mhurhangee/ep-ind-claims huggingface dataset:
A stable aqueous pigment dispersion comprising: a pigment particle and a dispersant comprising: a first water-soluble polymer having an acid number of from 0 to 80 and a calculated Mn of from 450 Daltons to 10,000 Daltons; and 2) a second water-soluble polymer comprising, as copolymerized units, from 30% to 100% by weight, based on the weight of said second polymer, sulfonic acid monomer, or a salt thereof; and from 0% to 10% by weight, based on the weight of said second polymer, carboxylic acid monomer, or a salt thereof; wherein said second polymer has a calculated Mn of from 1000 to 25,000 Daltons; wherein said dispersant comprises a proportion of said first polymer to said second polymer of from 0.1:1 to 10:1 on a solids basis, and said first polymer and said second polymer are miscible in said proportions; and wherein said dispersant is substantially free of structural units of phosphorus acid monomers and salts thereof, wherein the Mn is calculated as: M n = DP n × ∑ m i M i a. where m i is the molar mass of monomer i and [ M i] is the molar fraction of monomer i, and DP n is the degree of polymerization; and b. wherein the first water-soluble polymer and the second water-soluble polymer are different. a pigment particle and a dispersant comprising: a first water-soluble polymer having an acid number of from 0 to 80 and a calculated Mn of from 450 Daltons to 10,000 Daltons; and 2) a second water-soluble polymer comprising, as copolymerized units, from 30% to 100% by weight, based on the weight of said second polymer, sulfonic acid monomer, or a salt thereof; and from 0% to 10% by weight, based on the weight of said second polymer, carboxylic acid monomer, or a salt thereof; wherein said second polymer has a calculated Mn of from 1000 to 25,000 Daltons; wherein said dispersant comprises a proportion of said first polymer to said second polymer of from 0.1:1 to 10:1 on a solids basis, and said first polymer and said second polymer are miscible in said proportions; and wherein said dispersant is substantially free of structural units of phosphorus acid monomers and salts thereof, wherein the Mn is calculated as: M n = DP n × ∑ m i M i a. where m i is the molar mass of monomer i and [ M i] is the molar fraction of monomer i, and DP n is the degree of polymerization; and b. wherein the first water-soluble polymer and the second water-soluble polymer are different.
Pit jack, having a first operating side with a first operating device, wherein the first operating side is arranged on a lifting cylinder and/or on a rolling chassis and the first operating device has a plurality of actuating elements, characterized in that a second operating side having a second operating device is arranged on the pit jack, wherein the second operating device has at least one actuating element, wherein the second operating side is located opposite the first operating side and the operating device (1, 1') has identical actuating elements (5, 5') on both operating sides (1a, 1b), wherein the actuating elements (5, 5') are push-buttons for lifting and lowering and/or outlet valves and/or hand pumps and/or electric switches.
A lighting apparatus (110, 110a, 110b, 110c, 111), comprising: a base unit; and a light emitting unit provided on the base unit, the light emitting unit including: a substrate provided around a first axis, the first axis being along a direction from the base unit toward the light emitting unit, the substrate including a portion having a tubular configuration opening downward from above, the tubular portion including a plurality of light emission side surfaces disposed alternately around the first axis with a plurality of reflection side surfaces; a light emitting device provided on each of the plurality of light emission side surfaces; and a reflective layer provided on each of the plurality of reflection side surfaces, the reflective layers being configured to reflect at least a portion of light emitted from the light emitting devices, wherein the portion opens downward from above such that each of the plurality of light emission side surfaces and of each of the plurality of reflection side surfaces is tilted with respect to the first axis. a base unit; and a light emitting unit provided on the base unit, the light emitting unit including: a substrate provided around a first axis, the first axis being along a direction from the base unit toward the light emitting unit, the substrate including a portion having a tubular configuration opening downward from above, the tubular portion including a plurality of light emission side surfaces disposed alternately around the first axis with a plurality of reflection side surfaces; a light emitting device provided on each of the plurality of light emission side surfaces; and a reflective layer provided on each of the plurality of reflection side surfaces, the reflective layers being configured to reflect at least a portion of light emitted from the light emitting devices, wherein the portion opens downward from above such that each of the plurality of light emission side surfaces and of each of the plurality of reflection side surfaces is tilted with respect to the first axis. a substrate provided around a first axis, the first axis being along a direction from the base unit toward the light emitting unit, the substrate including a portion having a tubular configuration opening downward from above, the tubular portion including a plurality of light emission side surfaces disposed alternately around the first axis with a plurality of reflection side surfaces; a light emitting device provided on each of the plurality of light emission side surfaces; and a reflective layer provided on each of the plurality of reflection side surfaces, the reflective layers being configured to reflect at least a portion of light emitted from the light emitting devices, wherein the portion opens downward from above such that each of the plurality of light emission side surfaces and of each of the plurality of reflection side surfaces is tilted with respect to the first axis.
