mhurhangee/ep-ind-claims huggingface dataset:
A gateway device connectable with a camera device, comprising: a snapshot unit configured to acquire still image data at predetermined intervals from moving image data input from the camera device; a motion detection unit configured to detect a presence or absence of a motion, by difference extraction, from the still image data acquired by the snapshot unit; a data processing unit configured not to perform compression on the moving image data when the motion detection unit detects that the motion is present, but to perform compression on the moving image data when the motion detection unit detects that the motion is absent; and a data transfer unit configured to transfer the moving image data to a cloud storage. a snapshot unit configured to acquire still image data at predetermined intervals from moving image data input from the camera device; a motion detection unit configured to detect a presence or absence of a motion, by difference extraction, from the still image data acquired by the snapshot unit; a data processing unit configured not to perform compression on the moving image data when the motion detection unit detects that the motion is present, but to perform compression on the moving image data when the motion detection unit detects that the motion is absent; and a data transfer unit configured to transfer the moving image data to a cloud storage.
A compound of Formula A: wherein, substituent R' is selected from H, butyryl or alkenoyl having 2 to 4 carbon atoms, substituent R is selected from alkanoyl or alkenoyl having 11 to 22 carbon atoms. substituent R' is selected from H, butyryl or alkenoyl having 2 to 4 carbon atoms, substituent R is selected from alkanoyl or alkenoyl having 11 to 22 carbon atoms.
A radial fan with a fan housing with a spiral pressure chamber and a rotor assembly comprising an internally axially open bearing tube, in which a shaft carrying a fan wheel is mounted with a rotor of a canned motor, wherein an air-guiding channel between a first pressure-chamber region and a second pressure-chamber region of the spiral pressure chamber is formed between the bearing tube and the wall of the separating can of the canned motor, so that an air flow flows through the air-guiding channel from one pressure-chamber region (2a, 2b) to the other and in the process dissipates heat from the bearing tube into the pressure chamber.
A method for producing a flexible polyurethane foam having a polyurethane gel embedded in the cell walls or cell struts, the reaction components of the polyurethane foam, namely a polyol component and a polyisocyanate component, optionally with additives, being foamed using a blowing agent, characterised in that the polyol component is mixed from 10 to 30 wt.% of a trifunctional polyether polyol having secondary hydroxyl end groups and a hydroxyl value from 40 to 50 mg KOH/g, from 30 to 50 wt.% of a tri- or tetrafunctional polyether polyol having primary and secondary hydroxyl end groups in a ratio of 0.2:2.0 to 2.0:0.2 and having a hydroxyl value of 150 to 200 mg KOH/g and from 15 to 40 wt.% of a trifunctional random block copolymer of ethylene oxide and propylene oxide in an EO/PO ratio of 0.5:1 to 1:0.5 having a hydroxyl value of 28 to 38 mg KOH/g, in that the polyisocyanate component used in a quantity corresponding to an NCO/OH ratio between 0.9 and 1.05 is formed from at least one isocyanate from a group of isocyanates comprising toluene diisocyanate, prepolymer isocyanates based on toluene diisocyanate having an NCO content of 10 to 30 wt.% and diphenylmethane 4,4'-diisocyanate and in that 1,4-diazabicyclo[2.2.2]octane in a quantity of 0.05 to 0.5 wt.% is mixed into these reaction components as gelation catalyst.
A cutting guide for spinal osteotomy comprising a main body having a distal surface, a proximal surface and having a first and a second arm, each arm being provided with a respective through slot (3a, 4a), said each slot (3a, 4a) joining the respective distal surface and proximal surface, characterized in that the distal surface and the proximal surface are each shaped according to the anatomy of the specific patient.
Workpiece receptacle comprising a receiving element for receiving the workpiece, a base element movably receiving the receiving element, a bearing means allowing for a movement between the receiving element and the base element, a bearing cup connected with the receiving element, and a bearing cup connected with the base element, wherein both bearing cups (26, 30) have a spherical surface (28, 32), wherein balls are arranged between the two bearing cups (26, 30), characterized by a fixing element for the fixation of the receiving element with respect to the base element in different orientations.
