mhurhangee/ep-ind-claims huggingface dataset:
Filter element, comprising a pleated bellows of zigzag shape with pleat walls and pleat vertices, there being edge elements provided to the edges of the pleat walls and pleat vertices and there being a frame element located in the vicinity of at least one terminal pleat of the pleated bellows, where the frame element bilaterally surrounds the terminal pleat, thus forming a interlocking connection, and the frame element here has been secured on the edge elements, characterized in that the configuration of the frame element is such that it bulges in the direction of the side facing away from the pleated bellows and that the frame element is configured from nonwoven fabric.
A computer-executable method for multi-domain clustering, comprising: receiving, by a computing device, from one or more computing devices over a network domain data for at least two domains associated with users, wherein a domain is a source type describing observable activities of a plurality of users, and wherein a respective user is associated with a respective user role in an organization; determining a hyperparameter value for a respective prior distribution of a probability distribution associated with a domain; estimating a probability distribution for generating a multi-domain probability model; generating a multi-domain probability model that includes variables for two or more domains, based on the hyperparameter value and the estimated probability distribution; analyzing the domain data with the generated multi-domain probability model to assign a first user to a plurality of cluster indices associated with the first user's corresponding user role; and determining that an activity being performed by a second user is anomalous, based on a comparison between one or more of the second user's cluster indices to one or more of the first user's plurality of cluster indices. receiving, by a computing device, from one or more computing devices over a network domain data for at least two domains associated with users, wherein a domain is a source type describing observable activities of a plurality of users, and wherein a respective user is associated with a respective user role in an organization; determining a hyperparameter value for a respective prior distribution of a probability distribution associated with a domain; estimating a probability distribution for generating a multi-domain probability model; generating a multi-domain probability model that includes variables for two or more domains, based on the hyperparameter value and the estimated probability distribution; analyzing the domain data with the generated multi-domain probability model to assign a first user to a plurality of cluster indices associated with the first user's corresponding user role; and determining that an activity being performed by a second user is anomalous, based on a comparison between one or more of the second user's cluster indices to one or more of the first user's plurality of cluster indices.
A method performed by a network equipment for estimating locations of signal shadowing obstructions in a wireless communication network, characterized in that the method comprises: receiving from User Equipments, UEs, an identification of neighboring UEs from which the UEs have received a reference signal via a non-line-of-sight, NLoS, sidelink transmission; estimating locations of signal shadowing obstructions based on location information of UEs associated with the NLoS sidelink transmissions; and configuring communications between the network equipment and at least one UE based on an estimated location of at least one signal shadowing obstruction. receiving from User Equipments, UEs, an identification of neighboring UEs from which the UEs have received a reference signal via a non-line-of-sight, NLoS, sidelink transmission; estimating locations of signal shadowing obstructions based on location information of UEs associated with the NLoS sidelink transmissions; and configuring communications between the network equipment and at least one UE based on an estimated location of at least one signal shadowing obstruction.
A thermal conductive joint between a face-sheet and a heat-pipe in a radiator panel, the thermal conductive joint comprising: an adhesive layer attached between the face-sheet and the heat-pipe; a plurality of carbon nanotubes ("CNTs") within the adhesive layer; wherein the plurality of CNTs are oriented in an axial direction between the face-sheet and the heat-pipe. an adhesive layer attached between the face-sheet and the heat-pipe; a plurality of carbon nanotubes ("CNTs") within the adhesive layer; wherein the plurality of CNTs are oriented in an axial direction between the face-sheet and the heat-pipe.
A system for driving a cooker, the system comprising: a driving unit including a sensing unit configured to sense a movement of a user of a cooker and a contact unit configured to switch a power circuit to which power is supplied from the outside and perform a closing operation on the basis of a sensing result from the sensing unit to allow power to be supplied to the cooker; and a control unit configured to be driven by power supplied through the power circuit to control an operation of the contact unit, characterized in that the contact unit is a normally-open contact that is closed at a time of operation; the contact unit is configured to perform the closing operation on the basis of an operation signal generated by the sensing unit and to maintain the closing operation on the basis of a signal generated by the control unit; wherein when no signal is generated by the sensing unit or the control unit, the contact unit is returned from the closing operation to an open state so that power to the control unit is cut off; wherein the sensing unit, the control unit, and the contact unit are connected to an OR gate in which an output is performed when there are one or more inputs, wherein the sensing unit and the control unit are connected to different inputs of the OR gate, and an output of the OR gate is connected to the contact unit, and wherein when the sensing unit or the control unit generates a signal, the contact unit performs the closing operation. a driving unit including a sensing unit configured to sense a movement of a user of a cooker and a contact unit configured to switch a power circuit to which power is supplied from the outside and perform a closing operation on the basis of a sensing result from the sensing unit to allow power to be supplied to the cooker; and a control unit configured to be driven by power supplied through the power circuit to control an operation of the contact unit, characterized in that the contact unit is a normally-open contact that is closed at a time of operation; the contact unit is configured to perform the closing operation on the basis of an operation signal generated by the sensing unit and to maintain the closing operation on the basis of a signal generated by the control unit; wherein when no signal is generated by the sensing unit or the control unit, the contact unit is returned from the closing operation to an open state so that power to the control unit is cut off; wherein the sensing unit, the control unit, and the contact unit are connected to an OR gate in which an output is performed when there are one or more inputs, wherein the sensing unit and the control unit are connected to different inputs of the OR gate, and an output of the OR gate is connected to the contact unit, and wherein when the sensing unit or the control unit generates a signal, the contact unit performs the closing operation.
