mhurhangee/patent-ind-claim-en huggingface dataset:
Emitter for emitting light, comprising - a substrate having a substrate surface , - at least one LED element arranged on the substrate surface for generating the light to be emitted, and - an active cooling unit for cooling the at least one LED element comprising at least one cooling channel (7; 7a; 7b) for a coolant , wherein the at least one cooling channel (7; 7a; 7b) is arranged in a beam path (S 4 ; S 5 ; S 6 ) of at least a part of the light to be emitted which can be generated by means of the at least one LED element , for redirecting the light to be emitted, wherein the redirection of the light to be emitted takes place without changing a frequency of the light to be emitted, wherein the at least one LED element and the at least one cooling channel (7; 7a; 7b) are embedded in a transparent encapsulation , characterized in that the encapsulation has a silicone elastomer and/or a resin. - a substrate having a substrate surface , - at least one LED element arranged on the substrate surface for generating the light to be emitted, and - an active cooling unit for cooling the at least one LED element comprising at least one cooling channel (7; 7a; 7b) for a coolant ,
An epoxy resin, which is a reaction product of an epoxy compound (A) and an acid-terminated polyester (B), wherein the acid-terminated polyester (B) is produced by polycondensation of a polycarboxylic acid and a polyhydric alcohol, and an amount of a diol having a cyclic structure in the polyhydric alcohol is 20mol% or more.
A dual-motor power system for a vehicle, the dual-motor power system comprising a single synchronizer , wherein the dual-motor power system further comprises: a first motor ; a second motor ; a first driving shaft configured to be turned by the first motor; a second driving shaft configured to be turned by the second motor and disposed to be coaxial with the first driving shaft, the synchronizer being disposed around the second driving shaft between the first motor and the second motor ; an intermediate shaft disposed to be parallel with the first driving shaft and the second driving shaft; a first gear set disposed between the first driving shaft and the intermediate shaft and having a first speed-reducing ratio, wherein the first driving shaft is continuously coupled with the intermediate shaft via the first gear set ; a second gear set having a second speed-reducing ratio; a differential driven by the intermediate shaft; and a first sleeve coupled to the first driving shaft ; wherein the synchronizer is configured to be switched between a neutral position, a first-speed-ratio position, and a second-speed-ratio position, wherein in the neutral position, the second driving shaft is decoupled from the first gear set and the second gear set, wherein in the first-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the first gear set, and wherein, in the second-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the second gear set. a first motor ; a second motor ; a first driving shaft configured to be turned by the first motor; a second driving shaft configured to be turned by the second motor and disposed to be coaxial with the first driving shaft, the synchronizer being disposed around the second driving shaft between the first motor and the second motor ; an intermediate shaft disposed to be parallel with the first driving shaft and the second driving shaft; a first gear set disposed between the first driving shaft and the intermediate shaft and having a first speed-reducing ratio, wherein the first driving shaft is continuously coupled with the intermediate shaft via the first gear set ; a second gear set having a second speed-reducing ratio; a differential driven by the intermediate shaft; and a first sleeve coupled to the first driving shaft ; wherein the synchronizer is configured to be switched between a neutral position, a first-speed-ratio position, and a second-speed-ratio position, wherein in the neutral position, the second driving shaft is decoupled from the first gear set and the second gear set, wherein in the first-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the first gear set, and wherein, in the second-speed-ratio position, the synchronizer couples the second driving shaft with the intermediate shaft via the second gear set.
A double-row self-aligning roller bearing comprising: an inner ring an outer ring having a spherical raceway surface ; and rollers (4 and 5) in two rows juxtaposed to each other in a bearing width direction and interposed between the inner ring and the outer ring, each of the rollers in the two rows having an outer circumferential surface having a cross-sectional shape that matches the raceway surface of the outer ring, wherein the rollers in the two rows have lengths (L1, L2) equal to each other and maximum diameters (D1max, D2max) Z equal to each other, characterized in that the rollers in the two rows have different distance (K1, K2) from centers of the roller lengths to positions at which the maximum diameters are obtained. an inner ring an outer ring having a spherical raceway surface ; and rollers (4 and 5) in two rows juxtaposed to each other in a bearing width direction and interposed between the inner ring and the outer ring, each of the rollers in the two rows having an outer circumferential surface having a cross-sectional shape that matches the raceway surface of the outer ring, wherein the rollers in the two rows have lengths (L1, L2) equal to each other and maximum diameters (D1max, D2max) Z equal to each other, characterized in that the rollers in the two rows have different distance (K1, K2) from centers of the roller lengths to positions at which the maximum diameters are obtained.
