mhurhangee/ep-ind-claims huggingface dataset:
Construction and/or insulating element comprising - an electrically non-conductive foam structure, - a shaped body of a fibre composite material, which completely or partially encloses the foam structure, and - a capacitor, which has a layered construction on a base element with open pores having inner pore surfaces, wherein the base element comprises the electrically non-conductive foam structure and an electrically conductive layer in a region of a part of the inner pore surfaces and, by means of the electrically conductive layer, forms a continuous electrode, wherein a) a layer of a solid body electrolyte is arranged directly on the electrode, b) an electrically conductive layer which forms a counter electrode is arranged directly on the solid body electrolyte and c) the counter electrode is applied as a thin layer so that, within the open pores, a continuous free space remains, and d) the electrically conductive part of the inner pore surfaces is nanostructured. - an electrically non-conductive foam structure, - a shaped body of a fibre composite material, which completely or partially encloses the foam structure, and - a capacitor, which has a layered construction on a base element with open pores having inner pore surfaces, wherein the base element comprises the electrically non-conductive foam structure and an electrically conductive layer in a region of a part of the inner pore surfaces and, by means of the electrically conductive layer, forms a continuous electrode, wherein a) a layer of a solid body electrolyte is arranged directly on the electrode, b) an electrically conductive layer which forms a counter electrode is arranged directly on the solid body electrolyte and c) the counter electrode is applied as a thin layer so that, within the open pores, a continuous free space remains, and d) the electrically conductive part of the inner pore surfaces is nanostructured. a) a layer of a solid body electrolyte is arranged directly on the electrode, b) an electrically conductive layer which forms a counter electrode is arranged directly on the solid body electrolyte and c) the counter electrode is applied as a thin layer so that, within the open pores, a continuous free space remains, and d) the electrically conductive part of the inner pore surfaces is nanostructured.
A method of communication within a mobile radio communications device between a Universal Integrated Circuit Card in User Datagram Protocol, UDP, server mode and any one or more of a plurality of User Datagram Protocol clients (40, 42) each having a same IP address, said method comprising: creating for each of said User Datagram Protocol clients (40, 42) a socket, wherein each socket is bound to a client port; and associating a client identifier to each of bound client ports; and making each said client identifier available to the Universal Integrated Circuit Card whereby the Universal Integrated Circuit Card can distinguish between said plurality of User Datagram Protocol clients (40, 42). creating for each of said User Datagram Protocol clients (40, 42) a socket, wherein each socket is bound to a client port; and associating a client identifier to each of bound client ports; and making each said client identifier available to the Universal Integrated Circuit Card whereby the Universal Integrated Circuit Card can distinguish between said plurality of User Datagram Protocol clients (40, 42).
Method for producing an electrode material, characterised by the following steps: a) providing a number of base substances and additionally silicon for producing the electrically conductive matrix, b) mixing and pressing the base substances into a tablet, c) immersing the tablet in a solvent, d) irradiating the tablet with high-frequency electromagnetic radiation, e) pulverising the irradiated tablet and subsequently immersing the powder in an additional solvent, f) producing a mixture of the powder immersed in the additional solvent and lithium or sodium as the active material, g) heating the mixture to a predefined temperature and subsequently stirring the heated mixture, h) cooling the stirred, heated mixture, i) irradiating the cooled mixture with high-frequency electromagnetic radiation, and j) cooling and pulverising the irradiated mixture. a) providing a number of base substances and additionally silicon for producing the electrically conductive matrix, b) mixing and pressing the base substances into a tablet, c) immersing the tablet in a solvent, d) irradiating the tablet with high-frequency electromagnetic radiation, e) pulverising the irradiated tablet and subsequently immersing the powder in an additional solvent, f) producing a mixture of the powder immersed in the additional solvent and lithium or sodium as the active material, g) heating the mixture to a predefined temperature and subsequently stirring the heated mixture, h) cooling the stirred, heated mixture, i) irradiating the cooled mixture with high-frequency electromagnetic radiation, and j) cooling and pulverising the irradiated mixture.
