mhurhangee/patent-ind-claim-en huggingface dataset:
A light-emitting assembly , comprising: a first substrate defining a light-transmitting area (TA), and a first surface configured for receiving touches; a light guide layer on a side of the first substrate away from the first surface ; a plurality of light emitters in the light guide layer , the plurality of light emitters being configured to project light to illuminate the light-transmitting area (TA); a touch sensor in the light guide layer and opposite to the light-transmitting area (TA); a first reflective layer between the first substrate and the light guide layer , the first reflective layer comprising an opening aligned with the light-transmitting area (TA); a second reflective layer on a side of the light guide layer away from the first substrate ; characterized in that the light-emitting assembly further comprises a diffusion layer configured to diffuse and homogenize light emitted by the plurality of light emitters ; wherein the diffusion layer is on a side of the first reflective layer away from the first substrate , or the diffusion layer is on a side of the second reflective layer adjacent to the light guide layer , or the diffusion layer is on a side of the first reflective layer away from the first substrate and on a side of the second reflective layer adjacent to the light guide layer . a first substrate defining a light-transmitting area (TA), and a first surface configured for receiving touches; a light guide layer on a side of the first substrate away from the first surface ; a plurality of light emitters in the light guide layer , the plurality of light emitters being configured to project light to illuminate the light-transmitting area (TA); a touch sensor in the light guide layer and opposite to the light-transmitting area (TA); a first reflective layer between the first substrate and the light guide layer , the first reflective layer comprising an opening aligned with the light-transmitting area (TA); a second reflective layer on a side of the light guide layer away from the first substrate ; characterized in that the light-emitting assembly further comprises a diffusion layer configured to diffuse and homogenize light emitted by the plurality of light emitters ; wherein the diffusion layer is on a side of the first reflective layer away from the first substrate , or the diffusion layer is on a side of the second reflective layer adjacent to the light guide layer , or the diffusion layer is on a side of the first reflective layer away from the first substrate and on a side of the second reflective layer adjacent to the light guide layer .
Rocker structure (R1-R2-R3) for a vehicle, in which a longitudinal direction (L), a transversal direction (T) and a vertical direction (V) are defined, so that the three directions (L, T, V) are orthogonal to each other, the rocker structure (R1-R2-R3) comprising a first steel profile and a second steel profile , such that, when the rocker structure (R1-R2-R3) is mounted on the vehicle the profiles have the longitudinal direction (L), in each of the first and second profiles a concavity, an upper joining flange and a lower joining flange are defined, the profiles being joined therebetween by their upper and lower joining flanges so that a channel (CH) is defined between the two profiles , the first profile comprising a central section having substantially the vertical direction (V), the second profile comprising a central section having substantially the vertical direction (V), the rocker structure (R1-R2-R3) further comprising a first impact absorption element arranged in the channel (CH), the first impact absorption element is a closed steel profile wherein an upper lobe and a lower lobe joined by a central joining section are defined, the upper lobe being located closer to the upper joining flanges and the lower lobe being located closer to the lower joining flanges ; characterized in that an upper side of the upper lobe and a lower side of the lower lobe are made of two linear portions parallel and arranged on a same line separated by a curved central portion .
An actuator assembly comprising an actuator , an axially moveable lock bolt and a release mechanism, moveable relative to the lock bolt to prevent or permit axial movement of the lock bolt, and hence deployment of the actuator; characterised in that the release mechanism comprises: a longitudinal member moveable along an axis between a lock position and a release position; a linkage assembly ; and a rotational drive means ; wherein the linkage assembly comprises a first link pivotally connected to the longitudinal member and pivotally connected to a second link at a pivot point , the second link fixedly connected to the rotational drive means to rotate, with the rotational drive means, around a centre of rotation , and wherein rotation of the second link causes the pivot point to rotate about the centre of rotation causing axial movement of the longitudinal member. a longitudinal member moveable along an axis between a lock position and a release position; a linkage assembly ; and a rotational drive means ; a linkage assembly ; and a rotational drive means ; wherein the linkage assembly comprises a first link pivotally connected to the longitudinal member and pivotally connected to a second link at a pivot point , the second link fixedly connected to the rotational drive means to rotate, with the rotational drive means, around a centre of rotation , and wherein rotation of the second link causes the pivot point to rotate about the centre of rotation causing axial movement of the longitudinal member.
