mhurhangee/patent-ind-claim-en huggingface dataset:
Use of - at least one amidine of the formula (I) Y-A-Z (I) where A is a divalent hydrocarbyl radical which has 2 to 30 carbon atoms and optionally contains unsaturated components and optionally ether oxygen or secondary or tertiary amine nitrogen, Y is NR 8 R 9 or is NHR 7 , where R 7 is a hydrogen radical or is an alkyl or cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, and R 8 and R 9 are independently an alkyl radical having 1 to 8 carbon atoms, or together are an optionally substituted alkylene radical having 4 to 10 carbon atoms, and Z is an amidine group bonded via a nitrogen atom, where Y and Z are separated from one another by at least two carbon atoms, and/or of - at least one reaction product of at least one amidine of the formula (I) with at least one functional compound as catalyst for the crosslinking of a composition based on polymers containing silane groups, where A is not a polyoxyalkylene radical and where the amidine of the formula (I) does not contain any nitrogen atom which is directly bonded to an aromatic ring or is part of a heteroaromatic ring system. - at least one amidine of the formula (I) Y-A-Z (I) where A is a divalent hydrocarbyl radical which has 2 to 30 carbon atoms and optionally contains unsaturated components and optionally ether oxygen or secondary or tertiary amine nitrogen, Y is NR 8 R 9 or is NHR 7 , where R 7 is a hydrogen radical or is an alkyl or cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, and R 8 and R 9 are independently an alkyl radical having 1 to 8 carbon atoms, or together are an optionally substituted alkylene radical having 4 to 10 carbon atoms, and Z is an amidine group bonded via a nitrogen atom, where Y and Z are separated from one another by at least two carbon atoms, and/or of A is a divalent hydrocarbyl radical which has 2 to 30 carbon atoms and optionally contains unsaturated components and optionally ether oxygen or secondary or tertiary amine nitrogen, Y is NR 8 R 9 or is NHR 7 , where R 7 is a hydrogen radical or is an alkyl or cycloalkyl or aralkyl radical having 1 to 8 carbon atoms, and R 8 and R 9 are independently an alkyl radical having 1 to 8 carbon atoms, or together are an optionally substituted alkylene radical having 4 to 10 carbon atoms, and Z is an amidine group bonded via a nitrogen atom, where Y and Z are separated from one another by at least two carbon atoms, - at least one reaction product of at least one amidine of the formula (I) with at least one functional compound as catalyst for the crosslinking of a composition based on polymers containing silane groups, where A is not a polyoxyalkylene radical and where the amidine of the formula (I) does not contain any nitrogen atom which is directly bonded to an aromatic ring or is part of a heteroaromatic ring system.
Method for producing a porous material for use as a catalyst material, comprising: pressing and sintering a mixture that comprises an oxide and nanoparticles in order to produce a ceramic template , wherein the oxide comprises a first substance and the nanoparticles comprise a second substance; and performing a chemical vapour deposition process by supplying a gas containing hydrogen and carbon at a temperature that is higher than a melting point of the first substance and lower than a melting point of the second substance, wherein the oxide is reduced, the first substance is evaporated and the carbon is deposited. pressing and sintering a mixture that comprises an oxide and nanoparticles in order to produce a ceramic template , wherein the oxide comprises a first substance and the nanoparticles comprise a second substance; and performing a chemical vapour deposition process by supplying a gas containing hydrogen and carbon at a temperature that is higher than a melting point of the first substance and lower than a melting point of the second substance, wherein the oxide is reduced, the first substance is evaporated and the carbon is deposited.
A method for providing an array, comprising: a) irradiating a substrate comprising a plurality of masked spot regions and an unmasked boundary region between the plurality of masked spot regions, whereby a photoresist in the boundary region is degraded to render the boundary region available for blocking or ablation of oligonucleotide molecules in the boundary region, whereas the spot regions are protected by a photoresist in the spot regions from oligonucleotide blocking or ablation; b) blocking or ablating oligonucleotide molecules in the boundary region; c) irradiating the substrate to render an oligonucleotide molecule immobilized in a first one or more of the spot regions on the substrate available for oligonucleotide attachment, whereas an oligonucleotide molecule immobilized in one or more other spot regions on the substrate are not available for oligonucleotide attachment; and d) attaching a first oligonucleotide of at least four nucleotides in length to the oligonucleotide molecule immobilized in the first one or more of the spot regions to provide an extended oligonucleotide molecule in the first one or more of the spot regions. a) irradiating a substrate comprising a plurality of masked spot regions and an unmasked boundary region between the plurality of masked spot regions, whereby a photoresist in the boundary region is degraded to render the boundary region available for blocking or ablation of oligonucleotide molecules in the boundary region, whereas the spot regions are protected by a photoresist in the spot regions from oligonucleotide blocking or ablation; b) blocking or ablating oligonucleotide molecules in the boundary region; c) irradiating the substrate to render an oligonucleotide molecule immobilized in a first one or more of the spot regions on the substrate available for oligonucleotide attachment, whereas an oligonucleotide molecule immobilized in one or more other spot regions on the substrate are not available for oligonucleotide attachment; and d) attaching a first oligonucleotide of at least four nucleotides in length to the oligonucleotide molecule immobilized in the first one or more of the spot regions to provide an extended oligonucleotide molecule in the first one or more of the spot regions.