A method for producing a semiconductor device in which silver oxide or silver provided on a surface of a base and silver oxide or silver provided on a surface of a semiconductor element are bonded, silver oxide being provided on at least either one of a surface of the base and a surface of the semiconductor element, the method comprising the steps of: arranging the semiconductor element on the base such that silver oxide or silver provided on a surface of the semiconductor element is in contact with silver oxide or silver provided on a surface of the base, and bonding the semiconductor element and the base by applying heat having a temperature of 200 to 900°C to the semiconductor device and the base, wherein the base is a lead frame or a wiring board. arranging the semiconductor element on the base such that silver oxide or silver provided on a surface of the semiconductor element is in contact with silver oxide or silver provided on a surface of the base, and bonding the semiconductor element and the base by applying heat having a temperature of 200 to 900°C to the semiconductor device and the base, wherein the base is a lead frame or a wiring board.
A pharmaceutical composition comprising a compound selected from: and or a stereoisomer, tautomer, pharmaceutically acceptable salt or solvate thereof, a pharmaceutically acceptable carrier, and another therapeutic agent.
A composition for use in the treatment of Alzheimer's disease or a related disorder, comprising at least levosimendan, or a salt or sustained release formulation thereof.
An all-solid state lithium battery, comprising: a positive electrode containing a positive electrode active material; a negative electrode containing a negative electrode active material; and a composite structure interposed between the positive electrode and the negative electrode; wherein the composite structure comprises: a compact layer made of a solid electrolyte; and a porous layer which contains the solid electrolyte and is integrally formed with the compact layer without having a bonding interface, wherein at least one of the compact layer and the porous layer contains a sintering aid, and the porous layer has a relative density as defined in the description in a range of 40% or more and 60% or less. a positive electrode containing a positive electrode active material; a negative electrode containing a negative electrode active material; and a composite structure interposed between the positive electrode and the negative electrode; wherein the composite structure comprises: a compact layer made of a solid electrolyte; and a porous layer which contains the solid electrolyte and is integrally formed with the compact layer without having a bonding interface, wherein at least one of the compact layer and the porous layer contains a sintering aid, and the porous layer has a relative density as defined in the description in a range of 40% or more and 60% or less. a compact layer made of a solid electrolyte; and a porous layer which contains the solid electrolyte and is integrally formed with the compact layer without having a bonding interface, wherein at least one of the compact layer and the porous layer contains a sintering aid, and the porous layer has a relative density as defined in the description in a range of 40% or more and 60% or less.
Modular satellite equipment support panel for receiving electrical and/or electronic assemblies (2, 3, 8), characterised in that - the satellite equipment support panel has a base body which is provided with at least one recess (11A, 11B, 11C, 11D, 11E, 11F, 11G) into which at least one of the electrical and/or electronic assemblies (2, 3, 8) can be fitted, and - the base body has devices for distributing electrical energy to electrical energy connections, provided on the base of the at least one recess (11A, 11B, 11C) or on an inner end wall of the at least one recess (11D, 11E, 11F, 11G), the at least one recess (11D, 11E, 11F, 11G) being open at the top and to one side, for the at least one electrical and/or electronic assembly (2, 3, 8) provided there. - the satellite equipment support panel has a base body which is provided with at least one recess (11A, 11B, 11C, 11D, 11E, 11F, 11G) into which at least one of the electrical and/or electronic assemblies (2, 3, 8) can be fitted, and - the base body has devices for distributing electrical energy to electrical energy connections, provided on the base of the at least one recess (11A, 11B, 11C) or on an inner end wall of the at least one recess (11D, 11E, 11F, 11G), the at least one recess (11D, 11E, 11F, 11G) being open at the top and to one side, for the at least one electrical and/or electronic assembly (2, 3, 8) provided there.
An arm device for a milking parlor arrangement (1, 1', 1") for automatically milking milk-producing animals, said arm device comprising an arm and a holder, which is pivotably coupled therewith and has a milking cluster, wherein the arm is connected to an arm drive shaft and is mounted so as to be rotatable about an arm axis, wherein a holder drive shaft is mounted in the arm drive shaft so as to be rotatable independently of the arm drive shaft, wherein the arm drive shaft and the holder drive shaft are realized so as to be couplable with a drive unit, wherein the arm device comprises at least one transmission element (20, 20') as tensile means for transmitting rotary or pivoting movements, characterized in that the at least one transmission element (20, 20') is fixedly connected in each case to respective wheels (12a and 14a; 19 and 25), with which it interacts for transmitting rotary or pivoting movements, and that the at least one transmission element (20, 20′) comprises a metal band.
