mhurhangee/ep-ind-claims huggingface dataset:
A system for managing cardiopulmonary resuscitation, CPR, treatment to a person in need of emergency assistance, the system comprising: a sensor interface configured to receive input from one or more sensors (212, 228, 246, 250) adapted to measure information indicative of CPR being provided to the person in need of emergency assistance; a processor (910, 246, 248) operatively coupled with the sensor interface and configured to receive the input from the one or more sensors (212, 228, 246, 250); and an output interface in communication with the processor and configured to generate haptic feedback for a rescuer (104, 106); characterized by a chest compression assembly (210, 226, 232, 240) configured to be placed on a chest of the person in need of emergency assistance, wherein the chest compression assembly comprising a housing upon which a rescuer places his/her hands to perform chest compressions on the person in need of emergency assistance, and in that said sensors (212, 228, 246, 250) are positioned within the chest compression assembly (210, 226, 232, 240), said processor (246, 248, 910) is further configured to generate an indication of quality of the CPR being provided to the person in need of emergency assistance, and said haptic feedback being based on the indication of the quality of the CPR and provided to the rescuer (104, 106) via the housing. a sensor interface configured to receive input from one or more sensors (212, 228, 246, 250) adapted to measure information indicative of CPR being provided to the person in need of emergency assistance; a processor (910, 246, 248) operatively coupled with the sensor interface and configured to receive the input from the one or more sensors (212, 228, 246, 250); and an output interface in communication with the processor and configured to generate haptic feedback for a rescuer (104, 106); characterized by a chest compression assembly (210, 226, 232, 240) configured to be placed on a chest of the person in need of emergency assistance, wherein the chest compression assembly comprising a housing upon which a rescuer places his/her hands to perform chest compressions on the person in need of emergency assistance, and in that said sensors (212, 228, 246, 250) are positioned within the chest compression assembly (210, 226, 232, 240), said processor (246, 248, 910) is further configured to generate an indication of quality of the CPR being provided to the person in need of emergency assistance, and said haptic feedback being based on the indication of the quality of the CPR and provided to the rescuer (104, 106) via the housing.
A silicon melt contact member having a porous sintered body layer present on a surface thereof, wherein the porous sintered body layer comprises a sintered body obtainable by: molding a mixture to form a molded product, which mixture contains organic particles comprising heat-decomposable resin particles and having an average particle diameter of 1 to 25 μm, and a sinterable powder consisting essentially of silicon nitride; firing the molded product until the organic particles disappear; and further sintering the sinterable powder; wherein the porous sintered body layer has, formed therein, pores derived from shapes of the organic particles, the pores having an average equivalent circle diameter of 1 to 25 μm and being dispersedly present in a surface of the porous sintered body layer at a pore-occupying area ratio of 30 to 80%; wherein the porous sintered body layer is formed on a substrate. molding a mixture to form a molded product, which mixture contains organic particles comprising heat-decomposable resin particles and having an average particle diameter of 1 to 25 μm, and a sinterable powder consisting essentially of silicon nitride; firing the molded product until the organic particles disappear; and further sintering the sinterable powder; wherein the porous sintered body layer has, formed therein, pores derived from shapes of the organic particles, the pores having an average equivalent circle diameter of 1 to 25 μm and being dispersedly present in a surface of the porous sintered body layer at a pore-occupying area ratio of 30 to 80%; wherein the porous sintered body layer is formed on a substrate.
A gas turbine engine for generating drive from combustion of fuel, comprising a compressor, a cooling source, and a thermoelectric intercooler, the thermoelectric intercooler including a compressed air passageway fluidly coupled to the compressor to pass compressed air of the compressor therethrough, a coolant passageway fluidly coupled to the cooling source to pass coolant of the cooling source therethrough, and a thermoelectric section configured in thermal communication with each of the compressed air passageway and the coolant passageway.