A T-cell genetically modified to express at least two distinct separate chimeric antigen receptors (CARs), wherein the first CAR comprises an antigen binding domain that binds specifically to CD138 and the second CAR comprises an antigen binding domain that binds specifically to CD38.
A container that is secured entirely within a support structure having a fixed volume, said container comprising: a) a product therein; b) an outer surface having a periphery ; c) equipment , coupled to the outer surface, that provides communication to the product in said container and comprises at least one valve coupled to a leg of a secondary transport line or to a product tube for providing communication to the interior of the container ; and d) a manway that is releasably secured to the container via releasable securement means such that the manway can be removed, thereby providing direct access to the inside of the container ; e) said equipment being fixedly or releasably secured to the manway , thus, when the manway is removed, the equipment is removed with the manway thereby providing for an opening of the container to be unobstructed; wherein - the manway rests on an annular shoulder of the opening in the container; and wherein - the respective one of the leg and the product tube is fixedly or releasably secured (via the valve 10) to the manway; and wherein - said outer surface further comprises a recess for locating said equipment therein, said recess preventing said equipment from protruding beyond said periphery of said outer surface; characterized in that the recess comprises a base and the base comprises the manway . a) a product therein; b) an outer surface having a periphery ; c) equipment , coupled to the outer surface, that provides communication to the product in said container and comprises at least one valve coupled to a leg of a secondary transport line or to a product tube for providing communication to the interior of the container ; and d) a manway that is releasably secured to the container via releasable securement means such that the manway can be removed, thereby providing direct access to the inside of the container ; e) said equipment being fixedly or releasably secured to the manway , thus, when the manway is removed, the equipment is removed with the manway thereby providing for an opening of the container to be unobstructed; wherein - the manway rests on an annular shoulder of the opening in the container; and wherein - the respective one of the leg and the product tube is fixedly or releasably secured (via the valve 10) to the manway; and wherein - said outer surface further comprises a recess for locating said equipment therein, said recess preventing said equipment from protruding beyond said periphery of said outer surface; characterized in that the recess comprises a base and the base comprises the manway . - the manway rests on an annular shoulder of the opening in the container; and wherein - the respective one of the leg and the product tube is fixedly or releasably secured (via the valve 10) to the manway; and wherein - said outer surface further comprises a recess for locating said equipment therein, said recess preventing said equipment from protruding beyond said periphery of said outer surface; characterized in that the recess comprises a base and the base comprises the manway .
A light detection and ranging, LIDAR, system comprising: a laser source configured to provide an optical signal at a first signal power; a pulse envelope generator configured to generate a pulse envelope signal by splitting the optical signal into a first optical signal and a second optical signal and based on a relative phase difference between the first optical signal and the second optical signal; an amplifier having a plurality of gain configurations, wherein the amplifier is configured to receive the pulse envelope signal and amplify the pulse envelope signal based on a gain configuration of the plurality of gain configurations; and one or more processors configured to: adjust the gain configuration of the amplifier across two or more of the plurality of gain configurations to cause the amplifier to generate the pulse envelope signal at a second signal power, wherein the second signal power is greater than the first signal power by at least an amount corresponding to an inverse of a duty cycle of the optical signal. a laser source configured to provide an optical signal at a first signal power; a pulse envelope generator configured to generate a pulse envelope signal by splitting the optical signal into a first optical signal and a second optical signal and based on a relative phase difference between the first optical signal and the second optical signal; an amplifier having a plurality of gain configurations, wherein the amplifier is configured to receive the pulse envelope signal and amplify the pulse envelope signal based on a gain configuration of the plurality of gain configurations; and one or more processors configured to: adjust the gain configuration of the amplifier across two or more of the plurality of gain configurations to cause the amplifier to generate the pulse envelope signal at a second signal power, wherein the second signal power is greater than the first signal power by at least an amount corresponding to an inverse of a duty cycle of the optical signal.
