mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a base substrate; a light emitting element provided on the base substrate; and a single layer sealing member to seal the light emitting element, wherein the sealing member contains a first filler particles unevenly distributed in a surface of the sealing member and a second filler particles unevenly distributed in a bottom surface side of the sealing member, wherein the surface of the sealing member constitutes the light emitting surface of the light emitting device, wherein the first filler particles are hollow, wherein the particle size of the first filler particles is 1 μm or more and 35 μm or less, wherein the specific gravity of the first filler particles is 0.4 or more and 0.8 or less, and wherein the surface of the sealing member has an irregular geometry formed associated with the first filler particles. a base substrate; a light emitting element provided on the base substrate; and a single layer sealing member to seal the light emitting element, wherein the sealing member contains a first filler particles unevenly distributed in a surface of the sealing member and a second filler particles unevenly distributed in a bottom surface side of the sealing member, wherein the surface of the sealing member constitutes the light emitting surface of the light emitting device, wherein the first filler particles are hollow, wherein the particle size of the first filler particles is 1 μm or more and 35 μm or less, wherein the specific gravity of the first filler particles is 0.4 or more and 0.8 or less, and wherein the surface of the sealing member has an irregular geometry formed associated with the first filler particles.
A master integrated circuit, IC, comprising: a bus interface configured to be coupled to an interchip bus; a transmitter comprising a driver, the driver outputting a data signal to the bus interface for transmission across the interchip bus; a receiver coupled to the bus interface; a clock data recovery, CDR, circuit operatively coupled to the receiver; a phase locked loop, PLL, receiving a reference clock signal and outputting a clock signal to the driver of the transmitter and the CDR circuit, wherein the transmitter outputs a master clock signal onto the interchip bus through the bus interface; and a control system operatively coupled to the PLL and the CDR circuit, the control system configured to change a frequency of the master clock signal by controlling the PLL, wherein data transmission continues during frequency change independent of clock activity at a remote slave IC; and characterized by: a temperature control circuit operatively coupled to the control system and the CDR circuit, wherein the control system wakes the CDR circuit based on changes in temperature and the temperature control circuit. a bus interface configured to be coupled to an interchip bus; a transmitter comprising a driver, the driver outputting a data signal to the bus interface for transmission across the interchip bus; a receiver coupled to the bus interface; a clock data recovery, CDR, circuit operatively coupled to the receiver; a phase locked loop, PLL, receiving a reference clock signal and outputting a clock signal to the driver of the transmitter and the CDR circuit, wherein the transmitter outputs a master clock signal onto the interchip bus through the bus interface; and a control system operatively coupled to the PLL and the CDR circuit, the control system configured to change a frequency of the master clock signal by controlling the PLL, wherein data transmission continues during frequency change independent of clock activity at a remote slave IC; and characterized by: a temperature control circuit operatively coupled to the control system and the CDR circuit, wherein the control system wakes the CDR circuit based on changes in temperature and the temperature control circuit.
A method for producing a mono-C1-C6-alkyl monoalkanolamine by a reaction of a mono-Cl-C6-alkylamine with an alkylene oxide, comprising: supplying the mono-C1-C6-alkylamine and the alkylene oxide to a reaction column and reacting the mono-C1-C6-alkylamine with the alkylene oxide to synthesize the mono-C1-C6-alkyl monoalkanolamine and then removing an unreacted raw material by distillation; and separating the mono-C1-C6-alkyl monoalkanolamine in a gas state in a flash drum at an operating temperature in a range of 110 to 200°C; wherein the reaction for synthesis is a water catalyst method. supplying the mono-C1-C6-alkylamine and the alkylene oxide to a reaction column and reacting the mono-C1-C6-alkylamine with the alkylene oxide to synthesize the mono-C1-C6-alkyl monoalkanolamine and then removing an unreacted raw material by distillation; and separating the mono-C1-C6-alkyl monoalkanolamine in a gas state in a flash drum at an operating temperature in a range of 110 to 200°C; wherein the reaction for synthesis is a water catalyst method.
