mhurhangee/ep-ind-claims huggingface dataset:
A server connection method for a client device, the method being characterized by the following steps: requesting connection information for connecting the client device to a preset file server (10,20) from an other client device in the same network when a connection of the client device to the preset file server (10,20) is not normally performed; and performing the connection to the file server (10,20) by the client device using the received connection information when the connection information is received from the other client device. requesting connection information for connecting the client device to a preset file server (10,20) from an other client device in the same network when a connection of the client device to the preset file server (10,20) is not normally performed; and performing the connection to the file server (10,20) by the client device using the received connection information when the connection information is received from the other client device.
A method of providing cell assignment for a wireless device served by a network node in a wireless network, the method performed by a network agent and the method comprising - obtaining measurements, made by at least one of the wireless device and the network node, related to network performance and to signals transmitted in one or more cells, - creating, for a set of candidate cells served by the network node, an input vector for an effect estimation function based on the obtained measurements, - estimating, for each candidate cell, a future effect of assigning the wireless device to said candidate cell by applying the created input vector to the effect estimation function, - determining a cell in the set of candidate cells to serve the wireless device, based on the estimated future effects of the candidate cells, and - assigning the wireless device to the determined cell for use in radio communication with the wireless device, characterized in that the effect estimation function is trained by arbitrarily assigning wireless devices to cells, measuring the immediate effect in the wireless network for each arbitrary cell assignment and modifying the effect estimation function to produce an estimated future effect that takes into account the respective immediate effect. - obtaining measurements, made by at least one of the wireless device and the network node, related to network performance and to signals transmitted in one or more cells, - creating, for a set of candidate cells served by the network node, an input vector for an effect estimation function based on the obtained measurements, - estimating, for each candidate cell, a future effect of assigning the wireless device to said candidate cell by applying the created input vector to the effect estimation function, - determining a cell in the set of candidate cells to serve the wireless device, based on the estimated future effects of the candidate cells, and - assigning the wireless device to the determined cell for use in radio communication with the wireless device,
An antenna, comprising a ground plate, and an antenna module disposed on the ground plate, wherein the antenna module comprises a clearance area in the ground plate, a support, and at least two branches; and each branch is disposed on the support; a partial projection of the support on a horizontal plane falls within the clearance area; and a projection, on the horizontal plane, of one end of each branch that is configured to connect to a feed point is outside the clearance area, and a projection of a tail end on the horizontal plane is inside the clearance area, wherein the clearance area comprises a first side edge (a) and a second side edge (b) that are adjacent to each other, and a third side edge (c) and a fourth side edge (d) that are disposed respectively opposite to the first side edge (a) and the second side edge (b); and the support comprises a first side surface and a second side surface that are adjacent to each other, and a third side surface and a fourth side surface that are respectively opposite to the first side surface and the second side surface; and a projection of the second side surface of the support on the horizontal plane falls on a straight line of the second side edge (b) of the clearance area, and coincides with at least a part of the second side edge (b) of the clearance area; a distance between a projection of the support on the horizontal plane and each of the third side edge (c) and the fourth side edge (d) of the clearance area is 0 mm to 5 mm; and the first side surface of the support is outside the clearance area. each branch is disposed on the support; a partial projection of the support on a horizontal plane falls within the clearance area; and a projection, on the horizontal plane, of one end of each branch that is configured to connect to a feed point is outside the clearance area, and a projection of a tail end on the horizontal plane is inside the clearance area, wherein the clearance area comprises a first side edge (a) and a second side edge (b) that are adjacent to each other, and a third side edge (c) and a fourth side edge (d) that are disposed respectively opposite to the first side edge (a) and the second side edge (b); and the support comprises a first side surface and a second side surface that are adjacent to each other, and a third side surface and a fourth side surface that are respectively opposite to the first side surface and the second side surface; and a projection of the second side surface of the support on the horizontal plane falls on a straight line of the second side edge (b) of the clearance area, and coincides with at least a part of the second side edge (b) of the clearance area; a distance between a projection of the support on the horizontal plane and each of the third side edge (c) and the fourth side edge (d) of the clearance area is 0 mm to 5 mm; and the first side surface of the support is outside the clearance area.