A DNA-dependent ATPase (Dda) helicase which is a variant having at least 70% identity to the amino acid sequence of SEQ ID NO: 8, in which: (a) F98 is substituted with an amino acid which comprises a larger side chain (R group), wherein the larger side chain (R group) contains an increased number of carbon atoms, has an increased length, has an increased molecular volume and/or has an increased van der Waals volume; and (b) the part of the helicase comprising positions 1, 2, 3, 4, 5, 6, 51, 176, 177, 178, 179, 180, 181, 185, 189, 191, 193, 194, 195, 197, 198, 199, 200, 201, 202, 203, 204, 207, 208, 209, 210, 211, 212, 213, 216, 219, 220, 221, 223, 224, 226, 227, 228, 229, 247, 254, 255, 256, 257, 258, 259, 260, 261, 298, 300, 304, 308, 318, 319, 321, 337, 347, 350, 351, 405, 415, 422, 434, 437, 438 in SEQ ID NO: 8 which interact with a transmembrane pore comprises one or more modifications, wherein the helicase has the ability to control the movement of a polynucleotide. (a) F98 is substituted with an amino acid which comprises a larger side chain (R group), wherein the larger side chain (R group) contains an increased number of carbon atoms, has an increased length, has an increased molecular volume and/or has an increased van der Waals volume; and (b) the part of the helicase comprising positions 1, 2, 3, 4, 5, 6, 51, 176, 177, 178, 179, 180, 181, 185, 189, 191, 193, 194, 195, 197, 198, 199, 200, 201, 202, 203, 204, 207, 208, 209, 210, 211, 212, 213, 216, 219, 220, 221, 223, 224, 226, 227, 228, 229, 247, 254, 255, 256, 257, 258, 259, 260, 261, 298, 300, 304, 308, 318, 319, 321, 337, 347, 350, 351, 405, 415, 422, 434, 437, 438 in SEQ ID NO: 8 which interact with a transmembrane pore comprises one or more modifications,
Pneumatic spring for axles of vehicles with air suspension, with a plunger piston which can be fixed to an axle, an upper closing cover which can be fixed to the vehicle with a rolling lobe attached thereto, and with a bead which is formed on the rolling lobe and which is fixed to the upper face of the plunger piston by a ring, characterized in that the ring is secured against the plunger piston via a rotational mechanism formed firstly on the ring and secondly on the plunger piston.
A machine implemented method for use in a wireless mesh network, the method comprising: acquiring data packets at a source node that need to be delivered to a remote destination node through the wireless mesh network; determining at least one route through the wireless mesh network from the source node to the destination node to support a data flow for the acquired data packets; for a link between the source node and a first relay node in a route, automatically activating, based on channel conditions within the network, a helper node to assist the link in transferring data from the source node to the first relay node; generating random linear network coded (RLNC) packets at the source node for a first group of original packets of the data flow; initiating transmission of RLNC packets from the source node to the first relay node for the first group of original packets; overhearing and storing RLNC packets transmitted by the source node for the first group of original packets at the helper node; re-coding overheard RLNC packets at the helper node for the first group of original packets to create re-coded RLNC packets comprising new linear combinations of the stored RLNC packets; after a delay, initiating transmission of the re-coded RLNC packets from the helper node to the first relay node for the first group of original packets of the data flow; and continuing to transmit RLNC packets from at least one of the source node and the helper node until the first relay node has received a sufficient number of degrees-of-freedom, DOFs, to decode the first group of original packets. acquiring data packets at a source node that need to be delivered to a remote destination node through the wireless mesh network; determining at least one route through the wireless mesh network from the source node to the destination node to support a data flow for the acquired data packets; for a link between the source node and a first relay node in a route, automatically activating, based on channel conditions within the network, a helper node to assist the link in transferring data from the source node to the first relay node; generating random linear network coded (RLNC) packets at the source node for a first group of original packets of the data flow; initiating transmission of RLNC packets from the source node to the first relay node for the first group of original packets; overhearing and storing RLNC packets transmitted by the source node for the first group of original packets at the helper node; re-coding overheard RLNC packets at the helper node for the first group of original packets to create re-coded RLNC packets comprising new linear combinations of the stored RLNC packets; after a delay, initiating transmission of the re-coded RLNC packets from the helper node to the first relay node for the first group of original packets of the data flow; and continuing to transmit RLNC packets from at least one of the source node and the helper node until the first relay node has received a sufficient number of degrees-of-freedom, DOFs, to decode the first group of original packets.