A method of forming a pattern on a substrate using a patterned template in an imprint lithography process, the method comprising: applying an activating light curable liquid to a portion of the substrate, wherein the surface area of the liquid on the substrate is less than a surface area of the patterned template; positioning the patterned template and the substrate in a spaced relationship to each other so that a gap is created between the patterned template and the substrate, wherein the applied liquid substantially fills the gap when the patterned template is placed in the spaced relationship to the substrate; applying activating light to the liquid, wherein the application of activating light substantially cures the liquid, and wherein a pattern of the patterned template is formed in the cured liquid; and separating the patterned template from the cured liquid, characterized in that the curable liquid is applied in a predetermined pattern to the substrate, and in that the step of positioning the patterned template and the substrate in a spaced relationship to each other comprises: positioning the patterned template over the substrate, wherein the patterned template is substantially non parallel to the substrate; moving the patterned template toward the substrate, wherein the patterned template remains in a substantially non-parallel orientation with respect to the substrate as the template is moved toward the substrate; and positioning the patterned template in a substantially parallel orientation to the substrate, wherein the patterned template is in the spaced relationship to the substrate. applying an activating light curable liquid to a portion of the substrate, wherein the surface area of the liquid on the substrate is less than a surface area of the patterned template; positioning the patterned template and the substrate in a spaced relationship to each other so that a gap is created between the patterned template and the substrate, wherein the applied liquid substantially fills the gap when the patterned template is placed in the spaced relationship to the substrate; applying activating light to the liquid, wherein the application of activating light substantially cures the liquid, and wherein a pattern of the patterned template is formed in the cured liquid; and separating the patterned template from the cured liquid, characterized in that the curable liquid is applied in a predetermined pattern to the substrate, and in that the step of positioning the patterned template and the substrate in a spaced relationship to each other comprises: positioning the patterned template over the substrate, wherein the patterned template is substantially non parallel to the substrate; moving the patterned template toward the substrate, wherein the patterned template remains in a substantially non-parallel orientation with respect to the substrate as the template is moved toward the substrate; and positioning the patterned template in a substantially parallel orientation to the substrate, wherein the patterned template is in the spaced relationship to the substrate.
A method for copyright allocation for a blockchain-based work, wherein the method is applied to a blockchain network that comprises an original author client device, a co-creation participating user client device, and a first node device; and the method comprises the following: obtaining, by the first node device, a first target transaction from a distributed database of a blockchain, wherein the first target transaction comprises co-creation participating behavior data of the co-creation participating user for a target work and a unique identifier of the target work, and the target work is originally created by the original author; invoking a smart contract corresponding to copyright allocation for the target work, executing logic declared in the smart contract for allocating a copyright share to the co-creation participating user based on the co-creation participating behavior data, and allocating a copyright share of the target work to the co-creation participating user, wherein the copyright share is a digital asset token circulating on the blockchain and the smart contract further declares copyright share profit allocation logic; obtaining a second target transaction from the distributed database of the blockchain, wherein the second target transaction comprises copyright income of the target work sent to the smart contract; and invoking the smart contract, executing the copyright share profit allocation logic declared in the smart contract, and allocating the copyright income to the co-creation participating user based on the copyright share of the target work obtained by the co-creation participating user. obtaining, by the first node device, a first target transaction from a distributed database of a blockchain, wherein the first target transaction comprises co-creation participating behavior data of the co-creation participating user for a target work and a unique identifier of the target work, and the target work is originally created by the original author; invoking a smart contract corresponding to copyright allocation for the target work, executing logic declared in the smart contract for allocating a copyright share to the co-creation participating user based on the co-creation participating behavior data, and allocating a copyright share of the target work to the co-creation participating user, wherein the copyright share is a digital asset token circulating on the blockchain and the smart contract further declares copyright share profit allocation logic; obtaining a second target transaction from the distributed database of the blockchain, wherein the second target transaction comprises copyright income of the target work sent to the smart contract; and invoking the smart contract, executing the copyright share profit allocation logic declared in the smart contract, and allocating the copyright income to the co-creation participating user based on the copyright share of the target work obtained by the co-creation participating user.
