mhurhangee/ep-ind-claims huggingface dataset:
A method for connecting to a network, applied in a routing device, comprising: receiving (S301, S402) device information sent by a smart device, wherein the device information is broadcasted by the smart device when the smart device is not connected to the network; generating (S302, S403) a network access request carrying the device information; based on a bound user account, sending (S303, S404) the network access request to a terminal device on which the bound user account is logged in, the network access request comprising information for requesting a user of the terminal device to confirm the network access request, receiving a process result made by the user from the terminal device with regard to the network access request; and when the process result indicates that the network is allowed to be accessed, sending (S305, S407) the connection information of the routing device to the smart device, such that the smart device connects to the network according to the connection information via the routing device, wherein, based on a bound user account, sending (S303, S404) the network access request to a terminal device on which the bound user account is logged in, comprises: sending account information of the bound user account and the network access request to a server, such that the server forwards the network access request to the terminal device on which the bound user account is logged in according to the account information. receiving (S301, S402) device information sent by a smart device, wherein the device information is broadcasted by the smart device when the smart device is not connected to the network; generating (S302, S403) a network access request carrying the device information; based on a bound user account, sending (S303, S404) the network access request to a terminal device on which the bound user account is logged in, the network access request comprising information for requesting a user of the terminal device to confirm the network access request, receiving a process result made by the user from the terminal device with regard to the network access request; and when the process result indicates that the network is allowed to be accessed, sending (S305, S407) the connection information of the routing device to the smart device, such that the smart device connects to the network according to the connection information via the routing device, wherein, based on a bound user account, sending (S303, S404) the network access request to a terminal device on which the bound user account is logged in, comprises: sending account information of the bound user account and the network access request to a server, such that the server forwards the network access request to the terminal device on which the bound user account is logged in according to the account information.
A case for a personal electronic device and one or more cards to be inserted, the case comprising a flexible inner layer and an exterior hard layer, wherein: the flexible inner layer includes a bottom surface and side portions including side surfaces joined to the bottom surface of the flexible inner layer and extending upward therefrom, the bottom and the side surfaces of the flexible inner layer thereby forming a first fitted cavity, the flexible inner layer further forming a top surface of an adjacent second fitted cavity, wherein the first fitted cavity is configured to accept and retain the inserted personal electronic device such that the bottom surface of the flexible inner layer covers a bottom surface of the inserted personal electronic device and the side surfaces of the flexible inner layer cover at least a portion of side surfaces of the inserted personal electronic device; and the exterior hard layer includes a bottom surface and side surfaces joined to the bottom surface of the exterior hard layer and extending upward therefrom, wherein the second fitted cavity is further formed by the bottom surface of the exterior hard layer and first portions of the side surfaces of the exterior hard layer, wherein second portions of the side surfaces of the exterior hard layer substantially cover the side portions of the flexible inner layer, and wherein the second fitted cavity is configured to accept and retain at least one card and at least one of the first portions of the side surfaces of the exterior hard layer includes an opening via which the card is inserted in the case. the flexible inner layer includes a bottom surface and side portions including side surfaces joined to the bottom surface of the flexible inner layer and extending upward therefrom, the bottom and the side surfaces of the flexible inner layer thereby forming a first fitted cavity, the flexible inner layer further forming a top surface of an adjacent second fitted cavity, wherein the first fitted cavity is configured to accept and retain the inserted personal electronic device such that the bottom surface of the flexible inner layer covers a bottom surface of the inserted personal electronic device and the side surfaces of the flexible inner layer cover at least a portion of side surfaces of the inserted personal electronic device; and the exterior hard layer includes a bottom surface and side surfaces joined to the bottom surface of the exterior hard layer and extending upward therefrom, wherein the second fitted cavity is further formed by the bottom surface of the exterior hard layer and first portions of the side surfaces of the exterior hard layer, wherein second portions of the side surfaces of the exterior hard layer substantially cover the side portions of the flexible inner layer, and wherein the second fitted cavity is configured to accept and retain at least one card and at least one of the first portions of the side surfaces of the exterior hard layer includes an opening via which the card is inserted in the case.
