mhurhangee/ep-ind-claims huggingface dataset:
A latent heat accumulator (10; 10.1) for an electrical conductor to be mounted in a housing having - at least two latent heat accumulator elements (26, 27; 32, 33), - at least one heat transport medium, which dissipates heat from the electrical conductor, in particular at least two heat transport media, which are electrically conductively connected to one another, characterized in that the latent heat accumulator elements (26, 27; 32, 33) and the heat transport medium are arranged in layers, in such a manner that the latent heat accumulator elements are touched by the heat transport medium on in each case at least one surface side, so that heat is conducted from the heat transport medium into a touching latent heat accumulator element. - at least two latent heat accumulator elements (26, 27; 32, 33), - at least one heat transport medium, which dissipates heat from the electrical conductor, in particular at least two heat transport media, which are electrically conductively connected to one another,
Household appliance comprising a reservoir, a vessel for generating pressurised steam, and a supply circuit configured to supply the vessel with water from water contained in the reservoir, the supply circuit comprising a pump and, downstream from the pump, a bypass circuit configured to return some of the water coming from the pump to the reservoir, the bypass circuit comprising a backflow funnel extending inside the reservoir and leading to a maximum filling level of the reservoir, characterised in that the bypass circuit comprises an insert which is returned to the inside of the backflow funnel, said insert filling some of the internal volume of the backflow funnel and forming with the backflow funnel, a passage channel which fluidically connects the inside of the reservoir to a part of the bypass circuit which is located upstream from the backflow funnel.
Vaccine comprising at least one peptide, selected from the group consisting of PEEDGTRFHRRASK, PEEDGTRFHRKASK, PEEDGTRFHRTASK, PEEDGSRFHKQASK, and PEEDGSRFHRQATK.
A personal impact protection device, comprising: an inner shell and an outer shell, the outer shell being spaced from the inner shell by a distance, and an elastomeric energy-absorption member mechanically coupled to the inner and outer shells (42, 44) and spanning the distance between them, characterized in that the elastomeric energy-absorption member is provided by a single elastomeric energy-absorption member anchored at anchoring points to both the inner shell and the outer shell, so that an impact on a front area, a rear area or a lateral area (57; 58) of the outer shell causing the outer shell to move relative to the inner shell, thereby causing a change in the spacing between them, causes the single elastomeric energy-absorption member in the region of increased spacing to stretch and to thereby absorb energy. an inner shell and an outer shell, the outer shell being spaced from the inner shell by a distance, and an elastomeric energy-absorption member mechanically coupled to the inner and outer shells (42, 44) and spanning the distance between them, characterized in that the elastomeric energy-absorption member is provided by a single elastomeric energy-absorption member anchored at anchoring points to both the inner shell and the outer shell, so that an impact on a front area, a rear area or a lateral area (57; 58) of the outer shell causing the outer shell to move relative to the inner shell, thereby causing a change in the spacing between them, causes the single elastomeric energy-absorption member in the region of increased spacing to stretch and to thereby absorb energy.
A method of controlling the management of forming drums in building tyres for vehicle wheels, comprising: - feeding "n" forming drums (13; 15) one after the other in a building line (12; 14) having a succession of work stations, for each time interval equal to one cycle time (Tc), said building line (12; 14) comprising: - at least one assembly (17; 35; 44) of "m" work stations (17a, 17b; 35a, 35b; 44a, 44b) each adapted to form the same component of the tyre; wherein "m" distinct forming drums (13; 15) are respectively brought to and moved apart from the different distinct "m" work stations (17a, 17b; 35a, 35b; 44a, 44b) of said assembly (17; 35; 44); wherein each of said "m" work stations (17a, 17b; 35a, 35b; 44a, 44b) receives and releases a forming drum (13; 15) at each time interval equal to a multiple of "m" of said cycle time (Tc); wherein "m" is greater than or equal to 2 and "n" is greater than or equal to "m". - feeding "n" forming drums (13; 15) one after the other in a building line (12; 14) having a succession of work stations, for each time interval equal to one cycle time (Tc), said building line (12; 14) comprising: - at least one assembly (17; 35; 44) of "m" work stations (17a, 17b; 35a, 35b; 44a, 44b) each adapted to form the same component of the tyre;
An apparatus for spraying flowable media and in particular plant protection agents onto plants, comprising at least a first spray device and a second spray device, wherein each of the the spray devices (2, 4) has a tubular conduit device (22, 42) that extends in a predetermined longitudinal direction and is suitable and intended for conducting a flowable plant protection agent, and wherein each of the spray units has at least one spray head (24, 44) that is in flow communication with the conduit device associated therewith, wherein the spray devices (2, 4) are provided in a pivotable manner in relation to a predetermined pivot axis on a carrier, wherein the pivot axis is perpendicular to the longitudinal direction of the conduit device (22, 42) and the apparatus has an adjustment unit that allows both the first spray device and the second spray device to be pivoted between a working position and an idle position, wherein the adjustment device is movable relative to the carrier, characterised in that in the working position a pivoting movement of the first spray device with respect to the pivot axis in at least one pivoting direction is not coupled to the pivoting movement of the second spray device with respect to the pivot axis, wherein a projection (26, 46) is arranged on at least one spray device (2, 4) which contacts the adjustment devcie as a function of a position of the adjustment device. the spray devices (2, 4) are provided in a pivotable manner in relation to a predetermined pivot axis on a carrier, wherein the pivot axis is perpendicular to the longitudinal direction of the conduit device (22, 42) and the apparatus has an adjustment unit that allows both the first spray device and the second spray device to be pivoted between a working position and an idle position, wherein the adjustment device is movable relative to the carrier, characterised in that in the working position a pivoting movement of the first spray device with respect to the pivot axis in at least one pivoting direction is not coupled to the pivoting movement of the second spray device with respect to the pivot axis, wherein a projection (26, 46) is arranged on at least one spray device (2, 4) which contacts the adjustment devcie as a function of a position of the adjustment device.