A first electronic network node configured for a cryptographic protocol based on a shared matrix, the shared matrix having multiple entries each entry having a value, the shared matrix being shared between the first network node and a second network node, the first network node comprising - a communication interface arranged for digital communication with the second network node, - a cache memory arranged to cache the sequence of values ( A 1,A 2), wherein the multiple entries of the shared matrix are assigned a value of the sequence of values as cached in the cache memory, - a processor circuit configured to - obtain a sequence of values from which values for the shared matrix are selected, the sequence of values being shared with the second network node, and to cache the sequence of values for use with multiple connections, - receive selection data from the second network node, or determining selection data and sending the selection data to the second network node, the selection data indicating multiple positions in the sequence of values and assigning to multiple entries of the shared matrix a value of the cached sequence of values indicated by the selection data, - construct the shared matrix in accordance with the selection data and the sequence of values, setting said multiple entries of the shared matrix to the multiple values assigned by the selection data, - applying the shared matrix in the cryptographic protocol comprising calculating a matrix product between the shared matrix and a private vector or matrix of the first network node. - a communication interface arranged for digital communication with the second network node, - a cache memory arranged to cache the sequence of values ( A 1,A 2), wherein the multiple entries of the shared matrix are assigned a value of the sequence of values as cached in the cache memory, - a processor circuit configured to - obtain a sequence of values from which values for the shared matrix are selected, the sequence of values being shared with the second network node, and to cache the sequence of values for use with multiple connections, - receive selection data from the second network node, or determining selection data and sending the selection data to the second network node, the selection data indicating multiple positions in the sequence of values and assigning to multiple entries of the shared matrix a value of the cached sequence of values indicated by the selection data, - construct the shared matrix in accordance with the selection data and the sequence of values, setting said multiple entries of the shared matrix to the multiple values assigned by the selection data, - applying the shared matrix in the cryptographic protocol comprising calculating a matrix product between the shared matrix and a private vector or matrix of the first network node.
An optical detection system (100, 200) for a motor vehicle, comprising: a detecting device comprising a sensor having an optical surface, and a heat dissipating means, and a cleaning device arranged in proximity to the optical surface for directing a flow of air onto the optical surface to remove a substance from the optical surface, wherein the cleaning device comprises an air guiding part for guiding the flow of air from a supply source to the optical surface, the flow of air being guided from the supply source to the optical surface via the heat dissipating means so as to transfer heat from the heat-dissipating means to the flow of air, wherein the air guiding part includes a fan, characterized in that the heat dissipation means is arranged at the upstream end of the fan, and the thermal transfer from the heat dissipation means to the flow of air is performed at the upstream end of the fan. a detecting device comprising a sensor having an optical surface, and a heat dissipating means, and a cleaning device arranged in proximity to the optical surface for directing a flow of air onto the optical surface to remove a substance from the optical surface, wherein the cleaning device comprises an air guiding part for guiding the flow of air from a supply source to the optical surface, the flow of air being guided from the supply source to the optical surface via the heat dissipating means so as to transfer heat from the heat-dissipating means to the flow of air, wherein the air guiding part includes a fan, characterized in that the heat dissipation means is arranged at the upstream end of the fan, and the thermal transfer from the heat dissipation means to the flow of air is performed at the upstream end of the fan.
Tube-cutting method comprising the steps of - inserting a cutting blade into a tube to be cut, wherein the cutting blade is fastened to a drive shaft in the region of a free cutting blade fastening end of the drive shaft and wherein a cutting edge of the cutting blade is arranged to project radially outwards from the drive shaft, and - cutting off a section of the tube by means of the cutting edge of the cutting blade by a rotational movement of the drive shaft generated by a drive, wherein the rotational movement is effected as a wobbling movement of the cutting blade fastening end of the drive shaft and/or of the cutting blade mounted thereon, characterised in that the wobbling movement is generated in that rotation of the drive is transmitted to the drive shaft via an eccentric coupling eccentric to the drive exclusively in the form of a wobbling movement of the drive shaft and not in the form of a rotational movement of the drive shaft about its longitudinal axis and the drive shaft is held rotatably in a support bearing in a holding region between the eccentric coupling and the cutting blade. - inserting a cutting blade into a tube to be cut, wherein the cutting blade is fastened to a drive shaft in the region of a free cutting blade fastening end of the drive shaft and wherein a cutting edge of the cutting blade is arranged to project radially outwards from the drive shaft, and - cutting off a section of the tube by means of the cutting edge of the cutting blade by a rotational movement of the drive shaft generated by a drive,
An antisense oligonucleotide capable of inhibiting an exon recognition sequence in exon 51 of the dystrophin pre-mRNA which facilitates the masking of the exon from the splicing apparatus and the exclusion of the exon from the final mRNA, wherein the oligonucleotide is complementary to said exon or to part thereof, and has a length of 14-40 nucleotides, wherein the oligonucleotide induces skipping of said exon when said antisense oligonucleotide is present in a cell having a dystrophin pre-mRNA containing said exon.
