mhurhangee/patent-ind-claim-en huggingface dataset:
An ophthalmic lens comprising : a cast-polymerized lens comprising at least one polymer, a functional laminate comprising a functional layer and a thermoplastic film layer attached to one or both sides of the functional layer, a primer coating deposited onto one or both external surfaces of the functional laminate, wherein said primer coating comprises: at least one acrylic polymer, at least one urethane acrylate oligomer, at least one UV or thermal initiator, at least one reactive monomer capable of reacting with the lens casting monomer, and a combination of ketone solvents, acetate solvents or ketone and acetate solvents. a cast-polymerized lens comprising at least one polymer, a functional laminate comprising a functional layer and a thermoplastic film layer attached to one or both sides of the functional layer, a primer coating deposited onto one or both external surfaces of the functional laminate, wherein said primer coating comprises: at least one acrylic polymer, at least one urethane acrylate oligomer, at least one UV or thermal initiator, at least one reactive monomer capable of reacting with the lens casting monomer, and a combination of ketone solvents, acetate solvents or ketone and acetate solvents. at least one acrylic polymer, at least one urethane acrylate oligomer, at least one UV or thermal initiator, at least one reactive monomer capable of reacting with the lens casting monomer, and a combination of ketone solvents, acetate solvents or ketone and acetate solvents.
Peptide Aβ1-6 A2V (D) for use in a multi-target method of treating tau protein-related diseases, wherein said peptide is administered intranasally.
A method of measuring a three-dimensional (3-D) refractive index tensor, comprising: controlling incident light having a plane wave based on at least one angle of the incident light and a polarization of the incident light; and measuring, in a polarization-dependent way, two-dimensional (2-D) diffraction light of a sample for the incident light incident at the at least one angle of the incident light and with the polarization of the incident light, wherein a distribution of a 3-D birefringence and an alignment direction of molecules in the sample having birefringence is measured. controlling incident light having a plane wave based on at least one angle of the incident light and a polarization of the incident light; and measuring, in a polarization-dependent way, two-dimensional (2-D) diffraction light of a sample for the incident light incident at the at least one angle of the incident light and with the polarization of the incident light, wherein a distribution of a 3-D birefringence and an alignment direction of molecules in the sample having birefringence is measured.
A method for preparing a pigment for exterior materials comprising: (a) forming a pigment powder by coating an oxide layer including on surfaces of flakes used as a matrix; (b) forming a suspension having a solid content of 5% by weight (wt%) to 20 wt% by mixing the pigment powder with DI water, followed by stirring and dispersing the mixture; (c) dumping CeCl 3 to the suspension, followed by stirring for 5 minutes to 30 minutes; (d) heating the suspension of (c) to 60°C to 90°C, followed by stirring for 10 minutes to 60 minutes; (e) refluxing the suspension of (d) for 5 minutes to 30 minutes after adjusting a pH thereof to 1 to 5; (f) mixing the suspension of (e) with an Al(NO 3 ) 3 solution to maintain a constant pH and refluxing the suspension for 10 minutes to 60 minutes after injection of the solution; (g) adjusting the pH of the suspension of (f) to 3 to 9 while stirring the suspension; and (h) injecting a silane coupling solution into the suspension having an increased pH in (g) to maintain the pH and refluxing the suspension for 10 minutes to 30 minutes after injection of the silane coupling solution. (a) forming a pigment powder by coating an oxide layer including on surfaces of flakes used as a matrix; (b) forming a suspension having a solid content of 5% by weight (wt%) to 20 wt% by mixing the pigment powder with DI water, followed by stirring and dispersing the mixture; (c) dumping CeCl 3 to the suspension, followed by stirring for 5 minutes to 30 minutes; (d) heating the suspension of (c) to 60°C to 90°C, followed by stirring for 10 minutes to 60 minutes; (e) refluxing the suspension of (d) for 5 minutes to 30 minutes after adjusting a pH thereof to 1 to 5; (f) mixing the suspension of (e) with an Al(NO 3 ) 3 solution to maintain a constant pH and refluxing the suspension for 10 minutes to 60 minutes after injection of the solution; (g) adjusting the pH of the suspension of (f) to 3 to 9 while stirring the suspension; and (h) injecting a silane coupling solution into the suspension having an increased pH in (g) to maintain the pH and refluxing the suspension for 10 minutes to 30 minutes after injection of the silane coupling solution.