Metering and weighing apparatus for bulk goods, comprising: - a housing with an inlet opening and an outlet opening for a product to be weighed and metered; - a weighing surface which can be moved, in particular can be pivoted, between a weighing position and a metering position by means of an operating device and is operatively connected to at least one weight sensor , wherein, ∘ in the weighing position, a product flow between the inlet opening and the outlet opening is prevented and therefore a weight of the product bearing on the weighing surface can be determined by means of the at least one weight sensor , and ∘ in the metering position, the product flow between the inlet opening and the outlet opening is at least partially enabled, and - a control unit which is designed at least for controlling the operating device and is connected to the at least one weight sensor , characterized in that means for determining a gas pressure difference between a pressure in the housing upstream of the weighing surface in a product flow direction and a pressure in the housing downstream of the weighing surface in the product flow direction are provided and the determined pressure difference is used by means of the control unit for correcting the weight which is determined by the weight sensor . - a housing with an inlet opening and an outlet opening for a product to be weighed and metered; - a weighing surface which can be moved, in particular can be pivoted, between a weighing position and a metering position by means of an operating device and is operatively connected to at least one weight sensor , wherein, ∘ in the weighing position, a product flow between the inlet opening and the outlet opening is prevented and therefore a weight of the product bearing on the weighing surface can be determined by means of the at least one weight sensor , and ∘ in the metering position, the product flow between the inlet opening and the outlet opening is at least partially enabled, and ∘ in the weighing position, a product flow between the inlet opening and the outlet opening is prevented and therefore a weight of the product bearing on the weighing surface can be determined by means of the at least one weight sensor , and ∘ in the metering position, the product flow between the inlet opening and the outlet opening is at least partially enabled, and - a control unit which is designed at least for controlling the operating device and is connected to the at least one weight sensor ,
System, in particular for determining the location of a force exerted by a vehicle wheel and/or axle load and/or total weight of a vehicle, comprising a road surface with a carriageway , at least one sensor device , and also a read-out unit , said sensor device comprising an elongated support which is disposed under the carriageway transversely in relation to the carriageway , and said support being provided with a plurality of measuring zones which are separated from one another in the longitudinal direction of the support by intermediate zones , characterized, in that the axial rigidity of the measuring zones in a direction perpendicular to the carriageway is greater than theaxial rigidity of the intermediate zones in a direction perpendicular to the carriageway , in that each measuring zone is provided with at least one sensor to measure the local deformation of this measuring zone in response to a force exerted substantially perpendicular to the carriageway , and in that each sensor is connected to the read-out unit in such a way that each sensor can be read out separately by the read-out unit .
A secondary battery comprising: an electrode body including a positive electrode and a negative electrode ; and a battery case configured to house the electrode body , wherein the battery case includes an exterior body that is a flat quadrangular container of which one surface side forms an opening portion, a flat rectangular sealing plate configured to close the opening portion of the exterior body , and a gas discharge valve provided in the sealing plate , and a thickness T1 of the sealing plate , a length L1 of a short side of the sealing plate , a length L2 of a long side of the sealing plate , and a length L3 of the gas discharge valve in a short side direction of the sealing plate satisfy the following expressions to : T 1 / L1 ≤ 0.1 L2 / L 1 ≥ 6 L3 / L 1 ≥ 0.4 an electrode body including a positive electrode and a negative electrode ; and a battery case configured to house the electrode body , wherein the battery case includes an exterior body that is a flat quadrangular container of which one surface side forms an opening portion, a flat rectangular sealing plate configured to close the opening portion of the exterior body , and a gas discharge valve provided in the sealing plate , and a thickness T1 of the sealing plate , a length L1 of a short side of the sealing plate , a length L2 of a long side of the sealing plate , and a length L3 of the gas discharge valve in a short side direction of the sealing plate satisfy the following expressions to : T 1 / L1 ≤ 0.1 L2 / L 1 ≥ 6 L3 / L 1 ≥ 0.4
A method for wireless communications at a user equipment, UE, comprising: receiving , from a base station, control signaling identifying a configuration that indicates a plurality of random access channel occasion types and a channel quality threshold for each random access channel occasion type of the plurality of random access channel occasion types, the plurality of random access channel occasion types comprising a time division multiplexing type, a frequency division multiplexing type, a spatial division multiplexing type, or a combination thereof; selecting , based at least in part on the configuration and a channel quality between the UE and the base station, a random access channel occasion type of the plurality of random access channel occasion types and a random access channel occasion associated with the selected random access channel occasion type; and transmitting a random access channel preamble in the selected random access channel occasion type based at least in part on a multiplexing scheme comprising the selected random access channel occasion type. receiving , from a base station, control signaling identifying a configuration that indicates a plurality of random access channel occasion types and a channel quality threshold for each random access channel occasion type of the plurality of random access channel occasion types, the plurality of random access channel occasion types comprising a time division multiplexing type, a frequency division multiplexing type, a spatial division multiplexing type, or a combination thereof; selecting , based at least in part on the configuration and a channel quality between the UE and the base station, a random access channel occasion type of the plurality of random access channel occasion types and a random access channel occasion associated with the selected random access channel occasion type; and transmitting a random access channel preamble in the selected random access channel occasion type based at least in part on a multiplexing scheme comprising the selected random access channel occasion type.