Tool with a main body made of hard metal, cermet, ceramic, steel or high-speed steel, and a multi-layer wear protection coating which is applied on the main body by the PVD process, characterised in that the wear protection coating comprises at least one layer of Ti a Al (1-a) N with 0.33 ≤ a ≤ 1 and with a layer thickness of from 20 nm to 3 μm and at least one layer of a sequence of at least 4 alternating superposed sublayers of Ti b Si (1-b) N and Al c Cr (1-c) N with 0.70 ≤ b ≤ 0.98 and 0.3 ≤ c ≤ 0.75 and with a layer thickness of the sublayers of from 0.5 nm to 15 nm and optionally in addition at least one layer of Ti d Si (1-d) N with 0.70 ≤ d ≤ 0.98 and with a layer thickness of from 50 nm to 1 μm, wherein the wear protection coating can exhibit further layers of hard material and wherein the layers, and can contain up to 10 at. % of further metals, B, C and/or O per layer depending on the process. of Ti a Al (1-a) N with 0.33 ≤ a ≤ 1 and with a layer thickness of from 20 nm to 3 μm and at least one layer of a sequence of at least 4 alternating superposed sublayers of Ti b Si (1-b) N and Al c Cr (1-c) N with 0.70 ≤ b ≤ 0.98 and 0.3 ≤ c ≤ 0.75 and with a layer thickness of the sublayers of from 0.5 nm to 15 nm and optionally in addition at least one layer of Ti d Si (1-d) N with 0.70 ≤ d ≤ 0.98 and with a layer thickness of from 50 nm to 1 μm,
Fastening arrangement for fastening a bathroom accessory to a wall, wherein the fastening arrangement has a wall bearing and a hollow body, in particular a hollow cylinder, which can be firmly clamped by means of the wall bearing, is in particular axially closed on one side, has a geometric centre axis, and, in the mounted state, radially surrounds the wall bearing, characterized in that the hollow body has a hollow body wall, which encircles the geometric centre axis, is radially machined by turning on the inside and outside, and has an internal recess into which, in the mounted state, at least one peripheral portion of the wall bearing radially penetrates.
A foundation for a wind turbine, the foundation comprising a concrete section and an embedment section, the embedment section comprising an embedded portion being embedded in the concrete section and an upright portion projecting upwardly from an upper surface of the concrete section and forming an interface for attaching a tower to the foundation, characterised in that the foundation further comprises a cover arranged across an intersection between the upper suffice of the concrete section and an outer surface of the upright portion, wherein cover composes a blank of a sheet material formed with a hole having a shape matching a cross-sectional shape of the embedment section.
A liquid tank, having: a first liquid tank shell with a first connecting element that extends from an inner wall of the first liquid tank shell into the interior of the liquid tank; and a second liquid tank shell with a second connecting element that extends from an inner wall of the second liquid tank shell into the interior of the liquid tank; wherein the first connecting element and the second connecting element are connectable to one another in the interior of the liquid tank by welding, wherein the first connecting element and/or the second connecting element include a contact surface (113, 115) for fastening the connecting element (103, 109) to the connecting element (103, 109) of the mating tank shell (101, 107), and wherein the contact surface (113, 115) includes a depression for accommodating a weld expulsion of material that is displaced during a melting or pressing operation. a first liquid tank shell with a first connecting element that extends from an inner wall of the first liquid tank shell into the interior of the liquid tank; and a second liquid tank shell with a second connecting element that extends from an inner wall of the second liquid tank shell into the interior of the liquid tank; wherein the first connecting element and the second connecting element are connectable to one another in the interior of the liquid tank by welding, wherein the first connecting element and/or the second connecting element include a contact surface (113, 115) for fastening the connecting element (103, 109) to the connecting element (103, 109) of the mating tank shell (101, 107), and wherein the contact surface (113, 115) includes a depression for accommodating a weld expulsion of material that is displaced during a melting or pressing operation.
An information exchange apparatus, comprising: a first sending unit configured to send a request message to a secondary base station, the request message containing an uplink address of a master base station for receiving uplink data of service(s) of a user equipment in the secondary base station; and a first receiving unit configured to receive a response message fed back by the secondary base station according to the request message, the response message containing a downlink address of the secondary base station for receiving downlink data of the service(s); wherein the uplink address contained in the request message is further configured to indicate to the secondary base station not to acquire a corresponding address from a serving gateway via a Mobility Management Entity, MME, when the request message is received. a first sending unit configured to send a request message to a secondary base station, the request message containing an uplink address of a master base station for receiving uplink data of service(s) of a user equipment in the secondary base station; and a first receiving unit configured to receive a response message fed back by the secondary base station according to the request message, the response message containing a downlink address of the secondary base station for receiving downlink data of the service(s); wherein the uplink address contained in the request message is further configured to indicate to the secondary base station not to acquire a corresponding address from a serving gateway via a Mobility Management Entity, MME, when the request message is received.