A method of controlling AC power delivered to a load from a power source where the nominal operational voltage of the load is smaller than the voltage of the power source said method including the steps of: (a) receiving AC power from the power source; (b) applying half of the full AC cycle pulse, namely an active pulse, to the load; (c) waiting for an even number of half-cycles, namely non-active half-cycles, to pass; (d) applying half of the full AC cycle pulse; (e) repeating steps (c) and (d) according to a predetermined time; characterised in that the method comprises variable duty cycle schemes having constantly changing number of non-active half-cycles, wherein the next active pulse applied to the load always changes polarity from the previous active pulse. (a) receiving AC power from the power source; (b) applying half of the full AC cycle pulse, namely an active pulse, to the load; (c) waiting for an even number of half-cycles, namely non-active half-cycles, to pass; (d) applying half of the full AC cycle pulse; (e) repeating steps (c) and (d) according to a predetermined time;
A detector module for a measurement instrument, wherein the detector module comprises a first signal input, a second signal input, and an averaging sub-module, wherein the first signal input is configured to receive a first complex-valued measurement signal associated with an input signal received from a device under test, wherein the second signal input is configured to receive a second complex-valued measurement signal associated with the input signal received from the device under test, characterised in that the averaging sub-module is configured to determine a combined average of the first complex-valued measurement signal and of a complex conjugate of the second complex-valued measurement signal over a predetermined number of samples, thereby obtaining a complex-valued average signal, and the averaging sub-module is configured to generate an output signal based on the complex-valued average signal. wherein the detector module comprises a first signal input, a second signal input, and an averaging sub-module, wherein the first signal input is configured to receive a first complex-valued measurement signal associated with an input signal received from a device under test, wherein the second signal input is configured to receive a second complex-valued measurement signal associated with the input signal received from the device under test, characterised in that the averaging sub-module is configured to determine a combined average of the first complex-valued measurement signal and of a complex conjugate of the second complex-valued measurement signal over a predetermined number of samples, thereby obtaining a complex-valued average signal, and the averaging sub-module is configured to generate an output signal based on the complex-valued average signal.
A wire assembly comprising: a plurality of strength members; a first coating layer disposed on the strength members; a conductive element helically wound about the first coating layer and having a length, and preferably also having a resistivity, associated with a predetermined resistance; and a second coating layer disposed on the conductive element, wherein the second coating layer is applied to the conductive element, and preferably also applied to the first coating layer; an insulation layer disposed on the second coating layer; and at least one of a jacket or a conductive shield surrounding the insulation layer; characterised in that said second coating layer is applied via pressure extrusion to eliminate air gaps between at least a portion of the first coating layer and the second coating layer. a plurality of strength members; a first coating layer disposed on the strength members; a conductive element helically wound about the first coating layer and having a length, and preferably also having a resistivity, associated with a predetermined resistance; and a second coating layer disposed on the conductive element, wherein the second coating layer is applied to the conductive element, and preferably also applied to the first coating layer; an insulation layer disposed on the second coating layer; and at least one of a jacket or a conductive shield surrounding the insulation layer; characterised in that said second coating layer is applied via pressure extrusion to eliminate air gaps between at least a portion of the first coating layer and the second coating layer.
An SOFC stack with a plurality of planar solid oxide fuel cells stacked one above the other, each of which has a metallic support structure, which has through-openings for a gas, for a cathode-electrolyte-anode unit, and a bipolar plate provided on the other side of the support structure, wherein an electric conductivity is provided between mutually adjacent single cells, characterised in that the support structure comprises metal, which forms an electrically insulating protective oxide layer and acts as an electric resistance heater to control the temperature of the fuel cell, for which purpose electric current can be conducted through the support structure between its protective oxide layers, and in that an electrically conductive material for the electric connection between the bipolar plate and the associated cathode-electrolyte-anode unit is introduced into at least some of the through-openings of the support structure in such a way that it is possible for gas to pass through these through-openings.