A method of configuring, in a network node of a wireless communication network , a reference signal resource used to perform channel-state information, CSI, measurements with one or more wireless devices in the wireless communication network , the method comprising: aggregating a reference signal resource in one or more of a frequency and a time domain; and adjusting a density characteristic of the aggregated reference signal resource that is to be transmitted to the one or more wireless devices ; characterized in that the density characteristic includes a number of ports in a radio access node from which the aggregated reference signal resource is to be transmitted, and the adjustment of the density characteristic is based at least partially on a beam management control parameter. aggregating a reference signal resource in one or more of a frequency and a time domain; and adjusting a density characteristic of the aggregated reference signal resource that is to be transmitted to the one or more wireless devices ; characterized in that the density characteristic includes a number of ports in a radio access node from which the aggregated reference signal resource is to be transmitted, and the adjustment of the density characteristic is based at least partially on a beam management control parameter.
A ferritic stainless steel, consisting of, in mass %: 0.001% ≤ C ≤ 0.020%, 0.05% ≤ Si ≤ 0.50%, 0.1% ≤ Mn ≤ 1.0%, 15.0% ≤ Cr ≤ 25.0%, Mo ≤ 0.50%, 0.50% ≤ W ≤ 5.00%, and 0.01% ≤ Nb ≤ 0.50%, and P ≤ 0.050%, O ≤ 0.0300%, N ≤ 0.0350% and optionally: 0.1 ≤ Cu < 0.50%, 0.1 ≤ Ni ≤ 2.0%, 0.001 ≤ Al ≤ 0.50%, 0.01 ≤ Ti < 0.10%, 0.01 ≤ Ta ≤ 0.50%, 0.0001 ≤ B ≤ 0.0080%, 0.0005 ≤ Mg ≤ 0.0100%, and/or 0.0005 ≤ Ca ≤ 0.0100%, with a balance being Fe and unavoidable impurities, having a proportion by weight of coarse Laves phase having a diameter of 0.50 μm or more to the whole weight of the ferritic stainless steel of 0.10% or less measured according to the description, and having an average grain size being 30 μm or more and 200 μm or less measured according to the description. 0.001% ≤ C ≤ 0.020%, 0.05% ≤ Si ≤ 0.50%, 0.1% ≤ Mn ≤ 1.0%, 15.0% ≤ Cr ≤ 25.0%, Mo ≤ 0.50%, 0.50% ≤ W ≤ 5.00%, and 0.01% ≤ Nb ≤ 0.50%, and P ≤ 0.050%, O ≤ 0.0300%, N ≤ 0.0350% and 0.1 ≤ Cu < 0.50%, 0.1 ≤ Ni ≤ 2.0%, 0.001 ≤ Al ≤ 0.50%, 0.01 ≤ Ti < 0.10%, 0.01 ≤ Ta ≤ 0.50%, 0.0001 ≤ B ≤ 0.0080%, 0.0005 ≤ Mg ≤ 0.0100%, and/or 0.0005 ≤ Ca ≤ 0.0100%, with a balance being Fe and unavoidable impurities,
A gas turbine component comprising: a first airfoil comprising a first leading edge , a first trailing edge , a first suction side extending from said first leading edge to said first trailing edge, and a first pressure side extending from said first leading edge to said first trailing edge opposite said first suction side; a second airfoil , adjacent the first airfoil , comprising a second leading edge , a second trailing edge , a second suction side extending from said second leading edge to said second trailing edge, and a second pressure side extending from said second leading edge to said second trailing edge opposite said second suction side; a thermal barrier coating applied to said second pressure side of said second airfoil , wherein said thermal barrier coating is not applied to said first pressure side of said first airfoil ; and wherein said thermal barrier coating is applied to said second pressure side such that an uncoated margin is defined on said second pressure side at said second trailing edge , wherein the first airfoil and the second airfoil define a throat of minimum area between the first airfoil and the second airfoil , and wherein said thermal barrier coating is not applied to said first pressure side within the throat . a first airfoil comprising a first leading edge , a first trailing edge , a first suction side extending from said first leading edge to said first trailing edge, and a first pressure side extending from said first leading edge to said first trailing edge opposite said first suction side; a second airfoil , adjacent the first airfoil , comprising a second leading edge , a second trailing edge , a second suction side extending from said second leading edge to said second trailing edge, and a second pressure side extending from said second leading edge to said second trailing edge opposite said second suction side; a thermal barrier coating applied to said second pressure side of said second airfoil , wherein said thermal barrier coating is not applied to said first pressure side of said first airfoil ; and wherein said thermal barrier coating is applied to said second pressure side such that an uncoated margin is defined on said second pressure side at said second trailing edge , wherein the first airfoil and the second airfoil define a throat of minimum area between the first airfoil and the second airfoil , and wherein said thermal barrier coating is not applied to said first pressure side within the throat .