Hydraulically setting mixture comprising: a) from 6 to 25% by weight of cement, b) from 50 to 90% by weight of at least one aggregate, wherein the maximum particle size is from 8 to 63 mm and/or in the case of sand is 5 mm, and c) from 0.01 to 8% by weight of at least one fluoroorganyl-substituted silicon compound selected from the group consisting of the monomeric fluoroalkyl-substituted silanes and fluoroalkyl-substituted siloxanes or mixtures thereof, d) from 0.01 to 2% by weight of plasticizers selected from the group consisting of polycarboxylate ethers (PCEs), polymethyl methacrylates, lignosulfonates and naphthalene formaldehyde sulfonates, and/or e) from 0.01 to 1% by weight of at least one further auxiliary selected from the group consisting of dispersants, wetting agents, antifoams, air pore formers, retarders, accelerators and water reducers. a) from 6 to 25% by weight of cement, b) from 50 to 90% by weight of at least one aggregate, wherein the maximum particle size is from 8 to 63 mm and/or in the case of sand is 5 mm, and c) from 0.01 to 8% by weight of at least one fluoroorganyl-substituted silicon compound selected from the group consisting of the monomeric fluoroalkyl-substituted silanes and fluoroalkyl-substituted siloxanes or mixtures thereof, d) from 0.01 to 2% by weight of plasticizers selected from the group consisting of polycarboxylate ethers (PCEs), polymethyl methacrylates, lignosulfonates and naphthalene formaldehyde sulfonates, and/or e) from 0.01 to 1% by weight of at least one further auxiliary selected from the group consisting of dispersants, wetting agents, antifoams, air pore formers, retarders, accelerators and water reducers.
A bidirectional resonant conversion circuit, comprising: a primary capacitor, three primary side bridge arms (321, 322, 323), three three-port resonant cavities (331, 332, 333), three transformers (341, 342, 343), three secondary side bridge arms (351, 352, 353), and a secondary capacitor, wherein two ends of each primary side bridge arm (321, 322, 323) are respectively connected to two ends of the primary capacitor, the three primary side bridge arms are in a one-to-one correspondence with the three three-port resonant cavities (331, 332, 333), and primary-side windings of the three transformers (341, 342, 343) are in a one-to-one correspondence with the three three-port resonant cavities; each three-port resonant cavity (331, 332, 333) has three ports, a first port of each three-port resonant cavity is connected to a corresponding primary side bridge arm (321, 322, 323), a second port of each three-port resonant cavity is connected to a ground terminal of a corresponding primary side bridge arm, and a third port of each three-port resonant cavity is connected to a corresponding transformer (341, 342, 343); and two ends of each secondary side bridge arm (351, 352, 353) are respectively connected to two ends of the secondary capacitor, secondary-side windings of the three transformers (341, 342, 343) are in a one-to-one correspondence with the three secondary side bridge arms, and each transformer (341, 342, 343) is connected to a corresponding secondary side bridge arm; wherein each three-port resonant cavity (331, 332, 333) comprises a first group of inductor and capacitor, a second group of inductor and capacitor, and a third group of inductor and capacitor, wherein the first group of inductor and capacitor comprises a first inductor (LI a) and a first capacitor (C1a) that are connected in series, a first end of the first group of inductor and capacitor is used as the first port of the three-port resonant cavity (331, 332, 333), and the first end of the first group of inductor and capacitor is a first end of the first capacitor or a first end of the first inductor; the second group of inductor and capacitor comprises a second inductor (L2a) and a second capacitor (C2a) that are connected in series, a first end of the second group of inductor and capacitor is used as the second port of the three-port resonant cavity (331, 332, 333), and the first end of the second group of inductor and capacitor is a first end of the second capacitor (C2a) or a first end of the second inductor (L2a); the third group of inductor and capacitor comprises a third inductor (L3a) and a third capacitor (C3a) that are connected in series, a first end of the third group of inductor and capacitor is used as the third port of the three-port resonant cavity (331, 332, 333), and the first end of the third group of inductor and capacitor is a first end of the third capacitor or a first end of the third inductor; and a second end of the first group of inductor and capacitor, a second end of the second group of inductor and capacitor, and a second end of the third group of inductor and capacitor are connected to each other.
