mhurhangee/ep-ind-claims huggingface dataset:
A portable electronic device having a hybrid antenna, comprising: conductive structures in the portable electronic device that define an antenna slot for the hybrid antenna, wherein the conductive structures are electrically connected, and wherein the antenna slot has a longitudinal axis; an inverted-F antenna structure having a first conductive portion that extends from a first terminal to a second terminal and that bridges the slot and having a second conductive portion that is electrically connected to the first conductive portion and that at least partly runs parallel to the longitudinal axis of the antenna slot, wherein the second terminal is connected to the conductive structures adjacent to a first side of the slot; and a transmission line having a positive signal conductor and a ground signal conductor, wherein the positive signal conductor is electrically connected to the first terminal and wherein the ground signal conductor is electrically connected to the conductive structures adjacent to a second side of the slot, characterized in that the transmission line is a flex circuit transmission line; and the conductive structures comprise a conductive bezel that defines a portion of the antenna slot and a switch mounting bracket that is electrically connected to the conductive bezel, wherein the second terminal is connected to the conductive bezel, and wherein the ground signal conductor is electrically connected to the conductive bezel by the switch mounting bracket. conductive structures in the portable electronic device that define an antenna slot for the hybrid antenna, wherein the conductive structures are electrically connected, and wherein the antenna slot has a longitudinal axis; an inverted-F antenna structure having a first conductive portion that extends from a first terminal to a second terminal and that bridges the slot and having a second conductive portion that is electrically connected to the first conductive portion and that at least partly runs parallel to the longitudinal axis of the antenna slot, wherein the second terminal is connected to the conductive structures adjacent to a first side of the slot; and a transmission line having a positive signal conductor and a ground signal conductor, wherein the positive signal conductor is electrically connected to the first terminal and wherein the ground signal conductor is electrically connected to the conductive structures adjacent to a second side of the slot, characterized in that the transmission line is a flex circuit transmission line; and the conductive structures comprise a conductive bezel that defines a portion of the antenna slot and a switch mounting bracket that is electrically connected to the conductive bezel, wherein the second terminal is connected to the conductive bezel, and wherein the ground signal conductor is electrically connected to the conductive bezel by the switch mounting bracket.
A lancet device comprising: a housing including an opening at a forward end thereof; a lancet structure comprising a puncturing end, the lancet structure adapted for movement within the housing between a retracted position with the puncturing end within the housing and a puncturing position with the puncturing end extending through a forward end of the housing; a bow spring configured to maintain the lancet structure in the retracted position in a first state; and characterised in that the device further comprises: a trigger adapted for lateral movement into the housing with regard to the axis of movement of the lancet to the puncturing position, wherein lateral movement of the trigger into the housing biases the bow spring from the first state to a second state, thereby extending the lancet structure to the puncturing position. a housing including an opening at a forward end thereof; a lancet structure comprising a puncturing end, the lancet structure adapted for movement within the housing between a retracted position with the puncturing end within the housing and a puncturing position with the puncturing end extending through a forward end of the housing; a bow spring configured to maintain the lancet structure in the retracted position in a first state; and characterised in that the device further comprises: a trigger adapted for lateral movement into the housing with regard to the axis of movement of the lancet to the puncturing position, wherein lateral movement of the trigger into the housing biases the bow spring from the first state to a second state, thereby extending the lancet structure to the puncturing position.