A data receiving method, comprising: receiving control information; receiving, data of a transport block, TB, on a first time-frequency resource; determining, an actual value m of a quantity of code block, CB, groups in the TB based on TB size, TBS, a maximum value CB max of a data size of a CB and a maximum quantity N Group_ max of CB groups for the TB, wherein information about the size of the TB is comprised in the control information, and wherein m is a positive integer, m is is determined as the smallest value in N Group_re and N Group_ max, N Group _max is a maximum quantity of CB groups for the TB, each of the m CB groups comprises at least one CB, and N Group _ re = ceil N CB _ re N CB _ min, N CB _ re = ceil TBS CB max, N CB _min is a minimum value of a quantity of CBs in one CB group; and obtaining, m CB groups in the TB, and generating data of one TB by concatenating demodulated and decoded data of the m CB groups. receiving control information; receiving, data of a transport block, TB, on a first time-frequency resource; determining, an actual value m of a quantity of code block, CB, groups in the TB based on TB size, TBS, a maximum value CB max of a data size of a CB and a maximum quantity N Group_ max of CB groups for the TB, wherein information about the size of the TB is comprised in the control information, and wherein m is a positive integer, m is is determined as the smallest value in N Group_re and N Group_ max, N Group _max is a maximum quantity of CB groups for the TB, each of the m CB groups comprises at least one CB, and N Group _ re = ceil N CB _ re N CB _ min, N CB _ re = ceil TBS CB max, N CB _min is a minimum value of a quantity of CBs in one CB group; and obtaining, m CB groups in the TB, and generating data of one TB by concatenating demodulated and decoded data of the m CB groups.
A plug locking assembly comprising: a cover comprising an opening for receiving and holding a network plug comprising a latch; and a latch support surface associated with said cover, said latch support surface alternatively rotatable between a first position to underlie said latch of said plug to resist depression of said latch and a second position to free said latch support surface from underlying said latch when said plug is engaged within said opening of said cover. a cover comprising an opening for receiving and holding a network plug comprising a latch; and a latch support surface associated with said cover, said latch support surface alternatively rotatable between a first position to underlie said latch of said plug to resist depression of said latch and a second position to free said latch support surface from underlying said latch when said plug is engaged within said opening of said cover.