A method of producing a mash extract, said method comprising: a. mashing particulate, starch-containing and optionally malted raw materials with water; b. heating the mash and enzymatically hydrolysing the starch; c. passing the heat-treated mash across a first vibrating sieve for separation into a fermentable mash extract and wet spent grain comprising at least 8 wt% solids; and d. transferring the wet spent grain, optionally after said wet spent grain has been subjected to a washing and sieving operation, to a first press and pressing said wet spent grain to obtain dewatered spent grain comprising at least 18 wt.% of solids and additional fermentable mash extract; e. transferring the dewatered spent grain into a first mixing vessel and mixing it with sparging water to produce a slurry; f. passing the slurry across a second vibrating sieve for separation into washed spent grain and wash water; and g. transferring the washed spent grain to a second press and pressing said washed spent grain to obtain spent grain residue and rest water; and wherein at least a part of the wash water and/or the rest water is recirculated to the mashing step a. and/or combined with the heat-treated mash before it is passed across the first vibrating sieve. a. mashing particulate, starch-containing and optionally malted raw materials with water; b. heating the mash and enzymatically hydrolysing the starch; c. passing the heat-treated mash across a first vibrating sieve for separation into a fermentable mash extract and wet spent grain comprising at least 8 wt% solids; and d. transferring the wet spent grain, optionally after said wet spent grain has been subjected to a washing and sieving operation, to a first press and pressing said wet spent grain to obtain dewatered spent grain comprising at least 18 wt.% of solids and additional fermentable mash extract; e. transferring the dewatered spent grain into a first mixing vessel and mixing it with sparging water to produce a slurry; f. passing the slurry across a second vibrating sieve for separation into washed spent grain and wash water; and g. transferring the washed spent grain to a second press and pressing said washed spent grain to obtain spent grain residue and rest water;
A flexible piece, comprising: at least two supports; at least two pair of flexible parts, and at least one oscillation absorber; wherein each of the flexible parts includes a displacing part and a meandering part; wherein the meandering part is disposed between the displacing part and the respective support; wherein the displacing parts, the meandering parts, and the supports are alternatively arranged to form a single closed ring; wherein at least one gap exists in the meandering part; wherein the oscillation absorber is installed in the gap. at least two supports; at least two pair of flexible parts, and at least one oscillation absorber; wherein each of the flexible parts includes a displacing part and a meandering part; wherein the meandering part is disposed between the displacing part and the respective support; wherein the displacing parts, the meandering parts, and the supports are alternatively arranged to form a single closed ring; wherein at least one gap exists in the meandering part; wherein the oscillation absorber is installed in the gap.
An apparatus for producing unique binary executable software, the apparatus comprising at least one processor; and at least one memory including computer program code, the at least one memory and computer program code configured to, with the at least one processor, cause the apparatus to: obtain a set of source code files to be prepared into a binary executable file, the source code files comprising a multitude of function code definitions and data definitions; shuffle the function code definitions and data definitions inside a source code file or between the set of source code files in a random manner retaining the functionality of the source code fields; control a compiler to produce object files from the source code files; arrange the object files into a random order for a linker; control the linker to link the produced object files into a binary executable file; repeat the above steps a given number of times and producing a given number of unique binary executable files each having a unique sequence of bits and the same functionality. obtain a set of source code files to be prepared into a binary executable file, the source code files comprising a multitude of function code definitions and data definitions; shuffle the function code definitions and data definitions inside a source code file or between the set of source code files in a random manner retaining the functionality of the source code fields; control a compiler to produce object files from the source code files; arrange the object files into a random order for a linker; control the linker to link the produced object files into a binary executable file; repeat the above steps a given number of times and producing a given number of unique binary executable files each having a unique sequence of bits and the same functionality.