A protection equipment comprising: - a base member (2;102) with a deformable membrane which comprises a central orifice with an adaptive size, configured to selectively circumvent in a substantially airtight manner the neck of the user, - a hood coupled in a substantially airtight manner to the base member, whereby a substantially closed volume is provided, the closed volume being delimited by the deformable membrane, the base member, the neck and the hood, - an aperture control device to change the central orifice of the deformable membrane from a large aperture state to a small aperture state in which the deformable membrane circumvents in a substantially airtight manner the neck of the user, Wherein the aperture control device comprises a stationary ring a movable ring and at least three extensible cords, wherein the deformable membrane is formed as a sleeve, wherein a first border and a second border of the deformable membrane being attached to the stationary ring wherein, for each cord, a first end is attached to the stationary ring and a second end is attached to the movable ring. - a base member (2;102) with a deformable membrane which comprises a central orifice with an adaptive size, configured to selectively circumvent in a substantially airtight manner the neck of the user, - a hood coupled in a substantially airtight manner to the base member, whereby a substantially closed volume is provided, the closed volume being delimited by the deformable membrane, the base member, the neck and the hood, - an aperture control device to change the central orifice of the deformable membrane from a large aperture state to a small aperture state in which the deformable membrane circumvents in a substantially airtight manner the neck of the user,
A single coolant loop for cooling at least a first system and a fuel cell system having different operating temperatures, comprising: (a) a coolant pump for moving a coolant fluid through the single coolant loop; (b) a distributor for routing the coolant fluid through a first path or a second path; (c) the first path comprising a heat exchanger and the first system; and (d) the second path comprising a by-pass of the first system; wherein the first and second paths (A, B) converge at a coolant mixer that combines the coolant fluid from the first and second paths; characterised in that the coolant fluid is routed: I). from the fuel cell system to one of: (i) a heat storage unit, (ii) the distributor, or (iii) a pre-heat loop that routes the coolant fluid before it reaches the distributor back to the fuel cell system for start-up warmth; and from the distributor: II). along the second path, wherein the coolant fluid is routed directly from the distributor to the coolant mixer, or III). along the first path, wherein the coolant fluid is routed directly from the distributor to the heat exchanger, directly from the heat exchanger to the first system, from the first system to the coolant mixer, and from the coolant mixer to the fuel cell system. (a) a coolant pump for moving a coolant fluid through the single coolant loop; (b) a distributor for routing the coolant fluid through a first path or a second path; (c) the first path comprising a heat exchanger and the first system; and (d) the second path comprising a by-pass of the first system; I). from the fuel cell system to one of: (i) a heat storage unit, (ii) the distributor, or (iii) a pre-heat loop that routes the coolant fluid before it reaches the distributor back to the fuel cell system for start-up warmth; and from the distributor: (i) a heat storage unit, (ii) the distributor, or (iii) a pre-heat loop that routes the coolant fluid before it reaches the distributor back to the fuel cell system for start-up warmth; II). along the second path, wherein the coolant fluid is routed directly from the distributor to the coolant mixer, or III). along the first path, wherein the coolant fluid is routed directly from the distributor to the heat exchanger, directly from the heat exchanger to the first system, from the first system to the coolant mixer, and from the coolant mixer to the fuel cell system.
A coated thermoelectric material comprising a thermoelectric layer (40,50) comprising a thermoelectric material selected from a filled and/or doped CoSb 3 based skutterudite; a metal coating of one or more layers, wherein the metal coating forms a surface in contact with said thermoelectric layer and as well as an opposing surface; characterised by a metal oxide coating of one or more layers, comprising metal oxides, wherein said metal oxide coating forms a surface in contact with said opposing surface.
A print head substrate comprising: a substrate surface having a shape with an acute angle portion and including a plurality of printing elements and a plurality of pads, said pads being disposed along a first side of the shape and electrically connected to the printing elements, wherein the acute angle portion is formed by the first side of the shape and a second side of the shape; and a test element group, TEG, area including a TEG not electrically connected to the printing elements, wherein at least a part of the TEG area is located between the second side of the shape and a pad among the pads, which is closest to a vertex of the acute angle portion. a substrate surface having a shape with an acute angle portion and including a plurality of printing elements and a plurality of pads, said pads being disposed along a first side of the shape and electrically connected to the printing elements, wherein the acute angle portion is formed by the first side of the shape and a second side of the shape; and a test element group, TEG, area including a TEG not electrically connected to the printing elements, wherein at least a part of the TEG area is located between the second side of the shape and a pad among the pads, which is closest to a vertex of the acute angle portion.
A method of imparting a lightening appearance of skin comprising topically applying a composition comprising 0.1 to 30% by weight of a fibrous pigment having an average diameter of between 0.21 and 0.50 micron and an average aspect ratio between 5 and 100 to provide a cosmetic film on said skin, wherein the cosmetic film on the skin is characterized by substantially Lambertian reflection, wherein the substantially Lambertian reflection refers to the minimal difference in L* across a range of -20° to 130° from specular and the incident light is at an angle of less than 60°.