An arrangement for coating substrate surfaces by means of electric arc discharge in a vacuum chamber, in which electric arc discharges are ignited between a target electrically connected as a cathode, which is formed from a metallic material, and an anode arranged at a distance from the target to form a plasma formed with metallic material of the target , the target being connected to a first electrical current source and the anode being connected to a second electrical current source , the absolute values of the electrical voltages connected to the target and to the anode differing from one another. characterized in that a plurality of anodes are arranged at a distance from one another and in the direction of the respective substrate surface to be coated and are each connected to a separate electrical current source , the anodes each being connected to different electrical voltage potentials and therein a difference in the positive electrical voltage potential between two anodes arranged next to each other is maintained and the electrical voltage potentials increase in the direction of the substrate surface to be coated.
A method, comprising: providing a plurality of organic light emitting devices (OLEDs 310, 311, 312) on a first substrate wherein each OLED includes a transmissive top electrode and wherein the plurality of OLEDs comprises a first portion of OLEDs and a second portion of OLEDs that is different from the first portion , wherein the plurality of OLEDs comprises a plurality of red OLEDs , a plurality of green OLEDs , and a plurality of blue OLEDs ; depositing a first capping layer over at least the first portion of the plurality of OLEDs such that the first capping layer is optically coupled to at least the first portion of the plurality of OLEDs ; and depositing the first capping layer over at least the second portion of the plurality of OLEDs such that the first capping layer is optically coupled to the second portion of the plurality of OLEDs ; and depositing a second capping layer only over the second portion of the plurality of OLEDs such that the second capping layer is optically coupled to the second portion of the plurality of OLEDs but not the first portion of the plurality of OLEDs ; wherein the first portion of OLEDs comprises the plurality of blue OLEDs and wherein the second portion of OLEDs is the plurality of red OLEDs ; wherein the method is characterized in that the second capping layer is not deposited through a fine metal mask (FMM); and depositing the second capping layer comprises at least one of: laser induced thermal imaging (LITI) or laser induced pattern-wise sublimation (LIPS). providing a plurality of organic light emitting devices (OLEDs 310, 311, 312) on a first substrate wherein each OLED includes a transmissive top electrode and wherein the plurality of OLEDs comprises a first portion of OLEDs and a second portion of OLEDs that is different from the first portion , wherein the plurality of OLEDs comprises a plurality of red OLEDs , a plurality of green OLEDs , and a plurality of blue OLEDs ; depositing a first capping layer over at least the first portion of the plurality of OLEDs such that the first capping layer is optically coupled to at least the first portion of the plurality of OLEDs ; and depositing the first capping layer over at least the second portion of the plurality of OLEDs such that the first capping layer is optically coupled to the second portion of the plurality of OLEDs ; and depositing a second capping layer only over the second portion of the plurality of OLEDs such that the second capping layer is optically coupled to the second portion of the plurality of OLEDs but not the first portion of the plurality of OLEDs ; wherein the first portion of OLEDs comprises the plurality of blue OLEDs and wherein the second portion of OLEDs is the plurality of red OLEDs ; wherein the method is characterized in that the second capping layer is not deposited through a fine metal mask (FMM); and depositing the second capping layer comprises at least one of: laser induced thermal imaging (LITI) or laser induced pattern-wise sublimation (LIPS).
A method of welding, comprising: creating a weld puddle (P, 601A, 603A, 901, 903, 1012, 1022), in at least one workpiece (115, W1, W2), with at least one high intensity energy source ; characterized in determining an operational voltage range to maintain the voltage above a minimum amount, ensuring a high enough current to maintain the filler wire at or near its melting temperature, but below a voltage level such that no welding arc is created, heating at least one filler wire with a filler wire heating signal from a power source to a temperature such that said filler wire melts in said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022); directing said filler wire to said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022) such that said filler wire maintains contact with said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022) during a welding operation; maintaining said filler wire heating signal at a level below an upper threshold level such that no arc is created between said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022) and said filler wire , wherein, no shielding is employed during the welding operation, shutting off said filler wire heating signal when said upper threshold value is reached by said filler wire heating signal such that no arc is generated between said filler wire and said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022); and turning on said filler wire heating signal to continue heating said filler wire . creating a weld puddle (P, 601A, 603A, 901, 903, 1012, 1022), in at least one workpiece (115, W1, W2), with at least one high intensity energy source ; characterized in determining an operational voltage range to maintain the voltage above a minimum amount, ensuring a high enough current to maintain the filler wire at or near its melting temperature, but below a voltage level such that no welding arc is created, heating at least one filler wire with a filler wire heating signal from a power source to a temperature such that said filler wire melts in said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022); directing said filler wire to said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022) such that said filler wire maintains contact with said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022) during a welding operation; maintaining said filler wire heating signal at a level below an upper threshold level such that no arc is created between said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022) and said filler wire , wherein, no shielding is employed during the welding operation, shutting off said filler wire heating signal when said upper threshold value is reached by said filler wire heating signal such that no arc is generated between said filler wire and said weld puddle (P, 601A, 603A, 901, 903, 1012, 1022); and turning on said filler wire heating signal to continue heating said filler wire .