A heat exchanger comprising: at least one heat transfer tube extending in a first direction intersecting a direction of air flow, and having refrigerant flowing therethrough; a first plate fin extending in the first direction and spaced a first distance from the at least one heat transfer tube in a second direction perpendicular to the first direction; a second plate fin extending in the first direction and spaced a second distance from the first plate fin in the second direction; a first corrugated fin disposed between the at least one heat transfer tube and the first plate fin; and a second corrugated fin disposed between the first plate fin and the second plate fin, the first plate fin and the first corrugated fin being connected to each other by a plurality of first connections spaced a third distance from one another in the first direction, the first plate fin and the second corrugated fin being connected to each other by a plurality of second connections spaced a fourth distance from one another in the first direction, the third distance and the fourth distance being greater than the first distance and the second distance, the direction of air flow is a direction perpendicular to the first direction and the second direction, and a width of each of the first and second plate fins (12a, 12b) is greater than a width of each of the first and second corrugated fins (13a, 13b) in the direction of air flow, a portion of each of the first and second plate fins (12a, 12b) protrudes more upstream in the direction of air flow than the first and second corrugated fins (13a, 13b). at least one heat transfer tube extending in a first direction intersecting a direction of air flow, and having refrigerant flowing therethrough; a first plate fin extending in the first direction and spaced a first distance from the at least one heat transfer tube in a second direction perpendicular to the first direction; a second plate fin extending in the first direction and spaced a second distance from the first plate fin in the second direction; a first corrugated fin disposed between the at least one heat transfer tube and the first plate fin; and a second corrugated fin disposed between the first plate fin and the second plate fin, the first plate fin and the first corrugated fin being connected to each other by a plurality of first connections spaced a third distance from one another in the first direction, the first plate fin and the second corrugated fin being connected to each other by a plurality of second connections spaced a fourth distance from one another in the first direction, the third distance and the fourth distance being greater than the first distance and the second distance, the direction of air flow is a direction perpendicular to the first direction and the second direction, and a width of each of the first and second plate fins (12a, 12b) is greater than a width of each of the first and second corrugated fins (13a, 13b) in the direction of air flow, a portion of each of the first and second plate fins (12a, 12b) protrudes more upstream in the direction of air flow than the first and second corrugated fins (13a, 13b).
Feeding fence assembly comprising a displaceable elongate frame, a feeding fence arranged on the frame and having a number of passage openings for the head of an animal, wherein the feeding fence assembly further comprises support and guide means connected to the frame which support and guide the frame such that it can be displaced transversely of its longitudinal direction forward and back through a stroke length over a floor surface, a mat of flexible material which is connected with a first longitudinal edge to the frame over the length of the feeding fence and which is connected with an opposite, second longitudinal edge to the floor such that, when the frame is in fully advanced position, the mat extends rearward from the frame, wherein the mat in extended state has an underside facing toward the floor surface and an upper side facing away therefrom, and wherein at least in the fully moved back position the mat is folded with at least two loops (L1,L2) inside the frame, characterized in that at least in the fully moved back position the mat is folded back onto itself and that the frame further comprises a supporting wall arranged inside the frame and having an upper side facing away from the floor surface, wherein the upper side of the supporting wall is adapted to support the mat on the underside of the mat, in particular to support a loop of the mat.
A user equipment, UE, communication method performed by a UE, comprising: reporting group communication capability information of the UE to a cellular network access device; obtaining address information of the UE in a short range wireless communications network and a group identifier of the UE after joining a UE group, where the group identifier is an identifier of the UE group, wherein each UE in a UE group joins the same short range wireless communications network; reporting the group identifier of the UE to the cellular network access device and receiving cellular network identity information allocated by the cellular network access device; and after the receiving cellular network identity information allocated by the cellular network access device, establishing a connection to one or more other UEs in the UE group except the UE, and reporting a notification message to the cellular network access device, wherein the second notification message is a message indicating that the user equipment is used as a beacon device of the UE group. reporting group communication capability information of the UE to a cellular network access device; obtaining address information of the UE in a short range wireless communications network and a group identifier of the UE after joining a UE group, where the group identifier is an identifier of the UE group, wherein each UE in a UE group joins the same short range wireless communications network; reporting the group identifier of the UE to the cellular network access device and receiving cellular network identity information allocated by the cellular network access device; and after the receiving cellular network identity information allocated by the cellular network access device, establishing a connection to one or more other UEs in the UE group except the UE, and reporting a notification message to the cellular network access device, wherein the second notification message is a message indicating that the user equipment is used as a beacon device of the UE group.