Composite material consisting of: at least 65 volume per cent cubic boron nitride (cBN) grains dispersed in a binder matrix, the binder matrix comprising a plurality of microstructures bonded to the cBN grains and a plurality of intermediate regions between the cBN grains; the microstructures comprising nitride compound of a metal; and the intermediate regions including a silicide phase containing the metal chemically bonded with silicon; in which the content of the silicide phase is 2 to 6 weight per cent of the composite material; and the cBN grains have a mean size of 0.2 to 20μm, in which the metal is titanium (Ti) and the microstructures comprises titanium nitride (TiN). at least 65 volume per cent cubic boron nitride (cBN) grains dispersed in a binder matrix, the binder matrix comprising a plurality of microstructures bonded to the cBN grains and a plurality of intermediate regions between the cBN grains; a plurality of microstructures bonded to the cBN grains and a plurality of intermediate regions between the cBN grains; the microstructures comprising nitride compound of a metal; and the intermediate regions including a silicide phase containing the metal chemically bonded with silicon; in which the content of the silicide phase is 2 to 6 weight per cent of the composite material; and the cBN grains have a mean size of 0.2 to 20μm, in which the metal is titanium (Ti) and the microstructures comprises titanium nitride (TiN).
Method for manufacturing a compound comprising at least one imine group, said method comprising a step of reaction between a first compound comprising at least one amine group and a second compound comprising at least one carbonyl group, said reaction step being carried out in the presence of at least one supercritical fluid.
A method performed by a User Equipment, UE, for Listen Before Talk, LBT, failure detection and recovery, the method comprising: triggering a first consistent LBT failure procedure for a first consistent LBT failure detected on a first Bandwidth Part, BWP, of a first cell of a Base Station, BS; triggering a second consistent LBT failure procedure for a second consistent LBT failure detected on a second BWP of a second cell of the BS; triggering a first Scheduling Request, SR, procedure for the first consistent LBT failure; triggering a second SR procedure for the second consistent LBT failure; receiving, from the BS, an indication for BWP switching of the first cell; switching an active BWP of the first cell based on the indication; canceling the first consistent LBT failure procedure, without canceling the second consistent LBT failure procedure, in response to receiving the indication; and canceling the first SR procedure, without canceling the second SR procedure, in response to receiving the indication. triggering a first consistent LBT failure procedure for a first consistent LBT failure detected on a first Bandwidth Part, BWP, of a first cell of a Base Station, BS; triggering a second consistent LBT failure procedure for a second consistent LBT failure detected on a second BWP of a second cell of the BS; triggering a first Scheduling Request, SR, procedure for the first consistent LBT failure; triggering a second SR procedure for the second consistent LBT failure; receiving, from the BS, an indication for BWP switching of the first cell; switching an active BWP of the first cell based on the indication; canceling the first consistent LBT failure procedure, without canceling the second consistent LBT failure procedure, in response to receiving the indication; and canceling the first SR procedure, without canceling the second SR procedure, in response to receiving the indication.
An orthodontic appliance , comprising: a plurality of discrete shell segments each including one or more cavities shaped to receive at least portions of teeth therein; and an elastic material joining the plurality of discrete shell segments , thereby forming a single appliance shell , wherein the elastic material forms an elastic layer and: (a) comprises a plurality of discrete elastic material segments positioned between a pair of the plurality of discrete shell segments at or near interproximal regions of the teeth and joining the pair of the plurality of discrete shell segments over continuous attachment regions of the pair of the plurality of discrete shell segments, or (b) coats an interior surface of the plurality of discrete shell segments such that the plurality of discrete shell segments are embedded in the elastic material, joining them to each other at or near the interproximal regions to form a single appliance shell , and wherein a stiffness of the plurality of discrete shell segments is greater than a stiffness of the elastic material. a plurality of discrete shell segments each including one or more cavities shaped to receive at least portions of teeth therein; and an elastic material joining the plurality of discrete shell segments , thereby forming a single appliance shell , wherein the elastic material forms an elastic layer and: (a) comprises a plurality of discrete elastic material segments positioned between a pair of the plurality of discrete shell segments at or near interproximal regions of the teeth and joining the pair of the plurality of discrete shell segments over continuous attachment regions of the pair of the plurality of discrete shell segments, or (b) coats an interior surface of the plurality of discrete shell segments such that the plurality of discrete shell segments are embedded in the elastic material, joining them to each other at or near the interproximal regions to form a single appliance shell , and (a) comprises a plurality of discrete elastic material segments positioned between a pair of the plurality of discrete shell segments at or near interproximal regions of the teeth and joining the pair of the plurality of discrete shell segments over continuous attachment regions of the pair of the plurality of discrete shell segments, or (b) coats an interior surface of the plurality of discrete shell segments such that the plurality of discrete shell segments are embedded in the elastic material, joining them to each other at or near the interproximal regions to form a single appliance shell , and wherein a stiffness of the plurality of discrete shell segments is greater than a stiffness of the elastic material.