A polyamide resin production method for producing a polyamide resin through polycondensation of a polyamide oligomer using an extruder including an intermeshed co-rotation twin screw within a cylinder, the polyamide oligomer comprising: a diamine unit comprising 70 mol% or more of a diamine unit selected from an aromatic diamine unit represented by the following general formula and an alicyclic diamine unit represented by the following general formula; and a dicarboxylic acid unit comprising 50 mol% or more of a dicarboxylic acid unit selected from a linear aliphatic dicarboxylic acid unit represented by the following general formula (II-1) and an aromatic dicarboxylic acid unit represented by the following general formula (II-2), the production method comprising supplying the polyamide oligomer having a relative viscosity of from 1.1 to 1.3 and a water content of 3% by mass or less from a supply port into the cylinder and melt-kneading the polyamide oligomer in the cylinder to produce the polyamide resin through polycondensation, the extruder comprising an open vent, an open vent, and a vacuum vent, the open vent being arranged at at least one of a position above the supply port or a position on an upstream end side with respect to a position of the supply port in the cylinder, the extruder further comprising a pressure-decreasing element arranged on an upstream side with respect to a position of the vacuum vent, the open vent being arranged on a side downstream with respect to the position of the supply port in the cylinder and upstream with respect to a position of the pressure-decreasing element, a flow rate measured at a height of 1 m above a vent port of the open vent using an anemometer being 0.1 m/s or more, an area of 50% or less of a total screw length of the extruder comprising a vacuum area at 0.04 MPa (300 torr) or less: wherein, in the general formula (II-1), n represents an integer of from 2 to 18, and in the general formula (II-2), Ar represents an arylene group, wherein the relative viscosity is determined by (i) dissolving 0.2 g of the polyamide oligomer in 20 ml of 96% sulfuric acid, and measuring the dropping time (t) thereof at 25°C by using a Cannon Fenske-type viscometer, (ii) measuring the dropping time (t 0) of 96% sulfuric acid in the same manner, and (iii) calculating the relative viscosity of the polyamide oligomer as follows: Relative Viscosity = t / t 0. (i) dissolving 0.2 g of the polyamide oligomer in 20 ml of 96% sulfuric acid, and measuring the dropping time (t) thereof at 25°C by using a Cannon Fenske-type viscometer, (ii) measuring the dropping time (t 0) of 96% sulfuric acid in the same manner, and (iii) calculating the relative viscosity of the polyamide oligomer as follows: Relative Viscosity = t / t 0.
A small motor having a quadrangular external shape in which a 4-pole field magnet is attached to an inner peripheral surface of a motor casing made of metal, the motor comprising: the motor casing having a side wall formed into an overall shape of a quadrangle such that four flat side portions and arcuate corner portions equal in number to the four side portions and located at respective corners between the side portions are continuously joined together; and the field magnet having a circular inner peripheral surface having a diameter greater than an outside diameter of a rotor and a quadrangular external shape, the quadrangular external shape being formed such that four flat side portions and arcuate corner portions equal in number to the four side portions and located at respective corners between the side portions are continuously joined together, characterized in that the arcuate corner portions of the motor casing and the arcuate corner portions of the field magnet extend along respective circles having a center located at a center of a motor shaft, and central angles of the arcuate corner portions fall within a range of 15° to 35° inclusive. the motor casing having a side wall formed into an overall shape of a quadrangle such that four flat side portions and arcuate corner portions equal in number to the four side portions and located at respective corners between the side portions are continuously joined together; and the field magnet having a circular inner peripheral surface having a diameter greater than an outside diameter of a rotor and a quadrangular external shape, the quadrangular external shape being formed such that four flat side portions and arcuate corner portions equal in number to the four side portions and located at respective corners between the side portions are continuously joined together, characterized in that the arcuate corner portions of the motor casing and the arcuate corner portions of the field magnet extend along respective circles having a center located at a center of a motor shaft, and central angles of the arcuate corner portions fall within a range of 15° to 35° inclusive.
A computer-implemented method of selecting a fixed point number format for representing values input to, and/or output from, a plurality of layers of a Deep Neural Network, DNN, for use in configuring a hardware implementation of the DNN, the method comprising: receiving an instantiation of the DNN configured to represent the values of each of the plurality of layers using one or more initial fixed point number formats for that layer, each initial fixed point number format comprising an exponent and a mantissa bit length; identifying a sequence of the plurality of layers wherein each layer is preceded in the sequence by any layer of the plurality of layers on which it depends; forming a plurality of disjoint subsets from the plurality of layers, wherein each of the subsets comprises a contiguous set of layers in the sequence; for each subset of the plurality of subsets, iteratively adjusting the fixed point number formats for the layers in the subset to fixed point number formats with a next lowest mantissa bit length until an output error of the instantiation of the DNN exceeds an error threshold (306, 308, 310, 312); in response to determining that the subsets comprise greater than a lower threshold number of layers, forming a higher number of disjoint subsets from the plurality of layers and repeating the iterative adjusting (314, 316); and in response to determining that the subsets comprise less than or equal to the lower threshold number of layers, outputting the fixed point number formats for the plurality of layers (314, 318). receiving an instantiation of the DNN configured to represent the values of each of the plurality of layers using one or more initial fixed point number formats for that layer, each initial fixed point number format comprising an exponent and a mantissa bit length; identifying a sequence of the plurality of layers wherein each layer is preceded in the sequence by any layer of the plurality of layers on which it depends; forming a plurality of disjoint subsets from the plurality of layers, wherein each of the subsets comprises a contiguous set of layers in the sequence; for each subset of the plurality of subsets, iteratively adjusting the fixed point number formats for the layers in the subset to fixed point number formats with a next lowest mantissa bit length until an output error of the instantiation of the DNN exceeds an error threshold (306, 308, 310, 312); in response to determining that the subsets comprise greater than a lower threshold number of layers, forming a higher number of disjoint subsets from the plurality of layers and repeating the iterative adjusting (314, 316); and in response to determining that the subsets comprise less than or equal to the lower threshold number of layers, outputting the fixed point number formats for the plurality of layers (314, 318).