An open-type circular knitting machine for the open and width-variable web production with a knitted fabric take-down and/or collecting assembly, comprising: a base;a knitting head mounted onto the base and comprising: at least a needle-holding element having at least a plurality of needles (6, 7) arranged around a central axis (X-X); a first active needle (6a, 7a) and a last active needle (6b, 7b, 6b', 7b') of said plurality delimiting between them a dead zone of the needle-holding element without needles and/or without active needles, and an operating zone shaped as an arc of circle and provided with active needles; control means operatively connected at least to the active needles so as to selectively actuate said active needles in order to produce an open knitted fabric; wherein during fabric formation, the machine rotates continuously and suitable devices allow at every revolution to begin thread feeding on the first active needle and to interrupt feeding on the last active needle; a take-down and/or collecting assembly for the knitted fabric under production, arranged downstream from the knitting head with respect to a production direction of said knitted fabric under production, wherein said take-down and/or collecting assembly is integral with the needle-holding element during the production of the knitted fabric; characterized in that it comprises adjusting devices for moving the take-down and/or collecting assembly for adjusting, between one manufacturing cycle and the following one, when the machine is idle, the angular position of the take-down and/or collecting assembly with respect to the dead zone of the needle-holding element around the central axis (X-X). at least a needle-holding element having at least a plurality of needles (6, 7) arranged around a central axis (X-X); a first active needle (6a, 7a) and a last active needle (6b, 7b, 6b', 7b') of said plurality delimiting between them a dead zone of the needle-holding element without needles and/or without active needles, and an operating zone shaped as an arc of circle and provided with active needles; control means operatively connected at least to the active needles so as to selectively actuate said active needles in order to produce an open knitted fabric; wherein during fabric formation, the machine rotates continuously and suitable devices allow at every revolution to begin thread feeding on the first active needle and to interrupt feeding on the last active needle; a take-down and/or collecting assembly for the knitted fabric under production, arranged downstream from the knitting head with respect to a production direction of said knitted fabric under production, wherein said take-down and/or collecting assembly is integral with the needle-holding element during the production of the knitted fabric; characterized in that it comprises adjusting devices for moving the take-down and/or collecting assembly for adjusting, between one manufacturing cycle and the following one, when the machine is idle, the angular position of the take-down and/or collecting assembly with respect to the dead zone of the needle-holding element around the central axis (X-X).
A rotor assembly (60, 360, 460, 460', 560) for a gas turbine engine comprising: an airfoil (66, 166, 266, 366, 466, 566) including an airfoil section (66A, 166A, 266A, 466A, 566A) extending from a root section (66B, 266B, 466B, 566B), wherein the airfoil section (66A... 566A) extends between a leading edge and a trailing edge in a chordwise direction and extends between a tip portion (66C, 266C) and the root section (66B, 266B, 466B, 566B) in a radial direction, and the airfoil section (66A... 566A) defines a pressure side and a suction side separated in a thickness direction; and at least one retention pin (68, 168, 368, 468) that extends through the root section (66B, 266B, 466B, 566B) to mechanically attach the root section (66B, 266B, 466B, 566B) to an array of annular flanges (62B, 362B, 462B, 462B') of a rotatable hub (62, 362, 462, 462'), characterised in that the at least one retention pin (68...468) defines an internal lubrication circuit including branched paths having outlets aligned with the flanges (62B, 362B, 462B, 462B'). an airfoil (66, 166, 266, 366, 466, 566) including an airfoil section (66A, 166A, 266A, 466A, 566A) extending from a root section (66B, 266B, 466B, 566B), wherein the airfoil section (66A... 566A) extends between a leading edge and a trailing edge in a chordwise direction and extends between a tip portion (66C, 266C) and the root section (66B, 266B, 466B, 566B) in a radial direction, and the airfoil section (66A... 566A) defines a pressure side and a suction side separated in a thickness direction; and at least one retention pin (68, 168, 368, 468) that extends through the root section (66B, 266B, 466B, 566B) to mechanically attach the root section (66B, 266B, 466B, 566B) to an array of annular flanges (62B, 362B, 462B, 462B') of a rotatable hub (62, 362, 462, 462'), characterised in that the at least one retention pin (68...468) defines an internal lubrication circuit including branched paths having outlets aligned with the flanges (62B, 362B, 462B, 462B').
A tire pressure sensor 1.1 having a pressure transducer, a transmitter, and a housing supporting the pressure transducer and the transmitter, which is configured to be fastened on an air inlet end of a tire valve; wherein 1.2 the housing has a sleeve part, which has an end-side internal thread for screwing the sleeve part onto the tire valve; characterized in that the housing furthermore comprises a receptacle part, in which or on which the pressure transducer and the transmitter are arranged and which, in the installed state, is attached to the sleeve part so it is pivotable in relation to the sleeve part. 1.1 having a pressure transducer, a transmitter, and a housing supporting the pressure transducer and the transmitter, which is configured to be fastened on an air inlet end of a tire valve; wherein 1.2 the housing has a sleeve part, which has an end-side internal thread for screwing the sleeve part onto the tire valve; characterized in that the housing furthermore comprises a receptacle part, in which or on which the pressure transducer and the transmitter are arranged and which, in the installed state, is attached to the sleeve part so it is pivotable in relation to the sleeve part.