Control method for a roll stand, - wherein, while a metal strip is being rolled in the roll stand, a control device for the roll stand receives measurement data for a lateral position (y) of the metal strip that exists on the entry side and/or on the exit side of the roll stand, - wherein a stand controller of the control device takes account of parameters of the stand controller in taking the deviation in the lateral position (y) from a desired position (y*) as a basis for ascertaining a pivot value (δs) for the roll stand and actuating the roll stand accordingly, characterized in that: - the control device ascertains at least one quantity (V1, V2, Q1, Q2) that reveals, for both strip edges (7, 8) of the metal strip, whether the metal strip is forming a wave in the region of the respective strip edge (7, 8), and - as soon as the metal strip forms a wave in the region of one of the strip edges (7, 8), the control device varies at least one of the parameters of the stand controller, as a result of which the stand controller ascertains the pivot value (δs) from the varying of the at least one parameter onward in the light of the altered parameter. - wherein, while a metal strip is being rolled in the roll stand, a control device for the roll stand receives measurement data for a lateral position (y) of the metal strip that exists on the entry side and/or on the exit side of the roll stand, - wherein a stand controller of the control device takes account of parameters of the stand controller in taking the deviation in the lateral position (y) from a desired position (y*) as a basis for ascertaining a pivot value (δs) for the roll stand and actuating the roll stand accordingly, characterized in that: - the control device ascertains at least one quantity (V1, V2, Q1, Q2) that reveals, for both strip edges (7, 8) of the metal strip, whether the metal strip is forming a wave in the region of the respective strip edge (7, 8), and - as soon as the metal strip forms a wave in the region of one of the strip edges (7, 8), the control device varies at least one of the parameters of the stand controller, as a result of which the stand controller ascertains the pivot value (δs) from the varying of the at least one parameter onward in the light of the altered parameter.
Device for detecting a temperature of an electrical coupling element, comprising an electrical contact element which is designed to conduct electric current to an electrical component; a component support which can be arranged on the contact element and the component support comprises a thermally conductive region in direct contact with the contact element, wherein a printed circuit board is arranged on the component support, which printed circuit board comprises at least one temperature sensor which detects the temperature of the contact element and thus of the electrical coupling element, characterized in that the printed circuit board is arranged directly on the thermally conductive region and the temperature sensor is arranged on that side of the printed circuit board which is averted from the thermally conductive region. an electrical contact element which is designed to conduct electric current to an electrical component; a component support which can be arranged on the contact element and the component support comprises a thermally conductive region in direct contact with the contact element, wherein a printed circuit board is arranged on the component support, which printed circuit board comprises at least one temperature sensor which detects the temperature of the contact element and thus of the electrical coupling element, characterized in that the printed circuit board is arranged directly on the thermally conductive region and the temperature sensor is arranged on that side of the printed circuit board which is averted from the thermally conductive region.
Plug-in nut having an outer body comprising a support plate and receiving slots and having an inner body which is mounted in the outer body, displaceable by means of a displacement path, and which has a screw receiving space into which a screw can be screwed and which is configured with rear-locking catch lugs which project radially outwardly beyond the outer body and which are arranged, in a final mounting arrangement, in the receiving slots of the outer body, wherein the inner body is mounted rotationally fixed in the outer body and wherein each rear-locking catch lug is formed on a spring arm which is flexible in the radial direction and is arranged, over the whole displacement path, in an associated guide slot characterised in that the outer body and the inner body have engaging means (14, 23) co-operating with one another in a final position of the inner body maximally inserted into the outer body, said engaging means fixing the inner body with a pre-mounting force.
A vacuum cleaner nozzle comprising a housing having a cleaning surface, configured to face a surface to be cleaned, the nozzle further comprising at least one main brush (17, 19) which can be moved between a first and a second position by means of a switch, wherein, in the first position, said at least one main brush projects downwardly from the cleaning surface, and, in the second position the main brush is retracted, the nozzle further comprising at least one auxiliary brush (21, 23) which is arranged to move correspondingly to said at least one main brush and characterized by the at least one auxiliary brush (21, 23) projects, in said first position, towards the surface to be cleaned in an inclined manner and extends beyond the housing, such that the auxiliary brush is more readily visible from above the nozzle than in the second position.
A method of generating virtual content, the method comprising: initiating, by a device, a virtual session for presenting virtual content; identifying, for the virtual session, a portion of a physical space for use as a virtual private space for presenting at least a portion of the virtual content; outputting boundary information identifying a boundary of the virtual private space, the boundary information being used to generate boundary virtual content, the boundary virtual content being viewable by one or more unauthorized users (560, 562) of the virtual session; and generating the at least the portion of the virtual content for the virtual private space, the at least the portion of the virtual content being viewable in the virtual private space by one or more authorized users (452, 454, 456) of the virtual session, wherein the boundary virtual content is configured to block the portion of the physical space, the at least the portion of the virtual content not being viewable by the one or more unauthorized users (560, 562) of the virtual session. initiating, by a device, a virtual session for presenting virtual content; identifying, for the virtual session, a portion of a physical space for use as a virtual private space for presenting at least a portion of the virtual content; outputting boundary information identifying a boundary of the virtual private space, the boundary information being used to generate boundary virtual content, the boundary virtual content being viewable by one or more unauthorized users (560, 562) of the virtual session; and generating the at least the portion of the virtual content for the virtual private space, the at least the portion of the virtual content being viewable in the virtual private space by one or more authorized users (452, 454, 456) of the virtual session, wherein the boundary virtual content is configured to block the portion of the physical space, the at least the portion of the virtual content not being viewable by the one or more unauthorized users (560, 562) of the virtual session.