A non-therapeutic method of lightening skin comprising the step of applying on to a desired surface of the skin a skin lightening composition comprising: (a) an siRNA comprising an oligonucleotide comprising a sequence selected from the group consisting of SEQ ID: 1 UCAAUGACCACAUAGAUAAGGUCUC; SEQ ID: 2 UACUCAUUAGUACUAUCGCUGCAGG; SEQ ID: 3 UUAGAAUCAUUCUUGAUGUCUCUGG; SEQ ID: 4 UAACAGCCGGACAAGAAGAUGAUGG; SEQ ID: 5 AAGAGGUUGAAGUUCUUGAAGAUGC; SEQ ID: 6 CAAUUCACCCACACUGUTC; SEQ ID: 7 UUUAUUAAAGAUGCCACGUGG; SEQ ID: 10 UAGAAUCCCACCUUUACUCTG; and a portion comprising at least 19 nucleotides thereof; and (b) a cosmetically acceptable vehicle; wherein the oligonucleotide size is from 19 to 30 nucleotides. (a) an siRNA comprising an oligonucleotide comprising a sequence selected from the group consisting of SEQ ID: 1 UCAAUGACCACAUAGAUAAGGUCUC; SEQ ID: 2 UACUCAUUAGUACUAUCGCUGCAGG; SEQ ID: 3 UUAGAAUCAUUCUUGAUGUCUCUGG; SEQ ID: 4 UAACAGCCGGACAAGAAGAUGAUGG; SEQ ID: 5 AAGAGGUUGAAGUUCUUGAAGAUGC; SEQ ID: 6 CAAUUCACCCACACUGUTC; SEQ ID: 7 UUUAUUAAAGAUGCCACGUGG; SEQ ID: 10 UAGAAUCCCACCUUUACUCTG; and a portion comprising at least 19 nucleotides thereof; and SEQ ID: 1 UCAAUGACCACAUAGAUAAGGUCUC; SEQ ID: 2 UACUCAUUAGUACUAUCGCUGCAGG; SEQ ID: 3 UUAGAAUCAUUCUUGAUGUCUCUGG; SEQ ID: 4 UAACAGCCGGACAAGAAGAUGAUGG; SEQ ID: 5 AAGAGGUUGAAGUUCUUGAAGAUGC; SEQ ID: 6 CAAUUCACCCACACUGUTC; SEQ ID: 7 UUUAUUAAAGAUGCCACGUGG; SEQ ID: 10 UAGAAUCCCACCUUUACUCTG; and a portion comprising at least 19 nucleotides thereof; and (b) a cosmetically acceptable vehicle;
A composition suitable for topical application to the skin and transdermal delivery, comprising a calcium channel blocker active agent, superoxide dismutase, and emu oil.
A Process for manufacturing a bearing element, comprising providing one main body which comprises at least one elastomer material, providing at least one first coating element which comprises at least one first fibre composite material, and coating the first coating element to at least one portion of a first surface of the main body, wherein the first fibre composite material of the first coating element becomes at least partially and/or at least regionally hardened prior to the coating onto the main body, and wherein the at least one first elastomer material becomes at least regionally connected to the main body by means of casting and/or injection, characterized in that a) prior or after to the coating onto the main body, the first coating element becomes at least regionally connected with at least one first intermediate element on the side facing away from the main body, wherein preferably the first intermediate element on the side facing away from the main body becomes partially connected with at least one second coating element, or b) the first coating element on the side facing away from the main body becomes at least regionally connected to at least one second coating element. a) prior or after to the coating onto the main body, the first coating element becomes at least regionally connected with at least one first intermediate element on the side facing away from the main body, wherein preferably the first intermediate element on the side facing away from the main body becomes partially connected with at least one second coating element, or b) the first coating element on the side facing away from the main body becomes at least regionally connected to at least one second coating element.
Method for producing a furniture or floor panel, wherein a wood or stone imitating decor is applied to at least one surface of a plate-shaped substrate, and wherein the substrate or the wood or stone imitating decor is provided with an areal, three-dimensional structure, characterised in that to produce the structure, liquid and/or powdery application material is applied in a single layer or multiple layers to the substrate or the decor, in that the application material applied is solidified in regions by means of at least one digitally controllable device, in that the device is controlled using structural data present in digital form, and in that after the locally limited solidification of the application material, non-solidified, excess application material is removed from the plate-shaped substrate.
A sensor comprising: a sensor unit arranged in an exhaust system of an internal combustion engine and including: a filter member having a plurality of cells divided by porous partition walls and collecting particulate matter in exhaust gas; and at least one pair of electrode members (32, 33) arranged to face each other with one of the plurality of cells interposed therebetween so as to form a capacitor; and a controller estimating an amount of the particulate matter in the exhaust gas and detecting water present in the exhaust system of the internal combustion engine, based on an electrostatic capacitance (Cp) between the pair of electrode members (32, 33), and characterized in that: the controller is configured to determine an amount of water present in the exhaust system based on a peak value (Cp _pk) of the electrostatic capacitance (Cp) when water is present in the exhaust system, wherein as the amount of water increases the peak value (Cp _pk) of the electrostatic capacitance (Cp) becomes higher. a sensor unit arranged in an exhaust system of an internal combustion engine and including: a filter member having a plurality of cells divided by porous partition walls and collecting particulate matter in exhaust gas; and at least one pair of electrode members (32, 33) arranged to face each other with one of the plurality of cells interposed therebetween so as to form a capacitor; and a controller estimating an amount of the particulate matter in the exhaust gas and detecting water present in the exhaust system of the internal combustion engine, based on an electrostatic capacitance (Cp) between the pair of electrode members (32, 33),
A combustor wall element, the combustor wall element comprising a wall, the wall comprising a front surface and a back surface, the front surface being provided on a front side of the wall and the back surface being provided on a back side of the wall, a through opening penetrating the wall from the front surface to the back surface, a duct being provided extending from the front surface and to a back end of the combustor wall element, and said duct being in fluid communication with the through opening, at least one cooling channel (6, 6i, 6ii) being provided inside the wall, wherein said cooling channel extends between a first open end and a second open end, and wherein at least a section of the cooling channel (6, 6i, 6ii) extends at least essentially parallel to the front surface; and wherein it comprises a fuel supply plenum which is provided distant from the front surface and towards the back of the combustor wall element, characterised in that at least one fuel discharge conduit extends from the fuel supply plenum to the front side of the wall, wherein the fuel discharge conduit comprises a back end with an inlet opening in fluid communication with the fuel supply plenum and a front end with a discharge opening opening out at the front side of the wall.