A method for wireless communication, comprising: determining a user-specific insertion period offset; inserting channel or interference estimation modulation symbols into a sequence of data modulation symbols; wherein the channel or interference estimation modulation symbols are inserted into the sequence of data modulation symbols in accordance with the user-specific insertion period offset; performing a discrete Fourier transform (DFT) on a group of modulation symbols in the sequence of data modulation symbols, the group of modulation symbols including at least one of the channel or interference estimation modulation symbols; and generating a single-carrier frequency domain modulated (SC-FDM) symbol stream based at least in part on an output of the DFT. determining a user-specific insertion period offset; inserting channel or interference estimation modulation symbols into a sequence of data modulation symbols; wherein the channel or interference estimation modulation symbols are inserted into the sequence of data modulation symbols in accordance with the user-specific insertion period offset; performing a discrete Fourier transform (DFT) on a group of modulation symbols in the sequence of data modulation symbols, the group of modulation symbols including at least one of the channel or interference estimation modulation symbols; and generating a single-carrier frequency domain modulated (SC-FDM) symbol stream based at least in part on an output of the DFT.
Radial fan for a household appliance, in particular for a cooking appliance, with a main delivery unit and an additional delivery unit , which have intake areas (AH, AZ) which are spatially separated from one another by a baffle plate in each case, and in which the main delivery unit is provided to deliver the air taken in from the intake areas (AH, AZ) radially outward, wherein the additional delivery unit has rotor blades , characterised in that the additional delivery unit is surrounded by a ring-shaped collar and the collar is arranged on the baffle plate , wherein the additional delivery unit is an axial additional delivery unit and the rotor blades of the additional delivery unit are arranged within the collar .
Process for the preparation of L-methionine, comprising at least the steps of: a) preparation of a mixture comprising: 1) dimethyl disulfide (DMDS), 2) a catalytic amount of an amino acid carrying a thiol group or of a peptide comprising a thiol group, 3) a catalytic amount of an enzyme which catalyzes the reaction for the reduction of the disulfide bridge of the said amino acid carrying a thiol group or of the said peptide comprising a thiol group, 4) hydrogen, 5) a catalytic amount of an enzyme which catalyzes the reaction for the reduction of hydrogen, 6) a catalytic amount of a cofactor common to the two enzymes of the catalytic system (dehydrogenase and reductase), b) carrying out the enzymatic reaction in order to form methyl mercaptan (CH 3 -SH), c) addition of a precursor of the L-methionine and conversion of the said precursor with the methyl mercaptan formed in step b), and d) recovery and optionally purification of the L-methionine formed. a) preparation of a mixture comprising: 1) dimethyl disulfide (DMDS), 2) a catalytic amount of an amino acid carrying a thiol group or of a peptide comprising a thiol group, 3) a catalytic amount of an enzyme which catalyzes the reaction for the reduction of the disulfide bridge of the said amino acid carrying a thiol group or of the said peptide comprising a thiol group, 4) hydrogen, 5) a catalytic amount of an enzyme which catalyzes the reaction for the reduction of hydrogen, 6) a catalytic amount of a cofactor common to the two enzymes of the catalytic system (dehydrogenase and reductase), 1) dimethyl disulfide (DMDS), 2) a catalytic amount of an amino acid carrying a thiol group or of a peptide comprising a thiol group, 3) a catalytic amount of an enzyme which catalyzes the reaction for the reduction of the disulfide bridge of the said amino acid carrying a thiol group or of the said peptide comprising a thiol group, 4) hydrogen, 5) a catalytic amount of an enzyme which catalyzes the reaction for the reduction of hydrogen, 6) a catalytic amount of a cofactor common to the two enzymes of the catalytic system (dehydrogenase and reductase), b) carrying out the enzymatic reaction in order to form methyl mercaptan (CH 3 -SH), c) addition of a precursor of the L-methionine and conversion of the said precursor with the methyl mercaptan formed in step b), and d) recovery and optionally purification of the L-methionine formed.