A corrosion sensor for detecting the action of corrosive media on a metallic material when mounted in situ adjacent a location in the metallic material, the corrosion sensor comprising: a substrate; and a patterned conductive thin film (220, 230) formed on the substrate; the thin film defining: first and second terminals (226, 227); a first conducting track running between the first and the second terminals (226, 227); and conducting regions separated from the terminals (226, 227) and the first conducting track, and disposed adjacent either side of the first conducting track; characterised in that the thin film (220, 230) defines a plurality of conducting tracks (222, 223, 224) running between the first and second terminals (226, 227), and a plurality of conducting regions separated from the terminals (226, 227) and the plurality of conducting tracks (222, 223, 224), the plurality of conducting regions being arranged such that conducting regions are disposed on either side of each of the plurality of conducting tracks (222, 223, 224). a substrate; and a patterned conductive thin film (220, 230) formed on the substrate; the thin film defining: first and second terminals (226, 227); a first conducting track running between the first and the second terminals (226, 227); and conducting regions separated from the terminals (226, 227) and the first conducting track, and disposed adjacent either side of the first conducting track; characterised in that the thin film (220, 230) defines a plurality of conducting tracks (222, 223, 224) running between the first and second terminals (226, 227), and a plurality of conducting regions separated from the terminals (226, 227) and the plurality of conducting tracks (222, 223, 224), the plurality of conducting regions being arranged such that conducting regions are disposed on either side of each of the plurality of conducting tracks (222, 223, 224).
A random access method carried out between a radio communication terminal and a base station apparatus over a random access channel, RACH, the RACH comprising a plurality of resources and subcarriers; the radio communication terminal carrying out the steps of: generating a plurality of identical transmission packets by duplicating a transmission packet, based on a table provided in advance, randomly assigning the plurality of identical transmission packets to arbitrary resources and arbitrary subcarriers of the plurality of resources and subcarriers in the RACH; checking whether the assignments do not overlap; and when the assignments do not overlap, transmitting, to the base station apparatus, the plurality of identical transmission packets on at least two resources which are on the same subcarrier on the RACH, without waiting for a response from the base station apparatus to confirm whether the transmission packets transmitted to the RACH are received at the base station apparatus, whereby the resources are time slots and the at least two resources are consecutive time slots on the same subcarrier. generating a plurality of identical transmission packets by duplicating a transmission packet, based on a table provided in advance, randomly assigning the plurality of identical transmission packets to arbitrary resources and arbitrary subcarriers of the plurality of resources and subcarriers in the RACH; checking whether the assignments do not overlap; and when the assignments do not overlap, transmitting, to the base station apparatus, the plurality of identical transmission packets on at least two resources which are on the same subcarrier on the RACH, without waiting for a response from the base station apparatus to confirm whether the transmission packets transmitted to the RACH are received at the base station apparatus, whereby the resources are time slots and the at least two resources are consecutive time slots on the same subcarrier.
An isolated human monoclonal antibody or functional antibody fragment thereof, wherein the antibody or functional fragment thereof comprises a heavy chain variable domain and a light chain variable domain, wherein the heavy chain variable domain comprises: (i) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:2, (ii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:4, or (iii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:6, and wherein the light chain variable domain comprises VLCDR1, VLCDR2, and VLCDR3 respectively corresponding to amino acids 24-32, 48-54, and 87-91 of SEQ ID NO:10, and wherein the antibody or functional fragment thereof is a neutralizing antibody which specifically binds to gp120 of HIV-1. (i) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:2, (ii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:4, or (iii) VHCDR1, VHCDR2, and VHCDR3 respectively corresponding to amino acids 31-35, 50-66, and 99-109 of SEQ ID NO:6, and wherein the light chain variable domain comprises VLCDR1, VLCDR2, and VLCDR3 respectively corresponding to amino acids 24-32, 48-54, and 87-91 of SEQ ID NO:10, and wherein the antibody or functional fragment thereof is a neutralizing antibody which specifically binds to gp120 of HIV-1.