A method comprising: generating a plurality of focal plane images using a description of three-dimensional content; receiving motion information, wherein the motion information comprises information describing motion of a user relative to a real world environment; shifting (2616, 2618, 2620) one or more focal plane images of the plurality of focal plane images to generate transversal motion parallax in response to the motion information indicating transversal motion of the user; scaling one or more focal plane images of the plurality of focal plane images to generate axial motion parallax in response to the motion information indicating axial motion of the user; and rendering a view of the 3D content using the shifted and scaled focal plane images. generating a plurality of focal plane images using a description of three-dimensional content; receiving motion information, wherein the motion information comprises information describing motion of a user relative to a real world environment; shifting (2616, 2618, 2620) one or more focal plane images of the plurality of focal plane images to generate transversal motion parallax in response to the motion information indicating transversal motion of the user; scaling one or more focal plane images of the plurality of focal plane images to generate axial motion parallax in response to the motion information indicating axial motion of the user; and rendering a view of the 3D content using the shifted and scaled focal plane images.
A method of tracking area update, TAU, characterized by: pre-assigning one of terminals of a terminal group as a group representative terminal of the terminal group, and regarding a terminal identification of said one of terminals as a group representative terminal identification of the terminal group; when a terminal is not the group representative terminal of the terminal group, deactivating a periodic TAU timer of the terminal; and after the terminal enters an idle state and when a mobile reachable timer corresponding to the terminal expires, a network side locally detecting that a paging proceed flag, PPF, of the group representative terminal of the terminal group is not cleared, then resetting and restarting the mobile reachable timer corresponding to the terminal. pre-assigning one of terminals of a terminal group as a group representative terminal of the terminal group, and regarding a terminal identification of said one of terminals as a group representative terminal identification of the terminal group; when a terminal is not the group representative terminal of the terminal group, deactivating a periodic TAU timer of the terminal; and after the terminal enters an idle state and when a mobile reachable timer corresponding to the terminal expires, a network side locally detecting that a paging proceed flag, PPF, of the group representative terminal of the terminal group is not cleared, then resetting and restarting the mobile reachable timer corresponding to the terminal.
A recombinant fusion polypeptide comprising a first amino acid sequence having phosphoketolase activity fused to a second amino acid sequence having phosphotransacetylase activity, wherein the fusion polypeptide, when expressed in a cell, is capable of converting fructose-6-P (F-6-P) and/or xylulose-5-P (X-5-P) to acetyl-CoA.