A vertically reciprocating cradle, comprising a mattress for bearing a baby and an elastic support structure for supporting the mattress ; wherein the elastic support structure comprises a limiting plate , a middle connector and two elastic frames , and wherein each of the two elastic frames comprises an upper support frame and a lower limiting frame , the upper support frames of the two elastic frames are connected with the middle connector , and a limiting unit is formed on the limiting plate , and the two elastic frames are positioned on the limiting plate , respectively, and the two lower limiting frames are matched with the limiting unit ; and wherein a connecting unit is formed at one end of a lower end surface of the mattress and connected with the middle connector , and the other end of the mattress is inclined downwards.
A steam quality meter comprising: a pipe having an inlet and an outlet ; a rod located within the pipe between the inlet and the outlet and defining an annular flow passage between an outer wall of the rod and an inner wall of the pipe; a mixing device within the pipe between the inlet and an upstream end of the rod; and a plurality of spaced sensors within the annular flow passage, each configured to sense capacitance and/or impedance of steam flowing through the annular flow passage; wherein the plurality of sensors comprises a plurality of electrodes and wherein the plurality of electrodes includes a plurality of rod electrodes at the outer wall of the rod and at least one pipe electrode, each sensor being formed by the pipe electrode and a respective one of the plurality of rod electrodes, characterised in that : the plurality of rod electrodes includes an electrode at an upper half of the outer wall of the rod and an electrode at a lower half of the outer wall of the rod. a pipe having an inlet and an outlet ; a rod located within the pipe between the inlet and the outlet and defining an annular flow passage between an outer wall of the rod and an inner wall of the pipe; a mixing device within the pipe between the inlet and an upstream end of the rod; and a plurality of spaced sensors within the annular flow passage, each configured to sense capacitance and/or impedance of steam flowing through the annular flow passage; wherein the plurality of sensors comprises a plurality of electrodes and wherein the plurality of electrodes includes a plurality of rod electrodes at the outer wall of the rod and at least one pipe electrode, each sensor being formed by the pipe electrode and a respective one of the plurality of rod electrodes, characterised in that : the plurality of rod electrodes includes an electrode at an upper half of the outer wall of the rod and an electrode at a lower half of the outer wall of the rod.
A polynucleotide library with controlled stoichiometry, the polynucleotide library comprising at least 5000 polynucleotides, wherein the controlled stoichiometry comprises at least 30 percent of the least 5000 polynucleotides have a GC percentage from 10 percent to 30 percent or 70 percent to 90 percent, such that, following hybridization with genomic fragments and sequencing of the hybridized genomic fragments, the polynucleotide library provides for at least 30 fold read depth of at least 90 percent of the bases of the genomic fragments under conditions for up to a 55 fold theoretical read depth for the bases of the genomic fragments, wherein the theoretical read depth comprises a distribution wherein every base of the genomic fragments has the same read depth.
A method for the grouped arrangement and orientation of individual food products comprising the steps: - feeding a food product , by means of a first feed belt for transporting the products in the direction of a first X-axis, - ejecting the product from the first feed belt at a position on the X-axis on to a second feed belt for transporting the products in the direction of a second Y-axis, - transporting the product by means of the second feed belt along the Y-axis in the direction of an orientation mask which is arranged above the second feed belt and which is so designed and adapted that the product , in particular the stacked products come into contact with the orientation mask and are at least partially oriented with respect to the X-axis and/or Y-axis on the second feed belt , and - further transporting the oriented product by means of the second feed belt in the direction of the Y-axis, preferably with a change in the direction of movement of the second feed belt , characterised in that the second feed belt for transporting the products in the direction of the orientation mask performs a preferably brief rearward movement in the direction of the orientation mask and subsequently thereto a forward movement in the opposite direction and in the direction of the Y-axis. - feeding a food product , by means of a first feed belt for transporting the products in the direction of a first X-axis, - ejecting the product from the first feed belt at a position on the X-axis on to a second feed belt for transporting the products in the direction of a second Y-axis, - transporting the product by means of the second feed belt along the Y-axis in the direction of an orientation mask which is arranged above the second feed belt and which is so designed and adapted that the product , in particular the stacked products come into contact with the orientation mask and are at least partially oriented with respect to the X-axis and/or Y-axis on the second feed belt , and - further transporting the oriented product by means of the second feed belt in the direction of the Y-axis, preferably with a change in the direction of movement of the second feed belt ,