A method for the preparation of a peptide PEP which comprises a coupling in liquid phase of two peptide fragments, an N-terminal fragment FRAG1 of PEP and a C-terminal fragment FRAG2 of PEP; wherein FRAG2 is prepared by Solid Phase Peptide Synthesis (SPPS); wherein the C-terminal COOH of FRAG2 is protected by a pseudo-Wang (psWang) residue; the psWang residue is residue of formula (psWang); wherein ( ∗) denotes the covalent bond to the C atom of the CO residue of the C-terminal COOH of FRAG2; R1, R2, R3 and R4 are identical or different and independently from each other selected from the group consisting of H, C 1-4 alkyl, C 1-4 alkoxy, CN, F, Cl and Br; R5 and R6 are identical or different and are, independent from each other, H or C 1-4 alkyl; m is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10; and wherein the psWang linker or the psWang residue respectively is connected to the resin used for the SPPS by an ether bond ETHBOND2; and wherein the ETHBOND2 is cleavable under weakly acidic conditions; and wherein SPPS is done on a resin selected from the group consisting of chlorotritylchloride resin, Rink acid resin,SASRIN resin, resin modified with 5-(4-hydroxymethyl-3,5-dimethoxyphenoxy)valeric acid and resin modified with 4-(4-hydroxymethyl-3-methoxyphenoxy)butyric acid (HMPB); wherein the Rink acid resin, the SASRIN resin, the resin modified with HAL and the resin modified with HMPB are used in their chlorinated or brominated form. wherein FRAG2 is prepared by Solid Phase Peptide Synthesis (SPPS); wherein the C-terminal COOH of FRAG2 is protected by a pseudo-Wang (psWang) residue; the psWang residue is residue of formula (psWang); wherein ( ∗) denotes the covalent bond to the C atom of the CO residue of the C-terminal COOH of FRAG2; R1, R2, R3 and R4 are identical or different and independently from each other selected from the group consisting of H, C 1-4 alkyl, C 1-4 alkoxy, CN, F, Cl and Br; R5 and R6 are identical or different and are, independent from each other, H or C 1-4 alkyl; m is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10; and wherein the psWang linker or the psWang residue respectively is connected to the resin used for the SPPS by an ether bond ETHBOND2; and wherein the ETHBOND2 is cleavable under weakly acidic conditions; and wherein SPPS is done on a resin selected from the group consisting of chlorotritylchloride resin, Rink acid resin,SASRIN resin, resin modified with 5-(4-hydroxymethyl-3,5-dimethoxyphenoxy)valeric acid and resin modified with 4-(4-hydroxymethyl-3-methoxyphenoxy)butyric acid (HMPB); wherein the Rink acid resin, the SASRIN resin, the resin modified with HAL and the resin modified with HMPB are used in their chlorinated or brominated form.
Method for obtaining an ornament component comprising at least 80% by mass of platinum, the method comprising: providing a raw material comprising at least 80.0% by mass of platinum and having a first hardness; carrying out a step of work hardening of the alloy in order to obtain a semi-finished product having a second hardness that is higher than the first hardness; and carrying out a step of machining of the semi-finished product to obtain the component; characterized in that the work hardening step comprises at least one cycle of severe plastic deformation brought about by equal-channel angular extrusion such that the crystallographic structure of the alloy is transformed into a structure having grains smaller than 1 μm, and preferably smaller than 500 nm. providing a raw material comprising at least 80.0% by mass of platinum and having a first hardness; carrying out a step of work hardening of the alloy in order to obtain a semi-finished product having a second hardness that is higher than the first hardness; and carrying out a step of machining of the semi-finished product to obtain the component; characterized in that the work hardening step comprises at least one cycle of severe plastic deformation brought about by equal-channel angular extrusion such that the crystallographic structure of the alloy is transformed into a structure having grains smaller than 1 μm, and preferably smaller than 500 nm.
A dialysis machine comprising: a feed arrangement arranged to supply a dialysis fluid to a dialyzer during dialysis treatment; a return arrangement arranged to remove the spent dialysis fluid from the dialyzer during dialysis treatment and forward it to an exit adapted for connection to a waste-bag or drain; a return recirculation circuit connected to the return arrangement and arranged to allow a fluid of the return arrangement to re-circulate in a fluid loop path comprising, at least a portion of, the return arrangement and the return recirculation circuit; a controller configured to perform disinfection of the feed arrangement and/or of the return arrangement by circulating a disinfectant and/or a heated fluid through said feed arrangement and/or return arrangement; characterized in that the dialysis machine further comprises: a feed forward arrangement arranged to enable a fluid of the feed arrangement to be forwarded to the waste-bag or drain by-passing the fluid loop path. a feed arrangement arranged to supply a dialysis fluid to a dialyzer during dialysis treatment; a return arrangement arranged to remove the spent dialysis fluid from the dialyzer during dialysis treatment and forward it to an exit adapted for connection to a waste-bag or drain; a return recirculation circuit connected to the return arrangement and arranged to allow a fluid of the return arrangement to re-circulate in a fluid loop path comprising, at least a portion of, the return arrangement and the return recirculation circuit; a controller configured to perform disinfection of the feed arrangement and/or of the return arrangement by circulating a disinfectant and/or a heated fluid through said feed arrangement and/or return arrangement; characterized in that the dialysis machine further comprises: a feed forward arrangement arranged to enable a fluid of the feed arrangement to be forwarded to the waste-bag or drain by-passing the fluid loop path.