to the plurality of first chambers by the plurality of first siphon channels ; and at least one reaction chamber connected to at least one second chamber of the plurality of second chambers; characterised by a metering chamber disposed between the at least one second chamber and the at least one reaction chamber and configured to meter an amount of a fluid transferred from the at least one second chamber; a fluid transfer assist unit connected between the metering chamber and the at least one reaction chamber ; and a magnetic body disposed in a magnetic body accommodating chamber disposed at a position adjacent to the reaction chamber for identifying the position of the reaction chamber .
A method for enhanced security in entering data to a data entry device comprising at least one computer processor and a touch-sensitive screen , comprising: the at least one computer processor generating a touch instruction to add fingerprint marks or touch marks to the touch-sensitive screen based on at least one previous touch sensed by the touch-sensitive screen ; the touch-sensitive screen displaying the touch instruction, the touch instruction indicating a touch location where a user touch is to be made on the touch-sensitive screen to add the fingerprint marks or touch marks; the touch-sensitive screen sensing a first touch; and the at least one computer processor determining that the first touch is within a predetermined threshold of the touch location indicated by the touch instruction, the method being characterized in that the fingerprint marks or touch marks provide obfuscation or distortion of existing fingerprints or touch marks from at least one previous touch sensed by the touch-sensitive screen . the at least one computer processor generating a touch instruction to add fingerprint marks or touch marks to the touch-sensitive screen based on at least one previous touch sensed by the touch-sensitive screen ; the touch-sensitive screen displaying the touch instruction, the touch instruction indicating a touch location where a user touch is to be made on the touch-sensitive screen to add the fingerprint marks or touch marks; the touch-sensitive screen sensing a first touch; and the at least one computer processor determining that the first touch is within a predetermined threshold of the touch location indicated by the touch instruction, the method being characterized in that the fingerprint marks or touch marks provide obfuscation or distortion of existing fingerprints or touch marks from at least one previous touch sensed by the touch-sensitive screen .
A projectile deployment system , comprising: an entangling projectile , including a pair of pellets and a tether connecting the pellets ; a projectile casing , including a pair of sockets , each socket sized to carry one of the pellets ; the pair of sockets being angled relative to one another such that the pellets travel apart from one another as they are expelled from the projectile casing ; and a launcher , carrying the projectile casing ; a selectively activatable pressure source carried by one of the launcher or the projectile casing , the pressure source capable of expelling the entangling projectile from the projectile casing toward a subject characterized in that the sockets are vertically offset relative to one another and extend on planes parallel to one another. an entangling projectile , including a pair of pellets and a tether connecting the pellets ; a projectile casing , including a pair of sockets , each socket sized to carry one of the pellets ; the pair of sockets being angled relative to one another such that the pellets travel apart from one another as they are expelled from the projectile casing ; and a launcher , carrying the projectile casing ; a selectively activatable pressure source carried by one of the launcher or the projectile casing , the pressure source capable of expelling the entangling projectile from the projectile casing toward a subject characterized in that the sockets are vertically offset relative to one another and extend on planes parallel to one another.
A cosmetic, non-therapeutic, use of a polylysine dendrimer or a salt thereof as an active ingredient for treating or preventing skin blemishes.
Installation for air-conditioning a passenger compartment of a passenger bus , comprising: a) at least one roof air-conditioning unit for producing selectively heated or cooled air for air-conditioning the passenger compartment ; b) a heating unit for heating a heat carrier; wherein c) the at least one roof air-conditioning unit has a heat exchanger as a heating element for the production of the heated air; characterized in that d) the installation comprises an infrared heating installation for the passenger compartment ; and e) the heating unit is connected to the heat exchanger of the at least one roof air-conditioning unit such that heat carrier heated in the heating unit is able to be fed to the heat exchanger, wherein an additional circuit for the heat carrier heated by the heating unit has heating tubes which run in the heat exchanger parallel to tubes which pass a fluid temperature-controlled by the roof air-conditioning unit , and the heat exchanger of the at least one roof air-conditioning unit is equipped with a fan by means of which air can be sucked in, conducted through aluminium lamellae of the heat exchanger and discharged into a passenger compartment , wherein the heating tubes for the heat carrier heated by the heating unit are likewise led through said aluminium lamellae. a) at least one roof air-conditioning unit for producing selectively heated or cooled air for air-conditioning the passenger compartment ; b) a heating unit for heating a heat carrier; c) the at least one roof air-conditioning unit has a heat exchanger as a heating element for the production of the heated air; d) the installation comprises an infrared heating installation for the passenger compartment ; and e) the heating unit is connected to the heat exchanger of the at least one roof air-conditioning unit such that heat carrier heated in the heating unit is able to be fed to the heat exchanger, wherein an additional circuit for the heat carrier heated by the heating unit has heating tubes which run in the heat exchanger parallel to tubes which pass a fluid temperature-controlled by the roof air-conditioning unit , and the heat exchanger of the at least one roof air-conditioning unit is equipped with a fan by means of which air can be sucked in, conducted through aluminium lamellae of the heat exchanger and discharged into a passenger compartment , wherein the heating tubes for the heat carrier heated by the heating unit are likewise led through said aluminium lamellae.