A collagen hydrogel which comprises a 3D fibrillar structure with micropores obtainable by a process comprising the following steps: a) providing an acidic mass of native Type I collagen fibers dispersed in water in a concentration comprised between 1-15% in weight; b) neutralizing the acidic mass to adjust the pH to physiological pH; and c) applying beta radiation to the neutralized mass of step b) in a range of up to 50 KGy; wherein: - the acidic mas has a pH comprised between 0.5-5; - the acidic mass comprises fibers, wherein at least 90% of the total mass of the fibers have a length comprised in a range from 10 μm to 2500 μm and a fiber diameter comprised in a range from 5 to 80 μm measured at a pH between 1 and 2; and wherein the median of the fiber length in the total mass of fibers of collagen is comprised between 100 and 900 μm. a) providing an acidic mass of native Type I collagen fibers dispersed in water in a concentration comprised between 1-15% in weight; b) neutralizing the acidic mass to adjust the pH to physiological pH; and c) applying beta radiation to the neutralized mass of step b) in a range of up to 50 KGy; - the acidic mas has a pH comprised between 0.5-5; - the acidic mass comprises fibers, wherein at least 90% of the total mass of the fibers have a length comprised in a range from 10 μm to 2500 μm and a fiber diameter comprised in a range from 5 to 80 μm measured at a pH between 1 and 2; and
An apparatus for a wireless communication system, wherein the apparatus is to transmit a reference signal on a common set of resource elements, REs, the common set of REs used by one or more further apparatuses in the wireless communication system to transmit the reference signal so that the reference signals of the apparatus and of the one or more further apparatuses use the same REs, the apparatus is to - transmit the reference signal using a plurality of OFDM symbols, each OFDM symbol having a comb structure, and some or all of the OFDM symbols having different comb offsets, and - apply the same sequence to each OFDM symbol, the sequence having a zero auto correlation property, the apparatus and the one or more further apparatus using for a common RE the same sequence, and the apparatus is to apply a phase correction to an OFDM symbol before transmission, wherein the phase correction is applied in the time domain or in the frequency domain by multiplying the OFDM symbol with a correction factor e jφ c , and wherein, for reducing phase discontinuities during SRS de-staggering, the correction factor e jφ c depends on the comb factor and the comb offset of the OFDM symbol and is independent of the resource element. the apparatus is to transmit a reference signal on a common set of resource elements, REs, the common set of REs used by one or more further apparatuses in the wireless communication system to transmit the reference signal so that the reference signals of the apparatus and of the one or more further apparatuses use the same REs, the apparatus is to - transmit the reference signal using a plurality of OFDM symbols, each OFDM symbol having a comb structure, and some or all of the OFDM symbols having different comb offsets, and - apply the same sequence to each OFDM symbol, the sequence having a zero auto correlation property, the apparatus and the one or more further apparatus using for a common RE the same sequence, and - transmit the reference signal using a plurality of OFDM symbols, each OFDM symbol having a comb structure, and some or all of the OFDM symbols having different comb offsets, and - apply the same sequence to each OFDM symbol, the sequence having a zero auto correlation property, the apparatus and the one or more further apparatus using for a common RE the same sequence, and the apparatus is to apply a phase correction to an OFDM symbol before transmission, wherein the phase correction is applied in the time domain or in the frequency domain by multiplying the OFDM symbol with a correction factor e jφ c , and wherein, for reducing phase discontinuities during SRS de-staggering, the correction factor e jφ c depends on the comb factor and the comb offset of the OFDM symbol and is independent of the resource element.
A method for wireless communication performed by a user equipment, UE, comprising: receiving a master information block, MIB, wherein the MIB comprises an indication of a presence of a common control resource set in a system bandwidth, the common control resource set configured to carry control information common to a plurality of UEs, wherein the common control resource set includes a common search space and a UE-specific search space, wherein each search space is formed by a set of indexed control channel elements, CCEs; identifying a location of the common control resource set in the system bandwidth based at least in part on the indication in the received MIB; monitoring, based at least in part on the presence of the common control resource set, the common search space of the common control resource set to detect common control information, wherein the common control information includes system information; monitoring, based at least in part on the presence of the common control resource set, the UE-specific search space of the common control resource set to detect UE-specific control information, wherein a starting index for the UE-specific search space depends on a cell radio network temporary identifier, C-RNTI; and communicating based at least in part on the common control information, the UE-specific control information, or both. receiving a master information block, MIB, wherein the MIB comprises an indication of a presence of a common control resource set in a system bandwidth, the common control resource set configured to carry control information common to a plurality of UEs, wherein the common control resource set includes a common search space and a UE-specific search space, wherein each search space is formed by a set of indexed control channel elements, CCEs; identifying a location of the common control resource set in the system bandwidth based at least in part on the indication in the received MIB; monitoring, based at least in part on the presence of the common control resource set, the common search space of the common control resource set to detect common control information, wherein the common control information includes system information; monitoring, based at least in part on the presence of the common control resource set, the UE-specific search space of the common control resource set to detect UE-specific control information, wherein a starting index for the UE-specific search space depends on a cell radio network temporary identifier, C-RNTI; and communicating based at least in part on the common control information, the UE-specific control information, or both.