An optical receiving device comprising: a plurality of input units (111 to 114) to which light is input; a plurality of amplifiers (131 to 134) that are arrayed and provided corresponding to the input units, respectively, each of the amplifiers amplifying and outputting light input from a corresponding input unit among of the input units; a light-receiving element adapted to convert light into an electrical signal; and an optical system adapted to input to the light-receiving element, light output from the amplifiers; wherein the optical receiving device is adapted to receive light output from a plurality of optical transmitting devices (211, 212, 221, 222, 231, 232, 241, 242) that transmit light and that are classified into a plurality of groups, the light being received via a plurality of optical couplers (251, 252, 253, 254) provided corresponding to the groups, respectively, each of the optical couplers being adapted to output light transmitted from an optical transmitting device included in a corresponding group among the groups, light output from the optical couplers is input into the input units, respectively, and the optical transmitting devices are classified into the groups according to optical loss caused on paths to the input units. a plurality of input units (111 to 114) to which light is input; a plurality of amplifiers (131 to 134) that are arrayed and provided corresponding to the input units, respectively, each of the amplifiers amplifying and outputting light input from a corresponding input unit among of the input units; a light-receiving element adapted to convert light into an electrical signal; and an optical system adapted to input to the light-receiving element, light output from the amplifiers; wherein the optical receiving device is adapted to receive light output from a plurality of optical transmitting devices (211, 212, 221, 222, 231, 232, 241, 242) that transmit light and that are classified into a plurality of groups, the light being received via a plurality of optical couplers (251, 252, 253, 254) provided corresponding to the groups, respectively, each of the optical couplers being adapted to output light transmitted from an optical transmitting device included in a corresponding group among the groups, light output from the optical couplers is input into the input units, respectively, and the optical transmitting devices are classified into the groups according to optical loss caused on paths to the input units.
Mobile concrete mixing plant, comprising at least a first operating portion, a second support portion that has an axis of longitudinal development and a third command portion, reciprocally connected in an articulated manner, characterized in that said first operating portion comprises at least a mixing unit for the production of concrete, and said third command portion comprises at least an electric command unit (21 a), wherein said first operating portion and said third command portion are both connected to said second support portion in a rotatable and permanent manner respectively around a first hinging axis orthogonal to said axis of longitudinal development and a second hinging axis, orthogonal both to said first hinging axis and to said axis of longitudinal development.
A rolling mill for rolling hollow or, in all cases, concave rod-shaped bodies, said rolling mill comprising a rolling section with a plurality of mill stands and/or rolling dies arranged in succession to define a rolling axis Y, said rolling mill further comprising moving means for moving a mandrel and a hollow blank fitted on an end portion of said mandrel along said rolling axis Y and through said mill stands or rolling dies in succession; characterized in that said moving means are structured so as to move said mandrel and said blank along a rolling direction parallel to said rolling axis Y and through said mill stands or rolling dies in succession by applying a traction on said mandrel.
In a non-trunked two-way radio communication system, a method for coordinating channel scanning among a plurality, N, of base stations that are communicatively coupled to each other via a link, the method comprising: regularly scanning, at each of the plurality of base stations, a plurality of channels specified in a first scan list, the plurality of channels including a first channel; receiving a signal at a first base station on the first channel; transmitting from the first base station over the link, in response to the signal, a first message to each of the other base stations including a second base station, wherein the first message indicates that the first channel is in use; and in response to receiving the message at the second base station, temporarily suspending scanning of the first channel at the second base station and continuing scanning of other ones of the plurality of channels in the first scan list. regularly scanning, at each of the plurality of base stations, a plurality of channels specified in a first scan list, the plurality of channels including a first channel; receiving a signal at a first base station on the first channel; transmitting from the first base station over the link, in response to the signal, a first message to each of the other base stations including a second base station, wherein the first message indicates that the first channel is in use; and in response to receiving the message at the second base station, temporarily suspending scanning of the first channel at the second base station and continuing scanning of other ones of the plurality of channels in the first scan list.