A communication method, comprising: receiving (S610, S101, S131), by a terminal, time-frequency configuration information from a network side, wherein the time-frequency configuration information is used to indicate a random access channel, RACH, time-frequency resource; receiving (S620, S101, S131), by the terminal, spatial configuration information from the network side, wherein the spatial configuration information is used to indicate an RACH spatial resource, wherein the spatial configuration information comprises a beam identifier, and further comprises an antenna weight and/or precoding information corresponding to the beam identifier; obtaining (S630, S730, S132), by the terminal, at least one beam based on the spatial configuration information; sending (S630, S730, S132), by the terminal, by using the at least one beam, a random access preamble to the network side on all or part of the RACH time-frequency resource indicated by the time-frequency configuration information; and receiving (S640, S133), by the terminal, a random access response, RAR, for the random access preamble from the network side. receiving (S610, S101, S131), by a terminal, time-frequency configuration information from a network side, wherein the time-frequency configuration information is used to indicate a random access channel, RACH, time-frequency resource; receiving (S620, S101, S131), by the terminal, spatial configuration information from the network side, wherein the spatial configuration information is used to indicate an RACH spatial resource, wherein the spatial configuration information comprises a beam identifier, and further comprises an antenna weight and/or precoding information corresponding to the beam identifier; obtaining (S630, S730, S132), by the terminal, at least one beam based on the spatial configuration information; sending (S630, S730, S132), by the terminal, by using the at least one beam, a random access preamble to the network side on all or part of the RACH time-frequency resource indicated by the time-frequency configuration information; and receiving (S640, S133), by the terminal, a random access response, RAR, for the random access preamble from the network side.
Support assembly for a trailer coupling (451; 551; 951) or a load carrier (L), including a cross-member (411-911) and side members (412-912) joined to the cross-member (411-911) for fitting to a rear section of a body (K) of a motor vehicle (F), together with at least one mounting (415-915) fitted to the cross-member (411-911) for a trailer coupling (451; 551; 951) or for a coupling part (M) of a load carrier (L), wherein the support assembly (410-910) includes a base body (460-960) made from a sheet metal blank (461-961) by forming and comprising the cross-member (411-911), wherein the base body (460-960) includes, in addition to the cross-member (411-911), at least one side member (412-912) formed by the body (468-968) of the sheet metal blank (461-961) and/or a housing (450; 950) of the mounting (415-915) for the trailer coupling (451; 551; 951) or the load carrier (L) formed integrally by the body (468-968) of the sheet metal blank (461-961), characterised in that the base body (460-960) has at least one reinforcing conversion (430-930), namely a reinforcing beading.
A method for erecting the structure of an aerostat by successive horizontal sections, starting with the upper horizontal section, comprising an iteration of the following steps, starting with a current state of manufacturing of the structure of the aerostat, - lifting the current state of the structure, at first lifting points, by lifting means arranged in a current transverse position, - placing a support device in line with second lifting points of the current state of the structure, - transferring the current state of the structure from the lifting means to the support device, - moving the lifting means to another transverse position, - fully assembling the horizontal section immediately below the current state of the structure on the structure. - lifting the current state of the structure, at first lifting points, by lifting means arranged in a current transverse position, - placing a support device in line with second lifting points of the current state of the structure, - transferring the current state of the structure from the lifting means to the support device, - moving the lifting means to another transverse position, - fully assembling the horizontal section immediately below the current state of the structure on the structure.
A bimodal polymerization catalyst system comprising: a non-metallocene olefin polymerization catalyst; and a zirconocene catalyst of Formula I: where R 4 is independently a C 1 to C 20 alkyl, aryl or aralkyl group or a hydrogen, where R3 is a C 1 to C 20 alkyl, aryl or aralkyl group, and where each X is independently a halide, C 1 to C 20 alkyl, aralkyl group or hydrogen, and where: R 1 is a C 1 alkyl and R 2 is a C 3 alkyl. a non-metallocene olefin polymerization catalyst; and a zirconocene catalyst of Formula I: where R 4 is independently a C 1 to C 20 alkyl, aryl or aralkyl group or a hydrogen, where R3 is a C 1 to C 20 alkyl, aryl or aralkyl group, and where each X is independently a halide, C 1 to C 20 alkyl, aralkyl group or hydrogen, and where: R 1 is a C 1 alkyl and R 2 is a C 3 alkyl.