A bidirectional filter, comprising a housing and at least two control valve components, two of the control valve components dividing an inner chamber of the housing into two transitional chambers (212, 213) respectively located at two ends of the housing adjacent inlet/outlet ports of the bidirectional filter and a filter chamber located at the middle of the housing between the two transitional chambers (212, 213), a filter core being provided inside the filter chamber, each of the control valve components comprising a frame body fixed to an inner wall of the housing and an outlet blocking piece cooperating with an outlet of the frame body, the outlet blocking piece being located at an outer side of the frame body, wherein, the bidirectional filter further comprises a protective member located in each of the transitional chambers (212, 213) and fixed with respect to the housing, and the protective member has a protective surface opposite to an outer side surface of the outlet blocking piece and is configured to restrict the displacement of the outlet blocking piece so as to maintain the distance between each inlet/outlet port and the corresponding outlet blocking piece in a predetermined range to prevent the flowing section from becoming too small; wherein the protective member comprises a plurality of protective rods and a protective piece, each protective rod has a root end connected to the inner wall of the housing and a terminal end protruding towards the outlet blocking piece, and the protective surface is formed on the protective piece; and wherein the protective piece is an annular plate, and the terminal end of each of the protective rods is connected to the annular plate.
Pipe branch piece (1, 1', 1") for a downpipe, in which waste water can be guided in a falling direction in the form of a water coating on a wall (11, 20), comprising an upper downpipe section having an inlet opening, a deflection section that adjoins the upper downpipe section, and a lower downpipe section that adjoins the deflection section and has an outlet opening, and also at least one supply pipe section, which opens into the pipe branch piece (1, 1', 1") in the region of the deflection section, wherein the deflection section comprises a first deflection region, which deflects the waste water with regard to the falling direction, and, as seen in the falling direction with regard to the first deflection region, a subsequently arranged second deflection region, to which the waste water is supplied from the first deflection region, wherein the deflection section comprises a throughflow region and an opening region in which the supply pipe opens via the supply pipe section into the pipe branch piece, wherein the opening region is separated from the throughflow region by a dividing wall so that waste water is prevented from entering the opening region from the throughflow region, wherein the first deflection section comprises a separating edge which is arranged such that the waste water flows across the opening region or across the dividing wall characterized in that the second deflection region is arranged directly after the first deflection region, as seen in the falling direction, and that the second deflection region extends in an inclined manner at an angle (α) in the range of from 2 to 12° with respect to the falling direction and is at an angle (δ) in the range of from 30° to 50°, in particular 40°, with respect to the direction of the waste water which was deflected by the first deflection region.
A chemical entity, which is a compound of formula: wherein Z is R 5 is -H, -F, -Cl, -CH 3, -CFH 2, -CF 2 H, -CF 3, -CH 2 CH 3, -CF 2 CH 3, -CH 2 CF 3, cyclopropyl, -OCF 3, -OCF 2 H, -SCH 3, -S 2 CH 3 or -C=CH; R 6 is -H or -F; and R 7 is -H, -F, -Cl or -CH 3. Z is R 5 is -H, -F, -Cl, -CH 3, -CFH 2, -CF 2 H, -CF 3, -CH 2 CH 3, -CF 2 CH 3, -CH 2 CF 3, cyclopropyl, -OCF 3, -OCF 2 H, -SCH 3, -S 2 CH 3 or -C=CH; R 6 is -H or -F; and R 7 is -H, -F, -Cl or -CH 3.
A computer device, comprising a central processing unit, CPU, and a cloud controller, wherein the cloud controller comprises a transmission queue module, a response queue module, a double data rate, DDR, interface, and a network interface, the DDR interface is configured to connect the CPU to the cloud controller, and the network interface is configured to connect the cloud controller to a network device; the CPU is configured to: after generating a request for performing a read/write operation on the network device, convert the read/write operation request into a control command, and write the control command into the transmission queue module, wherein the control command is used to instruct the cloud controller to perform a read operation or a write operation on the network device, and the control command carries operation information of the read operation or the write operation; and the cloud controller is configured to: when the control command in the transmission queue module is triggered, perform the read operation or the write operation on the network device according to the operation information in the control command, receive a response message sent by the network device, and write the response message sent by the network device into the response queue module.