A communication device, comprising processing logic configured to: generate a set of communication environment identification data corresponding to the location of said communication device; generate a set of observed communication performance data corresponding to the location of said communication device; and transmit said set of communication environment identification data and said set of observed communication performance data to a server, characterised in that the communication environment identification data includes a radio signature, wherein the radio signature comprises a combination of received radio signal attributes from all types of communication signals that are in range at the specific location of the communication device. generate a set of communication environment identification data corresponding to the location of said communication device; generate a set of observed communication performance data corresponding to the location of said communication device; and transmit said set of communication environment identification data and said set of observed communication performance data to a server, characterised in that the communication environment identification data includes a radio signature, wherein the radio signature comprises a combination of received radio signal attributes from all types of communication signals that are in range at the specific location of the communication device.
Starting device for an internal combustion engine with a pinion, a hollow shaft and a pinion shaft which is inserted in the hollow shaft, which transmits torque to the hollow shaft and which is longitudinally displaceable, which is supported resiliently against the hollow shaft against its direction of insertion into the hollow shaft and is limited in its displacement path opposite to the direction of insertion into the hollow shaft by means of a stop arrangement, which comprises a stop element which is engaged by the hollow shaft in a radially elastically expandable manner and which is received in an annular groove of the pinion shaft, wherein the stop element is surrounded by the hollow shaft in the stop region with a radial spacing from the hollow shaft securing its radial engagement position towards the pinion shaft, characterized in that the hollow shaft comprises an annular space which surrounds the stop element which, starting from its region corresponding to the stop position, is radially widened in the insertion direction of the pinion shaft.
A multiple antigen-binding antibody molecule comprising: a) two heavy chain variable domains, one with specificity to antigen A (VH-A) and one with specificity for antigen B (VH-B), and b) two light chain variable domains, one with specificity to antigen A (VL-A) and one with specificity for antigen B (VL-B), wherein the multiple antigen-binding antibody lacks constant domains, the two heavy chain variable domains comprises: a Serine at AHo position 12, a Serine or Threonine at AHo position 103, and a Serine or Threonine at AHo position 144; and wherein the two light chain variable domains comprises an Arginine at AHo position 50, wherein VH-A is linked to VL-B by peptide linker 1 to form a VH-A/VL-B construct and VH-B is linked to VL-A by peptide linker 2 to form a VH-B/VL-A construct, wherein the two light chain variable domains are human Vkappa1 family light chain variable regions, and wherein the two heavy chain variable domains are human VH3 family heavy chain variable regions. a) two heavy chain variable domains, one with specificity to antigen A (VH-A) and one with specificity for antigen B (VH-B), and b) two light chain variable domains, one with specificity to antigen A (VL-A) and one with specificity for antigen B (VL-B),
Self-punching press-fit element for press-fitting into a component, with - a longitudinal direction - a head part with a head bearing for bearing on the component - a punching collar with a cutting edge at the end, characterized in that - the punching collar is designed as to widen in a conical manner in the longitudinal direction and has an external shell face inclined obliquely outwards with respect to the longitudinal direction, so that an undercut is formed between the cutting edge and the head bearing, - the head bearing has a circumferential displacement web, which is adjoined in the radial direction by a radially external region of the head bearing, which is set back in the longitudinal direction relative to the displacement web, - the displacement web merges into the radially external region forming a step, and - in the radially external region several ribs are formed distributed around the circumference to form an anti-rotation safeguard. - a longitudinal direction - a head part with a head bearing for bearing on the component - a punching collar with a cutting edge at the end, characterized in that - the punching collar is designed as to widen in a conical manner in the longitudinal direction and has an external shell face inclined obliquely outwards with respect to the longitudinal direction, so that an undercut is formed between the cutting edge and the head bearing, - the head bearing has a circumferential displacement web, which is adjoined in the radial direction by a radially external region of the head bearing, which is set back in the longitudinal direction relative to the displacement web, - the displacement web merges into the radially external region forming a step, and - in the radially external region several ribs are formed distributed around the circumference to form an anti-rotation safeguard.