A power cylinder system for a reciprocating engine, comprising: - a piston configured to move within a cylinder of the reciprocating engine; and - a groove extending circumferentially about the piston and configured to support a ring, characterized in that an axially-facing surface (106, 108) of the groove comprises circumferential undulations at ambient temperatures and wherein the axially-facing surface (106, 108) is configured to be substantially flat during operation of the reciprocating engine to compensate for distortions to the groove caused by operation of the reciprocating engine. - a piston configured to move within a cylinder of the reciprocating engine; and - a groove extending circumferentially about the piston and configured to support a ring,
An implantable medical device comprising: one or more electrodes (114, 114'); a controller coupled to the one or more electrodes (114, 114'), the controller configured to receive a first non-pacing communication pulse at a first communication pulse time and a second non-pacing communication pulse at a second communication pulse time via the one or more electrodes (114, 114'); and the controller further configured to identify one of three or more symbols based at least in part on the time difference between the first communication pulse time and the second communication pulse time; wherein the controller is configured to: a "0" symbol if the difference between the first communication pulse time and the second communication pulse time corresponds to a first time difference; and a "1" symbol, if the difference between the first communication pulse time and the second communication pulse time corresponds to a second time difference; wherein the first time difference corresponds to a first range of time and the second time difference corresponds to a second range of time, wherein the first range of time does not overlap with the second range of time; one or more electrodes (114, 114'); a controller coupled to the one or more electrodes (114, 114'), the controller configured to receive a first non-pacing communication pulse at a first communication pulse time and a second non-pacing communication pulse at a second communication pulse time via the one or more electrodes (114, 114'); and the controller further configured to identify one of three or more symbols based at least in part on the time difference between the first communication pulse time and the second communication pulse time; wherein the controller is configured to: a "0" symbol if the difference between the first communication pulse time and the second communication pulse time corresponds to a first time difference; and a "1" symbol, if the difference between the first communication pulse time and the second communication pulse time corresponds to a second time difference; wherein the first time difference corresponds to a first range of time and the second time difference corresponds to a second range of time, wherein the first range of time does not overlap with the second range of time; a "0" symbol if the difference between the first communication pulse time and the second communication pulse time corresponds to a first time difference; and a "1" symbol, if the difference between the first communication pulse time and the second communication pulse time corresponds to a second time difference; wherein the first time difference corresponds to a first range of time and the second time difference corresponds to a second range of time, wherein the first range of time does not overlap with the second range of time;
A method of forming a composite product having a patterned surface, the method comprising: providing a substrate including a porous structure, a sheet-form material, and a printed patterned sheet; the method including the step of applying the sheet-form material and the printed patterned sheet to a surface of the substrate, and applying pressure to press the printed patterned sheet and the sheet-form material to the substrate to form the composite product. a substrate including a porous structure, a sheet-form material, and a printed patterned sheet;
Bag having a wall which surrounds a bag interior, and a first bottom with a cover sheet arranged on the side of which that faces away from the bag interior, wherein a carrier element for a useful element is arranged on the first bottom such that it is located on the inside relative to the cover sheet, characterized in that the carrier element is not joined to the rest of the bag over its entire circumference and, after the cover sheet has been opened, is movable such that it is easier to empty the bag and the useful element becomes accessible.
A method for transmitting a demodulation reference signal, DMRS, for demodulating uplink data by a machine type communication, MTC, (100, 700) which is configured to operate in only a part of a system band of a cell, the method comprising: mapping a DMRS sequence to 12 subcarriers of a physical resource block, PRB; characterizied by, dividing the PRB, to which the DMRS is mapped, into N sub-PRBs, where N is greater than or equal to 2, each sub-PRB including 12/N subcarriers to which the DMRS is mapped; and transmitting the N sub-PRBs to a base station on N subframes. mapping a DMRS sequence to 12 subcarriers of a physical resource block, PRB; characterizied by, dividing the PRB, to which the DMRS is mapped, into N sub-PRBs, where N is greater than or equal to 2, each sub-PRB including 12/N subcarriers to which the DMRS is mapped; and transmitting the N sub-PRBs to a base station on N subframes.
A clear coating composition comprising a hydroxyl group-containing acrylic resin and a polyisocyanate compound, wherein the hydroxyl group-containing acrylic resin is a copolymer comprising an ethylenically unsaturated monomer having a polycarbonate diol residue and a hydroxyl group-containing (meth)acrylic acid ester as copolymerization components, the ethylenically unsaturated monomer having a polycarbonate diol residue is a reaction product of a hydroxyalkyl group-containing ethylenically unsaturated monomer, a diisocyanate compound having two isocyanate groups differing from each other in reactivity with hydroxyalkyl, and a polycarbonate diol, and the polycarbonate diol is represented by the general formula: wherein x and y are each independently an integer of 1 to 8 and z is an integer of 1 to 15.
A diagnostic marker comprising particles having a diameter of from 1 nm to 100 μm, the particles possessing on their surfaces a site having a high specific bonding ability to a specific antigen residing on the mucosa of digestive cancers and a site having a low bonding ability to the mucosa of digestive organs, wherein the particles contain as a principle ingredient a polymer having a structure that is represented by formula, wherein, R' is hydrogen atom or a hydrocarbon group having from 1 to 4 carbon atoms; n is any number of from 10 to 400; m is any number of from 10 to 400; k is any number of from 10 to 200; A is lectin; w, x, y, and z, each is a number that allows the present polymer to have a molecular weight of from 10,000 to 1,000,000, and (x+y):z:w is from 1:0.2 to 2.5:5 to 300; either one of x and y may be 0; and the order of each repeating unit corresponding to each repeating number of w, x, y, and z is arbitrary in the main chain of the present polymer and the particles incorporating an identification material.