A method of controlling a scheduling scheme, the method performed by a base station, BS, and comprising: transmitting first scheduling information including a first resource assignment and a first new data indicator, NDI, on a physical downlink control channel, PDCCH, to a user equipment, UE, to activate a semi-persistent scheduling, SPS, for a downlink data packet to be delivered to the UE with the first resource assignment, the first scheduling information being masked with a persistent Cell Radio Network Temporary Identifier, C-RNTI, associated with the SPS, the first NDI indicating a first value; and transmitting second scheduling information including a second resource assignment on the PDCCH from the BS, the second scheduling information being masked with the persistent C-RNTI associated with the SPS, wherein if the second scheduling information includes a second NDI indicating a second value, the second value being different from the first value, the second scheduling information is used for a retransmission downlink data packet with the second resource assignment. transmitting first scheduling information including a first resource assignment and a first new data indicator, NDI, on a physical downlink control channel, PDCCH, to a user equipment, UE, to activate a semi-persistent scheduling, SPS, for a downlink data packet to be delivered to the UE with the first resource assignment, the first scheduling information being masked with a persistent Cell Radio Network Temporary Identifier, C-RNTI, associated with the SPS, the first NDI indicating a first value; and transmitting second scheduling information including a second resource assignment on the PDCCH from the BS, the second scheduling information being masked with the persistent C-RNTI associated with the SPS, wherein if the second scheduling information includes a second NDI indicating a second value, the second value being different from the first value, the second scheduling information is used for a retransmission downlink data packet with the second resource assignment.
Watch strap clasp, comprising: - a frame provided with a base and at least a first pair of shafts extending parallel to one another from the base in the same plane; and - a first cover which is connected to the frame by means of a first blade articulated to the frame at a first one of its ends, and arranged to be placed between the shafts when the clasp is in the locked position, the said first blade also being articulated at a second end on the first cover, the said cover also comprising locking means, arranged to cooperate with a coupling structure which is integral with the frame, and is controlled by push buttons in order to move between a coupling position, in which the coupling structure can cooperate with the locking means in order to lock the clasp, and a free position, in which the coupling structure leaves the locking means free; - a first slide, a first end of which is fitted so as to slide in the first cover along the longitudinal axis of the clasp, and a second end of which is arranged to be connected to a strap, the said slide comprising a first pair of runners, between which the first blade can be placed when the clasp is in the locked position, the said runners then being disposed facing the shafts, characterized in that it comprises a structure for adjustment of the position of the first slide relative to the cover along the longitudinal axis, the said adjustment structure being formed by a serration which is arranged on the said runners, and by a stop element which is integral with the shafts, the serration and the stop element being arranged to cooperate with one another and to block the translation of the first slide when the clasp is in the locked position. - a frame provided with a base and at least a first pair of shafts extending parallel to one another from the base in the same plane; and - a first cover which is connected to the frame by means of a first blade articulated to the frame at a first one of its ends, and arranged to be placed between the shafts when the clasp is in the locked position, the said first blade also being articulated at a second end on the first cover, the said cover also comprising locking means, arranged to cooperate with a coupling structure which is integral with the frame, and is controlled by push buttons in order to move between a coupling position, in which the coupling structure can cooperate with the locking means in order to lock the clasp, and a free position, in which the coupling structure leaves the locking means free; - a first slide, a first end of which is fitted so as to slide in the first cover along the longitudinal axis of the clasp, and a second end of which is arranged to be connected to a strap, the said slide comprising a first pair of runners, between which the first blade can be placed when the clasp is in the locked position, the said runners then being disposed facing the shafts,
A method performed by a user equipment, UE, the method comprising: sending (201; 305), in a target cell, an In-Device Coexistence, IDC, indication message with a same content as in a previously sent IDC indication message if the UE has performed a handover from a source cell to the target cell and if the UE has sent the IDC indication message to the source cell a maximum number of seconds before the UE has received a handover command. sending (201; 305), in a target cell, an In-Device Coexistence, IDC, indication message with a same content as in a previously sent IDC indication message if the UE has performed a handover from a source cell to the target cell and if the UE has sent the IDC indication message to the source cell a maximum number of seconds before the UE has received a handover command.