A method for securing communications with a remote client computing device (100, 302) by establishing a virtual private network, comprising: generating packet traffic with a communication application (112, 306) running on a client computing device (100, 302); identifying at said client computing device (100, 302) target packet traffic of said packet traffic that is addressed to a target server; forming a secure communications link (190, 380) between a pseudo server module (120, 317, 604) on said client computing device (100, 302) and said target server; directing additional packet traffic addressed to said target server to said pseudo server module (120, 317, 604); sending by said pseudo server module (120, 317, 604), an acknowledgment to said communication application (112, 306) upon receipt of said additional packet traffic rerouted to said pseudo server module (120, 317, 604); and routing a payload of said additional packet traffic to said target server. generating packet traffic with a communication application (112, 306) running on a client computing device (100, 302); identifying at said client computing device (100, 302) target packet traffic of said packet traffic that is addressed to a target server; forming a secure communications link (190, 380) between a pseudo server module (120, 317, 604) on said client computing device (100, 302) and said target server; directing additional packet traffic addressed to said target server to said pseudo server module (120, 317, 604); sending by said pseudo server module (120, 317, 604), an acknowledgment to said communication application (112, 306) upon receipt of said additional packet traffic rerouted to said pseudo server module (120, 317, 604); and routing a payload of said additional packet traffic to said target server.
Heat block for an electrically heated continuous-flow heater in bare wire technology for heating water, having a base body, in which a plurality of heating ducts (30a to 30d) for defining a heating path, a plurality of inflow ducts (34a to 34f) for defining an inflow path and a plurality of outflow ducts (36a to 36f) for defining an outflow path are embodied, which are opened at least on one side, and having at least one cover for closing the ducts (34a to 34f, 36a to 36f) on one side and a sealing element for arrangement in a parting plane between the base body and the cover, characterised in that the sealing element has deflector areas (70a, 70b, 70c, 72a, 72b, 72c) for connecting the ends of adjacent ducts (34a to 34f, 36a to 36f), wherein the deflector areas (70a, 70b, 70c, 72a, 72b, 72c) are assigned to the inflow ducts (34a to 34f) and outflow ducts (36a to 36f) and the cover has deflector sections (54, 60a, 60b) for connecting the heating ducts (30a to 30d).
An apparatus comprising: a graphene field effect transistor comprising: a source electrode and a drain electrode, wherein a graphene channel is provided between the source electrode and the drain electrode; quantum dots coupled to the graphene channel, wherein the quantum dots are configured to perform the function of a gate electrode, by controlling the flow of current through the graphene channel between the source and the drain electrodes; a ligand coupled to the quantum dots; wherein the graphene field effect transistor is configured to be illuminated by a pulse of electromagnetic radiation and configured to be exposed to a sample comprising one or more chemical analytes, wherein the one or more chemical analytes interacts with the quantum dots and/or the ligand, such that the electronic output provided by the graphene field effect transistor, in response to the pulse of electromagnetic radiation, is dependent upon at least one of the one or more chemical analytes within the sample. a source electrode and a drain electrode, wherein a graphene channel is provided between the source electrode and the drain electrode; quantum dots coupled to the graphene channel, wherein the quantum dots are configured to perform the function of a gate electrode, by controlling the flow of current through the graphene channel between the source and the drain electrodes; a ligand coupled to the quantum dots; wherein the graphene field effect transistor is configured to be illuminated by a pulse of electromagnetic radiation and configured to be exposed to a sample comprising one or more chemical analytes, wherein the one or more chemical analytes interacts with the quantum dots and/or the ligand, such that the electronic output provided by the graphene field effect transistor, in response to the pulse of electromagnetic radiation, is dependent upon at least one of the one or more chemical analytes within the sample.
A first anti-cancer agent (i), which is BVD-523 or a pharmaceutically acceptable salt thereof and a second anti-cancer agent (ii), for use in treating or ameliorating the effects of a cancer in a subject, wherein the second anti-cancer agent is (ii-1) a type 1 RAF inhibitor or a pharmaceutically acceptable salt thereof; or (ii-2) AZ628 (Axon Medchem BV) or a pharmaceutically acceptable salt thereof.
A method of forming a stringer, the method comprising: laying up a stringer preform comprising fiber-reinforced material; placing the stringer preform onto a skin panel preform; bonding an end cap to the stringer preform and the skin panel preform; and co-curing the stringer preform and the skin panel preform while the end cap is bonded to the stringer preform and the skin panel preform, resulting in a composite part that includes the end cap; wherein the method comprises overlapping a ramp of the end cap with the stringer preform. laying up a stringer preform comprising fiber-reinforced material; placing the stringer preform onto a skin panel preform; bonding an end cap to the stringer preform and the skin panel preform; and co-curing the stringer preform and the skin panel preform while the end cap is bonded to the stringer preform and the skin panel preform, resulting in a composite part that includes the end cap; wherein the method comprises overlapping a ramp of the end cap with the stringer preform.