A communication device for handling a packet data network, PDN, connection and a network slice, comprising: at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: establishing a PDN connection with an evolved packet core, EPC, network; transmitting (304; 402) a Registration Request message of a Registration procedure to a fifth-generation core, 5GC,network; receiving (306; 408), from the 5GCnetwork,a Registration Accept message comprising a slice identifier; simultaneously connecting to the EPC and the 5GC networks (102, 104); and receiving packets from the EPC network at a first carrier frequency and the 5GCnetwork at a second carrier frequency, or transmitting packets to the EPC network at the first carrier frequency and the 5GCnetwork at the second carrier frequency. at least one storage device; and at least one processing circuit, coupled to the at least one storage device, wherein the at least one storage device stores, and the at least one processing circuit is configured to execute instructions of: establishing a PDN connection with an evolved packet core, EPC, network; transmitting (304; 402) a Registration Request message of a Registration procedure to a fifth-generation core, 5GC,network; receiving (306; 408), from the 5GCnetwork,a Registration Accept message comprising a slice identifier; simultaneously connecting to the EPC and the 5GC networks (102, 104); and receiving packets from the EPC network at a first carrier frequency and the 5GCnetwork at a second carrier frequency, or transmitting packets to the EPC network at the first carrier frequency and the 5GCnetwork at the second carrier frequency. establishing a PDN connection with an evolved packet core, EPC, network; transmitting (304; 402) a Registration Request message of a Registration procedure to a fifth-generation core, 5GC,network; receiving (306; 408), from the 5GCnetwork,a Registration Accept message comprising a slice identifier; simultaneously connecting to the EPC and the 5GC networks (102, 104); and receiving packets from the EPC network at a first carrier frequency and the 5GCnetwork at a second carrier frequency, or transmitting packets to the EPC network at the first carrier frequency and the 5GCnetwork at the second carrier frequency.
An electronic device comprising: a housing comprising a conductive portion and a first non-conductive portion connected to the conductive portion; an antenna structure located inside the housing, the antenna structure comprising a printed circuit board comprising a first surface and a second surface facing away from the first surface, and at least one antenna element (811, 812, 813, 814) located on the first surface or inside the printed circuit board to be closer to the first surface than the second surface, wherein a radio communication circuit disposed on the second surface is electrically connected to the at least one antenna element (811, 812, 813, 814) and is configured to transmit and/or receive a signal in a selected or predetermined frequency band; and a pen input device detachable from the housing, wherein the pen input device comprises a second non-conductive portion at least partially overlapping the first non-conductive portion when viewed in a direction in which a main beam of the antenna structure is radiated while the pen input device is attached to the housing, and wherein at least a portion of the at least one antenna element (811, 812, 813, 814) overlaps the first non-conductive portion and the second non-conductive portion. a housing comprising a conductive portion and a first non-conductive portion connected to the conductive portion; an antenna structure located inside the housing, the antenna structure comprising a printed circuit board comprising a first surface and a second surface facing away from the first surface, and at least one antenna element (811, 812, 813, 814) located on the first surface or inside the printed circuit board to be closer to the first surface than the second surface, wherein a radio communication circuit disposed on the second surface is electrically connected to the at least one antenna element (811, 812, 813, 814) and is configured to transmit and/or receive a signal in a selected or predetermined frequency band; and a printed circuit board comprising a first surface and a second surface facing away from the first surface, and at least one antenna element (811, 812, 813, 814) located on the first surface or inside the printed circuit board to be closer to the first surface than the second surface, wherein a radio communication circuit disposed on the second surface is electrically connected to the at least one antenna element (811, 812, 813, 814) and is configured to transmit and/or receive a signal in a selected or predetermined frequency band; and a pen input device detachable from the housing, wherein the pen input device comprises a second non-conductive portion at least partially overlapping the first non-conductive portion when viewed in a direction in which a main beam of the antenna structure is radiated while the pen input device is attached to the housing, and wherein at least a portion of the at least one antenna element (811, 812, 813, 814) overlaps the first non-conductive portion and the second non-conductive portion.
A delivery device for delivering a stented prosthetic heart valve including a valve structure carried by a stent frame configured to self-expand from a collapsed condition to a normal, expanded condition, the delivery device comprising: an inner shaft forming a lumen; a spindle associated with the inner shaft; and a covering feature associated with the spindle for selectively covering at least a portion of a stented prosthetic heart valve in a delivery state; wherein the covering feature includes a tip (72,120) mounted to the spindle, wherein the tip defines a tip region, a transition region and an overhang region, and further wherein the overhang region is configured to cover a distal portion of the stented prosthetic heart valve in the delivery state, wherein the overhang region extends proximally from the transition region in a normal arrangement of the tip, and wherein the tip is configured to be transitionable from the normal arrangement to an inverted arrangement in which the overhang region extends distally over the transition region.