A heat exchanger (10, 110) for transferring thermal energy between a first working fluid and a second working fluid, the heat exchanger comprising: an outer shell (12, 112) that has a plurality of openings that include a first port (14, 114), a second port (16, 116), a third port (18, 118), and a fourth port (20, 120); a set of tubes (30, 32, 36, 40, 132) that each extend within the outer shell and between the first and second ports, each tube defining a first working fluid flow path through which the first working fluid is to flow; and a plenum space through which the second working fluid is to flow, the plenum space extending within the outer shell and between the third and fourth ports, and including fluid conduits (52, 54, 56, 58) that each at least partly surround at least one of the tubes, each fluid conduit defining a second working fluid flow path, characterised in that the outer shell forms a portion of the tube wall for at least some of the tubes in a region that is adjacent the first port and/or in a region that is adjacent the second port. an outer shell (12, 112) that has a plurality of openings that include a first port (14, 114), a second port (16, 116), a third port (18, 118), and a fourth port (20, 120); a set of tubes (30, 32, 36, 40, 132) that each extend within the outer shell and between the first and second ports, each tube defining a first working fluid flow path through which the first working fluid is to flow; and a plenum space through which the second working fluid is to flow, the plenum space extending within the outer shell and between the third and fourth ports, and including fluid conduits (52, 54, 56, 58) that each at least partly surround at least one of the tubes, each fluid conduit defining a second working fluid flow path, characterised in that the outer shell forms a portion of the tube wall for at least some of the tubes in a region that is adjacent the first port and/or in a region that is adjacent the second port.
A transcranial magnetic stimulation device comprising: - at least two coils (130, 140), - an input channel (150, 160) for each coil (130, 140), - a control unit, - at least one energy storage for storing energy for the at least two coils (130, 140), wherein the control unit is configured to: determine at least one stimulus intensity intended to be generated in the target by generating magnetic field by at least one coil (130, 140) of the at least two coils (130, 140), determine an energy level stored in the at least one energy storage, determine a modulation pattern individually for each coil (130, 140), the modulation pattern being at least in part dependent on the energy level of the at least one energy storage, for generating the magnetic field by the at least one coil (130, 140) of the at least two coils (130, 140), the generated magnetic field by the at least one coil (130, 140) causing the intended stimulus intensity in the target, generate at least one control signal for controlling the input channel of the at least one coil (130, 140) of the at least two coils (130, 140) according to the determined modulation pattern in order to control a current input of each coil (130, 140) from the at least one energy storage, characterized in that the control unit is further adapted to: control the current input of each coil (130, 140) in a step-like manner, wherein a step-like waveform of current input comprises several increasing steps and decreasing steps interrupted by near-constant segments. - at least two coils (130, 140), - an input channel (150, 160) for each coil (130, 140), - a control unit, - at least one energy storage for storing energy for the at least two coils (130, 140), determine at least one stimulus intensity intended to be generated in the target by generating magnetic field by at least one coil (130, 140) of the at least two coils (130, 140), determine an energy level stored in the at least one energy storage, determine a modulation pattern individually for each coil (130, 140), the modulation pattern being at least in part dependent on the energy level of the at least one energy storage, for generating the magnetic field by the at least one coil (130, 140) of the at least two coils (130, 140), the generated magnetic field by the at least one coil (130, 140) causing the intended stimulus intensity in the target, generate at least one control signal for controlling the input channel of the at least one coil (130, 140) of the at least two coils (130, 140) according to the determined modulation pattern in order to control a current input of each coil (130, 140) from the at least one energy storage,
Heat exchanger, comprising: - a casing surrounding a casing chamber of the heat exchanger, the casing chamber being designed to receive a fluid first medium, - a core tube extending within the casing chamber, - a tube bundle having a plurality of tubes wound around the core tube, the tube bundle being designed to receive at least one fluid second medium (M'), so that heat can be transferred indirectly between the first medium and the at least one second medium (M'), - a liquid distributor, arranged above the tube bundle in the casing chamber, for applying a liquid phase of the first medium to the tube bundle, the liquid distributor having distributor arms protruding from the core tube in the radial direction, - an annular channel extending above the distributor arms in a circumferential direction of the casing, the annular channel being designed to collect the first