A method of a network node, comprising: transmitting a first message with a Data Radio Bearer, DRB, configuration to a User Equipment, UE, for establishing a default DRB for a Protocol Data Unit, PDU, session, wherein the DRB configuration includes a QoS Flow Id, QFI, configuration used to indicate whether a QFI field is present or not in uplink for the default DRB and the QFI configuration is always set to a value indicating the QFI field is present in uplink for the default DRB ; establishing the default DRB with a presence of the QFI field in uplink ; and receiving a Service Data Adaptation Protocol, SDAP, PDU with the QFI field via the default DRB from the UE . transmitting a first message with a Data Radio Bearer, DRB, configuration to a User Equipment, UE, for establishing a default DRB for a Protocol Data Unit, PDU, session, wherein the DRB configuration includes a QoS Flow Id, QFI, configuration used to indicate whether a QFI field is present or not in uplink for the default DRB and the QFI configuration is always set to a value indicating the QFI field is present in uplink for the default DRB ; establishing the default DRB with a presence of the QFI field in uplink ; and receiving a Service Data Adaptation Protocol, SDAP, PDU with the QFI field via the default DRB from the UE .
A container for storing a powder mixture during heat treatment in a furnace , wherein the container is bounded by a lateral wall having a bottom edge and a top edge , characterized in that the lateral wall comprises a plurality of receptacles passing through the wall from the bottom edge to the top edge , for releasable fastening of spacers , which in the installed state allow contactless stacking of a plurality of containers one above the other, in that the spacers project beyond the wall of the container at the top edge and at the bottom edge in the installed state, and can be locked within the receptacle. wherein the container is bounded by a lateral wall having a bottom edge and a top edge , characterized in that the lateral wall comprises a plurality of receptacles passing through the wall from the bottom edge to the top edge , for releasable fastening of spacers , which in the installed state allow contactless stacking of a plurality of containers one above the other, in that the spacers project beyond the wall of the container at the top edge and at the bottom edge in the installed state, and can be locked within the receptacle.
A device for turning over an individual coating sheet from an individual stack of sheets , with a pull-over strip for pulling the coating sheet in the drawing direction to a pre-stretch table , characterized in that the device has a turning strip which is arranged below the table level of the pre-stretch table in a head region of the pre-stretch table facing the stack of sheets , which possesses contact means, which can determine the end of a coating sheet pulled over from the pull-over strip to a turning place of the pre-stretch table and that the turning strip is rotatably mounted upward, forward and over its longitudinal axis parallel to the coating sheet end by up to 180° and that the device further has a drawing strip with contact means, which is movably mounted from a transfer position of the pre-turning strip lifted and moved in the drawing direction and rotated by up to 180° to a storage place of a turned coating sheet on the pre-stretch table .
Electrosurgical system comprising: - an electrosurgical supply device , and - an electrosurgical instrument , wherein the electrosurgical instrument comprises a memory element which can be read out and written to by the electrosurgical supply device when the electrosurgical instrument is connected to the electrosurgical supply device , wherein the electrosurgical supply device is configured to write operating data to the memory element , characterized in that the operating data are stored on the storage element in a data structure which comprises a first operating data element and a second operating data element , and in that the electrosurgical supply device is configured to write operating data alternately to the first operating data element or the second operating data element . - an electrosurgical supply device , and - an electrosurgical instrument , wherein the electrosurgical instrument comprises a memory element which can be read out and written to by the electrosurgical supply device when the electrosurgical instrument is connected to the electrosurgical supply device , wherein the electrosurgical supply device is configured to write operating data to the memory element , characterized in that the operating data are stored on the storage element in a data structure which comprises a first operating data element and a second operating data element , and in that the electrosurgical supply device is configured to write operating data alternately to the first operating data element or the second operating data element . the electrosurgical instrument comprises a memory element which can be read out and written to by the electrosurgical supply device when the electrosurgical instrument is connected to the electrosurgical supply device , wherein the electrosurgical supply device is configured to write operating data to the memory element , characterized in that the operating data are stored on the storage element in a data structure which comprises a first operating data element and a second operating data element , and in that the electrosurgical supply device is configured to write operating data alternately to the first operating data element or the second operating data element .