A method for managing electric power consumption of a client device, the method comprising the steps of: • receiving, at the client device, a request to start an operating program operating in accordance with an energy consumption plan comprising information on power consumption at different times of operation of a programmed client device run; • exchanging data with a server, regarding the operation request as well as the selected energy consumption plan of the client device; • receiving (704, 705), at the client device, a modified energy consumption plan from the server wherein said modified energy consumption plan has been set, by the server, by taking into account an energy consumption plan of at least one other client device as well as a maximum power consumption limit whereas said modified energy consumption plan provides the same overall result as said energy consumption plan; and • executing said modified energy consumption plan at the client device, the method being characterized in that: • the energy consumption plan comprises suboperations, each of which has its properties defining whether it is allowed to modify its run time and/or its delay with respect to other suboperations; • wherein data regarding details of the suboperations of the energy consumption plan is downloaded by the server on demand; and • wherein the modified energy consumption plan is generated taking into account the downloaded data. • receiving, at the client device, a request to start an operating program operating in accordance with an energy consumption plan comprising information on power consumption at different times of operation of a programmed client device run; • exchanging data with a server, regarding the operation request as well as the selected energy consumption plan of the client device; • receiving (704, 705), at the client device, a modified energy consumption plan from the server wherein said modified energy consumption plan has been set, by the server, by taking into account an energy consumption plan of at least one other client device as well as a maximum power consumption limit whereas said modified energy consumption plan provides the same overall result as said energy consumption plan; and • executing said modified energy consumption plan at the client device, • the energy consumption plan comprises suboperations, each of which has its properties defining whether it is allowed to modify its run time and/or its delay with respect to other suboperations; • wherein data regarding details of the suboperations of the energy consumption plan is downloaded by the server on demand; and • wherein the modified energy consumption plan is generated taking into account the downloaded data.
Steam generator, in which an evaporative once-through heating surface is arranged in a hot gas passage which is exposable to through-flow in an approximately horizontal hot gas direction (x), which evaporative once-through heating surface comprises a number of steam generator tubes which are connected parallel to the through-flow of a flow medium, with a number of outlet headers which are connected downstream on the flow medium side to some steam generator tubes in each case, characterized in that the outlet header, or each outlet header, comprises an integrated water separator element in each case, by means of which the respective outlet header is connected on the steam side to a number of downstream-connected superheater tubes of a superheater heating surface.
Probe for measuring an electrical field, comprising: - at least one antenna, - a detection circuit for each antenna, which detection circuit is connected to the corresponding antenna for detecting an RF signal, a processing circuit (62, 63, 81-85) for processing a detected signal, and - a housing (2, 3) in which is received the processing circuit (62, 63, 81-85), wherein the housing is conductive and has at least partially a substantially spherical surface for the purpose of forming a ground plane for the at least one antenna, characterized in that the detection circuit is arranged outside the housing and is coupled to the processing circuit via a feedthrough capacitor with a feedthrough terminal and a shield, wherein the feedthrough terminal connects the detection circuit conductively to the processing circuit and the shield is connected conductively to the conductive surface of the housing; wherein each antenna of the at least one antenna is a monopole antenna. - at least one antenna, - a detection circuit for each antenna, which detection circuit is connected to the corresponding antenna for detecting an RF signal, - a housing (2, 3) in which is received the processing circuit (62, 63, 81-85),
Thin film capacitor comprising at least two electrodes (5,7) separated by a dielectric formed by superposition of at least two thin layers (6a, 6b) respectively presenting quadratic coefficients of capacitance in function to the tension of opposite signs, capacitor characterized in that the two thin layers (6a, 6b) are made of a same metal oxide, respectively in crystalline form and in amorphous form, the respective thicknesses d a and d c of the amorphous and crystalline thin layers complying with the following general formulas: d a = ε 0 ε a C s 0 1 1 − ε c ε a 2 γ a γ c and d c = ε 0 ε c C s 0 1 1 − ε a ε c 2 γ c γ a where: ε 0 corresponds to vacuum permittivity, ε c and ε a respectively correspond to the relative permittivity of the metal oxide in crystalline form and the relative permittivity of the metal oxide in amorphous form, C s0 corresponds to the total surface capacitance at zero field, γ c and γ a correspond to the quadratic coefficients of capacitance in function to the electric field of the metal oxide respectively in crystalline form and in amorphous form. ε 0 corresponds to vacuum permittivity, ε c and ε a respectively correspond to the relative permittivity of the metal oxide in crystalline form and the relative permittivity of the metal oxide in amorphous form, C s0 corresponds to the total surface capacitance at zero field, γ c and γ a correspond to the quadratic coefficients of capacitance in function to the electric field of the metal oxide respectively in crystalline form and in amorphous form.