A process for producing a sensor for a biomedical electrode , comprising: injection molding an electrically conductive resin through a film of a backing material to form the sensor directly in the backing material, the sensor comprising a contact face disposed on a first side of the film and a post protruding from a second side of the film opposite the first side; and, coating the contact face with a non-polarizable conductive material.
Method for assigning tasks in a highly distributed data processing system to available computing components, wherein a source component (QZ) engaged with a task divides this task as needed and delivers a portion of the sub-tasks thus obtained to target components (ZZ), wherein a characteristic value is given for each task, and an assignment of the task to a computing component of the highly distributed data processing system takes place on the basis of the characteristic value, characterized in that a binary representation of the characteristic value serves as the basis for a search for a responsible computing component, wherein, beginning with the most significant bit of the characteristic value, an entry of the responsible computing component is searched for in a binary tree structure.
An anti-CD123 × anti-CD3 heterodimeric antibody comprising the HC1 Fab-Fc of SEQ ID NO: 468, the HC2 scFv-Fc of SEQ ID NO: 469, and the LC of SEQ ID NO: 470 of Figure 136C.
A spent fuel dry reprocessing method based on plasma, wherein the method comprises steps of: S1, processing a spent fuel after removal of a cladding thereof into a spent fuel powder, and sending the spent fuel powder into a plasma reactor; S2, fully mixing and reacting the spent fuel powder with a plasma containing F atoms in the plasma reactor, to generate a product including volatile fluorides and non-volatile fluorides; wherein in the step S2, the plasma containing F atoms is generated by conversion of a fluorination medium; wherein the fluorination medium comprises one or more gases of CF 4 , NF 3 , F 2 , HF, BrF 3 , BrF 5 , ClF 3 , and SF 6 ; S3, rapidly cooling the product at a cooling rate of 10 4 K/s to 10 9 K/s, to generate a gas-solid two-phase flow and a solid-state product; S4, filtering the gas-solid two-phase flow to remove a solid-state product therein, then carrying out condensation, adsorption, desorption and distillation, to obtain a mixed gas containing UF 6 and PuF 6 ; S5, performing a recovery process to the mixed gas to generate a corresponding oxide or metal. S1, processing a spent fuel after removal of a cladding thereof into a spent fuel powder, and sending the spent fuel powder into a plasma reactor; S2, fully mixing and reacting the spent fuel powder with a plasma containing F atoms in the plasma reactor, to generate a product including volatile fluorides and non-volatile fluorides; wherein in the step S2, the plasma containing F atoms is generated by conversion of a fluorination medium; wherein the fluorination medium comprises one or more gases of CF 4 , NF 3 , F 2 , HF, BrF 3 , BrF 5 , ClF 3 , and SF 6 ; S3, rapidly cooling the product at a cooling rate of 10 4 K/s to 10 9 K/s, to generate a gas-solid two-phase flow and a solid-state product; S4, filtering the gas-solid two-phase flow to remove a solid-state product therein, then carrying out condensation, adsorption, desorption and distillation, to obtain a mixed gas containing UF 6 and PuF 6 ; S5, performing a recovery process to the mixed gas to generate a corresponding oxide or metal.
A filter test strip to filter and test a specimen in liquid , comprising: a test element ; and a specimen filter assembly which is located on the test element and includes: at least one filter cotton holding layer ; at least one filter cotton layer ; and at least one cotton bonding layer ; wherein the filter cotton holding layer includes a filter channel to allow the specimen in liquid to pass through and to hold the filter cotton layer in the filter channel , wherein a gap is formed between the filter cotton holding layer and filter cotton layer , and the cotton bonding layer is bonded to a lower side of the filter cotton holding layer via an adhesive ; characterized in that the adhesive on the cotton bonding layer fully covers a circumference of the filter cotton layer and masks the gap between the filter cotton holding layer and filter cotton layer . a test element ; and a specimen filter assembly which is located on the test element and includes: at least one filter cotton holding layer ; at least one filter cotton layer ; and at least one cotton bonding layer ; wherein the filter cotton holding layer includes a filter channel to allow the specimen in liquid to pass through and to hold the filter cotton layer in the filter channel , wherein a gap is formed between the filter cotton holding layer and filter cotton layer , and the cotton bonding layer is bonded to a lower side of the filter cotton holding layer via an adhesive ; at least one filter cotton holding layer ; at least one filter cotton layer ; and at least one cotton bonding layer ; wherein the filter cotton holding layer includes a filter channel to allow the specimen in liquid to pass through and to hold the filter cotton layer in the filter channel , wherein a gap is formed between the filter cotton holding layer and filter cotton layer , and the cotton bonding layer is bonded to a lower side of the filter cotton holding layer via an adhesive ; characterized in that the adhesive on the cotton bonding layer fully covers a circumference of the filter cotton layer and masks the gap between the filter cotton holding layer and filter cotton layer .