A method of operating a scanning probe microscope comprising: tuning the SPM to determine an operating frequency of a drive of the SPM without detecting an amplitude response of an oscillating probe over a range of frequencies, wherein the oscillating probe is driven by a piezoelectric actuator, wherein said tuning step includes generating a thermally induced displacement power spectrum (TIDPS) of the SPM to generate a TIDPS curve, wherein the piezoelectric actuator to oscillate the probe during SPM operation is grounded while generating the TIDPS, determining the operating frequency of the SPM based only on the TIDPS curve by identifying the operating frequency based only on a peak associated with the TIDPS curve, wherein the peak of the TIDPS curve corresponds to a fundamental resonant frequency of the oscillating probe, and exclusively using the thermal response of the probe to tune the SPM, wherein the generating step includes a high speed data capture (HSDC) to generate HSDC data, wherein the SPM comprises a detector configured to detect the deflection of the probe and wherein the HSDC data are deflection data from the detector, and wherein the high speed data capture includes using field programmable gate array (FPGA) architecture, and wherein the high speed data capture includes a capture rate between about 5 MHz and 50 MHz and a duration greater than 10 ms and less than 1000 ms. tuning the SPM to determine an operating frequency of a drive of the SPM without detecting an amplitude response of an oscillating probe over a range of frequencies, wherein the oscillating probe is driven by a piezoelectric actuator, wherein said tuning step includes generating a thermally induced displacement power spectrum (TIDPS) of the SPM to generate a TIDPS curve, wherein the piezoelectric actuator to oscillate the probe during SPM operation is grounded while generating the TIDPS, determining the operating frequency of the SPM based only on the TIDPS curve by identifying the operating frequency based only on a peak associated with the TIDPS curve, wherein the peak of the TIDPS curve corresponds to a fundamental resonant frequency of the oscillating probe, and exclusively using the thermal response of the probe to tune the SPM, wherein the generating step includes a high speed data capture (HSDC) to generate HSDC data, wherein the SPM comprises a detector configured to detect the deflection of the probe and wherein the HSDC data are deflection data from the detector, and wherein the high speed data capture includes using field programmable gate array (FPGA) architecture, and wherein the high speed data capture includes a capture rate between about 5 MHz and 50 MHz and a duration greater than 10 ms and less than 1000 ms.
A method performed by an evolved Node B, eNB, for reducing signaling in a Core Network, CN, relating to state changes in a User Equipment, UE, said eNB having a Radio Resource Control, RRC, connection with the UE, the method comprising, - sending a request for a UE context release to a Mobile Management Entity, MME, in response to that the UE has been inactive during a predetermined time, - receiving, from the MME, a command for a UE context release together with parameters for enabling local eNB paging of the UE, - releasing the RRC connection, - allocating a reduced context based on the received parameters and storing the reduced context in a memory of the eNB, - retrieving the stored reduced context after receiving a downlink packet to the UE, and - paging the UE locally by means of the reduced context. - sending a request for a UE context release to a Mobile Management Entity, MME, in response to that the UE has been inactive during a predetermined time, - receiving, from the MME, a command for a UE context release together with parameters for enabling local eNB paging of the UE, - releasing the RRC connection, - allocating a reduced context based on the received parameters and storing the reduced context in a memory of the eNB, - retrieving the stored reduced context after receiving a downlink packet to the UE, and - paging the UE locally by means of the reduced context.
A method comprising: receiving a plurality of photon beams at a sensor system (102, 300), wherein the plurality of photon beams originate from a scene; interfering each of the plurality of photon beams (206, 208, 316, 318, 403) with a corresponding source photon beam (214, 216, 320, 322, 405) in a plurality of source photon beams to form a plurality of interference beams, wherein each of the plurality of source photon beams has a non-classical state in which fluctuations in a photon-number of the each of the plurality of source photon beams is reduced to within selected tolerances; and forming an output signal (136, 356) based on the plurality of interference beams, wherein the output signal is configured for use in generating an image of the scene; the method further comprising reducing fluctuations in a relative phase between a photon beam in the plurality of photon beams and a source photon beam in the plurality of source photon beams corresponding to the photon beam in response to a reduction in the fluctuations in the photon-number of the each of the plurality of source photon beams. receiving a plurality of photon beams at a sensor system (102, 300), wherein the plurality of photon beams originate from a scene; interfering each of the plurality of photon beams (206, 208, 316, 318, 403) with a corresponding source photon beam (214, 216, 320, 322, 405) in a plurality of source photon beams to form a plurality of interference beams, wherein each of the plurality of source photon beams has a non-classical state in which fluctuations in a photon-number of the each of the plurality of source photon beams is reduced to within selected tolerances; and forming an output signal (136, 356) based on the plurality of interference beams, wherein the output signal is configured for use in generating an image of the scene; the method further comprising reducing fluctuations in a relative phase between a photon beam in the plurality of photon beams and a source photon beam in the plurality of source photon beams corresponding to the photon beam in response to a reduction in the fluctuations in the photon-number of the each of the plurality of source photon beams.