A wind turbine blade for a rotor of a wind turbine having a substantially horizontal rotor shaft, said rotor comprising a hub, from which the wind turbine blade extends substantially in a radial direction when mounted to the hub, the wind turbine blade having a longitudinal direction with a tip end and a root end and a transverse direction, the wind turbine blade further comprising: - a profiled contour including a pressure side and a suction side, as well as a leading edge and a trailing edge with a chord having a chord length extending there between, the profiled contour, when being impacted by an incident airflow, generating a lift, wherein - a surface mounted device is attached to a surface of the wind turbine blade, wherein - the surface mounted device is attached to the surface of the wind turbine blade via at least a first attachment part, which is connected to a part of the surface mounted device, characterised in that - the attachment part comprises a circumferential part made of a double-adhesive tape that forms a cavity between at least the housing, the surface of the wind turbine blade, and a part of the surface mounted device, and wherein - the cavity is filled with an adhesive that provides an adhesive bonding to the surface of the wind turbine blade. - a profiled contour including a pressure side and a suction side, as well as a leading edge and a trailing edge with a chord having a chord length extending there between, the profiled contour, when being impacted by an incident airflow, generating a lift, wherein - a surface mounted device is attached to a surface of the wind turbine blade, wherein - the surface mounted device is attached to the surface of the wind turbine blade via at least a first attachment part, which is connected to a part of the surface mounted device, characterised in that - a surface mounted device is attached to a surface of the wind turbine blade, wherein - the surface mounted device is attached to the surface of the wind turbine blade via at least a first attachment part, which is connected to a part of the surface mounted device, characterised in that - the attachment part comprises a circumferential part made of a double-adhesive tape that forms a cavity between at least the housing, the surface of the wind turbine blade, and a part of the surface mounted device, and wherein - the cavity is filled with an adhesive that provides an adhesive bonding to the surface of the wind turbine blade.
An apparatus of an access point, AP, the apparatus comprising: processing circuitry; and memory, wherein for multi-AP coordination of target wake time, TWT, schedules, the processing circuitry is configured to: decode a basic service set, BSS, TWT service period, SP, report from a second AP of an overlapping basic service set, OBSS, the BSS TWT SPs report indicating parameters of periodic TWT SPs scheduled by the AP2; when any of TWT SPs scheduled by the AP1 overlap at least partially with any of the TWT SPs scheduled by the AP2, encode signalling to negotiate an agreement with the AP2 for sharing time and/or frequency resources of a transmission opportunity, TxOP, during an overlapping TWT SP of the AP1; and perform operations during the overlapping TWT SP in accordance with the negotiated agreement, wherein the operations performed in accordance with the negotiated agreement include communicating low-latency time-sensitive traffic, TST, with a station, STA. decode a basic service set, BSS, TWT service period, SP, report from a second AP of an overlapping basic service set, OBSS, the BSS TWT SPs report indicating parameters of periodic TWT SPs scheduled by the AP2; when any of TWT SPs scheduled by the AP1 overlap at least partially with any of the TWT SPs scheduled by the AP2, encode signalling to negotiate an agreement with the AP2 for sharing time and/or frequency resources of a transmission opportunity, TxOP, during an overlapping TWT SP of the AP1; and perform operations during the overlapping TWT SP in accordance with the negotiated agreement, wherein the operations performed in accordance with the negotiated agreement include communicating low-latency time-sensitive traffic, TST, with a station, STA.
A catalyst composition comprising (a) a carrier comprising (i) CON type zeolite in an amount in the range of from 5 to 95 wt%, based on total weight of carrier, (ii) ZSM-5 type zeolite in an amount of from 5 to 95 wt%, based on total weight of carrier; and (iii) an inorganic binder in an amount in the range of from 10 to 60 wt%, based on total weight of carrier; and (b) of from 0.001 to 10 wt% one or more metals selected from the group consisting of tungsten, vanadium, molybdenum, rhenium, nickel, cobalt, chromium, manganese, platinum and palladium. (a) a carrier comprising (i) CON type zeolite in an amount in the range of from 5 to 95 wt%, based on total weight of carrier, (ii) ZSM-5 type zeolite in an amount of from 5 to 95 wt%, based on total weight of carrier; and (iii) an inorganic binder in an amount in the range of from 10 to 60 wt%, based on total weight of carrier; and (b) of from 0.001 to 10 wt% one or more metals selected from the group consisting of tungsten, vanadium, molybdenum, rhenium, nickel, cobalt, chromium, manganese, platinum and palladium.