A method of melting and refining an alloy, the method comprising: vacuum induction melting starting materials to provide a vacuum induction melted alloy; electroslag remelting at least a portion of the vacuum induction melted alloy to provide an electroslag remelted alloy; vacuum arc remelting at least a portion of the electroslag remelted alloy to provide a singly vacuum arc remelted alloy; and vacuum arc remelting at least a portion of the singly vacuum arc remelted alloy using a vacuum level less than 20 microns of pressure (μPa), an arc gap in the range of 6-12 mm, and a melt rate of 6-9 pounds per minute (1 lb/min = 0,007 559 872 833 333 3 kg/s) to provide a doubly vacuum arc remelted alloy; wherein the vacuum induction melted alloy comprises, in weight percentages based on total alloy weight: 12.5-13.5 Co; 15.5-16.5 Cr; 0.75-1.20 Fe; 3.8-4.2 Mo; 3.8-4.2 W; 0.6-0.8 Nb; 3.55-3.90 Ti; 1.95-2.30 Al; 0.03-0.06 Zr; 0.005-0.011 C; 0.01-0.02 B; and Ni. vacuum induction melting starting materials to provide a vacuum induction melted alloy; electroslag remelting at least a portion of the vacuum induction melted alloy to provide an electroslag remelted alloy; vacuum arc remelting at least a portion of the electroslag remelted alloy to provide a singly vacuum arc remelted alloy; and vacuum arc remelting at least a portion of the singly vacuum arc remelted alloy using a vacuum level less than 20 microns of pressure (μPa), an arc gap in the range of 6-12 mm, and a melt rate of 6-9 pounds per minute (1 lb/min = 0,007 559 872 833 333 3 kg/s) to provide a doubly vacuum arc remelted alloy; wherein the vacuum induction melted alloy comprises, in weight percentages based on total alloy weight: 12.5-13.5 Co; 15.5-16.5 Cr; 0.75-1.20 Fe; 3.8-4.2 Mo; 3.8-4.2 W; 0.6-0.8 Nb; 3.55-3.90 Ti; 1.95-2.30 Al; 0.03-0.06 Zr; 0.005-0.011 C; 0.01-0.02 B; and Ni.
A robotic liquid handling system for performing a liquid handling task, comprising: - at least one robotic arm ; - a controller configured to control the robotic arm to position and operate the robotic arm in a workspace of the robotic liquid handling system; wherein the controller is configured to, as part of the liquid handling task, control the robotic arm to open a reagent reservoir , wherein the reagent reservoir has an opening which is sealed by a foil , wherein the controller is configured to control the robotic arm to open the foil by controlling the robotic arm to: - using a cutting tip held by the robotic arm, cut at least two flaps in the foil, wherein said cutting of the at least two flaps comprises piercing the foil with the cutting tip at an entry position and from the entry position moving the cutting tip laterally with the cutting tip inserted into the opening at a first depth past a height of the foil; - using a blunt protrusion held by the robotic arm, push the at least two flaps downwards into the reagent reservoir to clear at least part of the opening of the reagent reservoir. - at least one robotic arm ; - a controller configured to control the robotic arm to position and operate the robotic arm in a workspace of the robotic liquid handling system; - using a cutting tip held by the robotic arm, cut at least two flaps in the foil, wherein said cutting of the at least two flaps comprises piercing the foil with the cutting tip at an entry position and from the entry position moving the cutting tip laterally with the cutting tip inserted into the opening at a first depth past a height of the foil; - using a blunt protrusion held by the robotic arm, push the at least two flaps downwards into the reagent reservoir to clear at least part of the opening of the reagent reservoir.
A dedicated bearer creation method applied for a Mobility Management Entity, MME, comprising: keeping a control plane Non-Access Stratum, NAS, connection after a Tracking Area Update, TAU, process if it is determined that a User Equipment, UE, has moved from a 5 th -Generation, 5G, network to a 4 th -Generation, 4G, network based on identification information provided in a TAU message transmitted by the UE during the TAU process; and creating a dedicated bearer for the UE using the NAS connection if a create dedicated bearer request has been received from a Packet Data Network, PDN, gateway via a serving gateway, characterized in that the TAU request message does not carry an active flag during the TAU procedure. keeping a control plane Non-Access Stratum, NAS, connection after a Tracking Area Update, TAU, process if it is determined that a User Equipment, UE, has moved from a 5 th -Generation, 5G, network to a 4 th -Generation, 4G, network based on identification information provided in a TAU message transmitted by the UE during the TAU process; and creating a dedicated bearer for the UE using the NAS connection if a create dedicated bearer request has been received from a Packet Data Network, PDN, gateway via a serving gateway, characterized in that the TAU request message does not carry an active flag during the TAU procedure.