Method for operating a sector antenna arrangement in a base station , wherein consumption meters transmit measurement data obtained from consumption meters to the base station by radio in the form of data packets or data telegrams, wherein the sector antenna arrangement comprises at least two sector antennas pointing in different directions, in particular in the horizontal plane, and comprises at least one receiver , wherein at least two sector antennas are each assigned to a receiver by virtue of the at least two sector antennas being connected to the at least one receiver via an antenna changeover switch , wherein the assigned sector antennas are connected to the receiver variably over time, wherein the sector antennas are connected to the receiver via the antenna changeover switch , wherein the antenna changeover switch is time-controlled and the sector antennas are appropriately matched to the transmission intervals of the consumption meters, and wherein there is provision for changeover switching patterns for the switching operations of the sector antennas in such a way that the sector antennas are connected to the receiver at staggered times such that the respectively assigned sector antennas are not connected to the receiver at the same time.
A cooling tower fan comprising: a fan body , with a motor and fan blades; a fan support assembly configured to permit removal and installation of an integral-motor fan from below the fan deck, comprising: a fan shroud ; a plurality of support bolts fixed to said fan shroud; said support bolts fixed to an inside surface of the fan shroud, and face inwardly; the support assembly comprising a fan attachment portion and a plurality of support struts ; said support struts configured to align with said support bolts; and the support struts arranged to be supported by the support bolts; and the fan attachment portion of the support assembly is configured to be connected with the fan body of the fan and wherein the fan further comprises a power cable connected to the top portion of said fan body and wherein, in use, a sufficient length of a power cable is secured above said fan which permits said fan and support assembly to be lowered from said fan shroud whilst the power cable remains connected to a top portion of the fan body. a fan shroud ; a plurality of support bolts fixed to said fan shroud; said support bolts fixed to an inside surface of the fan shroud, and face inwardly; the support assembly comprising a fan attachment portion and a plurality of support struts ; said support struts configured to align with said support bolts; and the support struts arranged to be supported by the support bolts; and the fan attachment portion of the support assembly is configured to be connected with the fan body of the fan and wherein the fan further comprises a power cable connected to the top portion of said fan body and wherein, in use, a sufficient length of a power cable is secured above said fan which permits said fan and support assembly to be lowered from said fan shroud whilst the power cable remains connected to a top portion of the fan body.
A method for determining the location of a tumour in the pancreas of an individual with pancreatic cancer, the method comprising or consisting of the steps of: a) providing a sample to be tested from the individual; b) determining a biomarker signature of the test sample by measuring the expression in the test sample of two or more biomarkers selected from the group defined in Table A (i), (ii) or (iii); wherein the two or more biomarkers selected from the group defined in Table A (i), (ii) or (iii) include PR domain zinc finger protein 14 (PRD14) and kinetochore protein NDC80 homolog (HsHec1); and wherein the expression in the test sample of the two or more biomarkers selected from the group defined in Table A (i), (ii) or (iii) is indicative of the location of the tumour in the pancreas of the individual. a) providing a sample to be tested from the individual; b) determining a biomarker signature of the test sample by measuring the expression in the test sample of two or more biomarkers selected from the group defined in Table A (i), (ii) or (iii);
A heart pump apparatus for assisting the heart of a human patient, the heart pump apparatus comprising a turbine pump adapted to be placed in a blood stream in the human patient, the turbine pump having a first centre axis free rotating body adapted to be placed in a blood vessel of the patient; and a second centre axis free rotating body adapted to be placed in sequence with the first rotating body in the blood vessel, to provide the heart of the human patient with additional pumping capacity.
A pharmaceutical composition comprising an improved Cell-Permeable (iCP)-SOCS3 recombinant protein as an active ingredient and a pharmaceutically acceptable carrier, for use in the treatment, prevention, or delaying the onset of, solid tumor, wherein the iCP-SOCS3 recombinant protein comprises an advanced macromolecule transduction domain (aMTD) and a SOCS3 protein, and wherein the aMTD has an amino acid sequence of SEQ ID NO: 122.