medium, characterized by a collection vessel formed by the core tube, the collection vessel being designed to collect the first medium, the distributor arms forming at least one first container and at least one second container separate from the first container for applying the liquid phase of the first medium to the tube bundle, the at least one first container being in flow connection with the annular channel, so that the liquid phase of the first medium can be introduced from the annular channel into the at least one first container and from there can be distributed over a first region of the tube bundle via outlet openings of the at least one first container, and the at least one second container being in flow connection with the collection vessel, so that the liquid phase of the first medium can be introduced from the collection vessel into the at least one second container and from there can be distributed over a second region of the tube bundle via outlet openings of the at least one second container. - a casing surrounding a casing chamber of the heat exchanger, the casing chamber being designed to receive a fluid first medium, - a core tube extending within the casing chamber, - a tube bundle having a plurality of tubes wound around the core tube, the tube bundle being designed to receive at least one fluid second medium (M'), so that heat can be transferred indirectly between the first medium and the at least one second medium (M'), - a liquid distributor, arranged above the tube bundle in the casing chamber, for applying a liquid phase of the first medium to the tube bundle, the liquid distributor having distributor arms protruding from the core tube in the radial direction, - an annular channel extending above the distributor arms in a circumferential direction of the casing, the annular channel being designed to collect the first medium,
A solid fertilizer, comprising the following components and: a 5-aminolevulinic acid represented by the following general formula R 2 R 1 NCH 2 COCH 2 CH 2 COR 3 wherein R 1 and R 2 are each independently a hydrogen atom, an alkyl group, an acyl group, an alkoxycarbonyl group, an aryl group, or an aralkyl group; and R 3 is a hydroxy group, an alkoxy group, an acyloxy group, an alkoxycarbonyloxy group, an aryloxy group, an aralkyloxy group or an amino group, or a salt of the acid and a solid fertilizer raw material, comprising 1 % by mass or more, as the nitrogen content, of at least one selected from the group consisting of ammonium nitrate, ammonium sulfate, and potassium nitrate in the solid fertilizer or 1 % by mass or more, in terms of P 2 O 5, of a phosphoric acid in the solid fertilizer, wherein a surface of the solid fertilizer is coated with a coating material, wherein the coating material is a petroleum wax. a 5-aminolevulinic acid represented by the following general formula R 2 R 1 NCH 2 COCH 2 CH 2 COR 3 wherein R 1 and R 2 are each independently a hydrogen atom, an alkyl group, an acyl group, an alkoxycarbonyl group, an aryl group, or an aralkyl group; and R 3 is a hydroxy group, an alkoxy group, an acyloxy group, an alkoxycarbonyloxy group, an aryloxy group, an aralkyloxy group or an amino group, or a salt of the acid and a solid fertilizer raw material, comprising 1 % by mass or more, as the nitrogen content, of at least one selected from the group consisting of ammonium nitrate, ammonium sulfate, and potassium nitrate in the solid fertilizer or 1 % by mass or more, in terms of P 2 O 5, of a phosphoric acid in the solid fertilizer, wherein a surface of the solid fertilizer is coated with a coating material, wherein the coating material is a petroleum wax.
Stackable tub (1, 1') for containing articles such as foodstuffs, comprising a hollow container which is formed of a thin wall and delimits at least one cavity between a container bottom wall and a container lateral peripheral wall, with a main opening face defining an opening plane of the cavity towards the top, with an upper peripheral lip extending radially towards the outside from the top of the container lateral peripheral wall, with a peripheral folded-over portion extending from the upper peripheral lip away from the opening plane, and with a lower peripheral lip protruding radially towards the outside from the bottom of the peripheral folded-over portion, characterized in that: - the lower peripheral lip runs, over at least part of its length, according to a periodic corrugation towards and away from the opening plane, defining an alternation of peaks and troughs, - said tub has indexing means in rotation about a direction (I-I) perpendicular to the opening plane and allowing said tub to be stacked in another tub in at least one position such that the peaks of the lower peripheral lip of said tub come into correspondence with the troughs of the lower peripheral lip of said other tub to form an assembly comprising said tub and said other tub. - the lower peripheral lip runs, over at least part of its length, according to a periodic corrugation towards and away from the opening plane, defining an alternation of peaks and troughs, - said tub has indexing means in rotation about a direction (I-I) perpendicular to the opening plane and allowing said tub to be stacked in another tub in at least one position such that the peaks of the lower peripheral lip of said tub come into correspondence with the troughs of the lower peripheral lip of said other tub to form an assembly comprising said tub and said other tub.