A method for obtaining images of an object of interest using a tomosynthesis system comprising an x-ray source facing a detector, the method comprising: acquiring a plurality of 2D projection images of the object of interest in a plurality of orientations; generating at least one 3D volume portion of the object of interest from the plurality of 2D projection images, wherein the impulse response of a point object is independent of the object's position in the direction perpendicular to the detector (z-axis) of the 3D volume portion; and displaying the at least one 3D volume portion; wherein at least three temporary tomosynthesis planes are generated comprising a central plane and further tomosynthesis planes composing the at least one 3D volume portion, said generating step further comprising: high-pass filtering the tomosynthesis planes composing the 3D volume portion and projecting the said further tomosynthesis planes composing the 3D volume portion on the central plane; combining each projected plane with a maximum intensity pixel (MIP) method resulting in MIP processed data; low pass filtering the central plane; and generating a slabbed image of the 3D volume portion by combining the MIP processed data with the low pass filtered central plane. acquiring a plurality of 2D projection images of the object of interest in a plurality of orientations; generating at least one 3D volume portion of the object of interest from the plurality of 2D projection images, wherein the impulse response of a point object is independent of the object's position in the direction perpendicular to the detector (z-axis) of the 3D volume portion; and displaying the at least one 3D volume portion; wherein at least three temporary tomosynthesis planes are generated comprising a central plane and further tomosynthesis planes composing the at least one 3D volume portion, said generating step further comprising: high-pass filtering the tomosynthesis planes composing the 3D volume portion and projecting the said further tomosynthesis planes composing the 3D volume portion on the central plane; combining each projected plane with a maximum intensity pixel (MIP) method resulting in MIP processed data; low pass filtering the central plane; and generating a slabbed image of the 3D volume portion by combining the MIP processed data with the low pass filtered central plane. high-pass filtering the tomosynthesis planes composing the 3D volume portion and projecting the said further tomosynthesis planes composing the 3D volume portion on the central plane; combining each projected plane with a maximum intensity pixel (MIP) method resulting in MIP processed data; low pass filtering the central plane; and generating a slabbed image of the 3D volume portion by combining the MIP processed data with the low pass filtered central plane.
Aircraft flight contrail assessment device comprising: - at least one sensor, called contrail sensor, adapted to produce data, called contrails data, representative of: ∘ an atmosphere parameter having an influence on the formation of contrails, and preferably of ∘ an observation parameter varying depending on at least the presence of one or more contrails, - a processing unit, adapted to calculate, based on at least said contrails data, at least a contrails value representative of an amount of contrail, characterized in that the processing unit is adapted to: - receive atmosphere data representative of atmosphere parameters on potential flight paths in front of the aircraft, - simulate the contrails value on different potential paths ahead and provide a recommendation about a flight path minimizing the contrails amount. - at least one sensor, called contrail sensor, adapted to produce data, called contrails data, representative of: ∘ an atmosphere parameter having an influence on the formation of contrails, and preferably of ∘ an observation parameter varying depending on at least the presence of one or more contrails, ∘ an atmosphere parameter having an influence on the formation of contrails, and preferably of ∘ an observation parameter varying depending on at least the presence of one or more contrails, - a processing unit, adapted to calculate, based on at least said contrails data, at least a contrails value representative of an amount of contrail, - receive atmosphere data representative of atmosphere parameters on potential flight paths in front of the aircraft, - simulate the contrails value on different potential paths ahead and provide a recommendation about a flight path minimizing the contrails amount.
A method for manufacturing decorative surfaces including, in order, the steps of: a) inkjet printing and UV curing an image on a first thermoplastic foil using a pigmented UV curable inkjet ink; b) applying a second thermoplastic foil on the inkjet printed image; and c) heat pressing the first and second thermoplastic foils into a decorative laminate; wherein the pigmented UV curable inkjet ink contains a polymerizable composition having 35 to 70 wt% of monofunctional polymerizable compounds and 30 to 65 wt% of polyfunctional polymerizable compounds, wherein the weight percentage wt% is based on the total weight of the polymerizable composition; wherein the pigmented UV curable inkjet ink contains a pigment in an amount of 0.1 to 20 wt% based on the total weight of the pigmented UV curable inkjet ink; and wherein at least one of the first and second thermoplastic foils is a transparent foil. a) inkjet printing and UV curing an image on a first thermoplastic foil using a pigmented UV curable inkjet ink; b) applying a second thermoplastic foil on the inkjet printed image; and c) heat pressing the first and second thermoplastic foils into a decorative laminate;
Ex-vivo use of a differentiation-inducing composition for inducing cell differentiation, the differentiation-inducing composition comprising a cysteine protease degradation product of a collagen or an atelocollagen, the degradation product containing at least a portion of a triple helical domain of the collagen or the atelocollagen.