mhurhangee/ep-ind-claims huggingface dataset:
A fastener with: a screw head having a top surface, and an inner surrounding surface that is connected to said top surface, said inner surrounding surface defining a recess that is recessed from said top surface, said inner surrounding surface having six curved portions and six driven portions that are disposed about a central axis of said fastener in an alternating arrangement, each of said driven portions having two opposite ends that are respectively connected to two of said curved portions adjacent to said driven portion, each of said driven portions having a curved section that is connected to one of said two adjacent curved portions and that has a direction of curvature opposite to that of said one of said two adjacent curved portions, a screw shank extending downwardly from said screw head, an outer surrounding surface of said screw shank being formed with a thread that helically extends along said screw shank, characterized by a straight section that extends along a tangent line of an end of said curved section distal from the one of said two adjacent curved portions, and an extension section that is connected between said straight section and the other one of said two adjacent curved portions. a screw head having a top surface, and an inner surrounding surface that is connected to said top surface, said inner surrounding surface defining a recess that is recessed from said top surface, said inner surrounding surface having six curved portions and six driven portions that are disposed about a central axis of said fastener in an alternating arrangement, each of said driven portions having two opposite ends that are respectively connected to two of said curved portions adjacent to said driven portion, each of said driven portions having a curved section that is connected to one of said two adjacent curved portions and that has a direction of curvature opposite to that of said one of said two adjacent curved portions, a screw shank extending downwardly from said screw head, an outer surrounding surface of said screw shank being formed with a thread that helically extends along said screw shank, characterized by a straight section that extends along a tangent line of an end of said curved section distal from the one of said two adjacent curved portions, and an extension section that is connected between said straight section and the other one of said two adjacent curved portions.
Multi-strand cord having a 1xN structure comprising a single layer of N strands wound in a helix about a main axis, each strand having one layer of metal filaments and comprising M>1 metal filaments wound in a helix about an axis, in which: - the cord has a total elongation At > 8.10% determined by the standard ASTM D2969-04 of 2014; and characterized in that - the energy-at-break indicator Er of the cord, defined by Er = ∫ 0 At σ Ai × dAi where σ ( Ai) is the tensile stress in MPa measured at the elongation Ai and dAi is the elongation such that Er is strictly greater than 52 MJ/m 3. - the cord has a total elongation At > 8.10% determined by the standard ASTM D2969-04 of 2014; and characterized in that - the energy-at-break indicator Er of the cord, defined by Er = ∫ 0 At σ Ai × dAi where σ ( Ai) is the tensile stress in MPa measured at the elongation Ai and dAi is the elongation such that Er is strictly greater than 52 MJ/m 3.
A surgical probe (1900, 2400) for treating rhinitis of a patient, comprising: an elongated probe shaft (1902, 2408) with a proximal end and a distal end; a handle coupled to the proximal end; an ultrasound transducer (1904, 2406) coupled to the probe shaft (1902, 2408); and a cryo-ablation element (1906, 2410) coupled to the probe shaft (1902, 2408); wherein the ultrasound transducer (1904, 2406) includes an ultrasound emitter configured to emit an ultrasound signal and an ultrasound receiver configured to receive a reflected ultrasound signal for determining a location of a target treatment site within a nasal cavity of the patient, and wherein the cryo-ablation element (1906, 2410) is configured to be positioned at the target treatment site location to cryogenically ablate the target treatment site in order to ablate at least one nasal nerve to reduce at least one symptom of rhinitis, characterized in that the probe shaft (1902, 2408) includes a cryo-ablation element portion along the probe shaft (1902, 2408), and the ultrasound transducer (1904, 2406) is coupled to the probe shaft (1902, 2408) towards the distal end of the probe shaft (1902, 2408) and distal of the cryo-ablation element (1906, 2410), and the probe shaft (1902, 2408) comprises an articulation joint configured to facilitate articulation of the ultrasound transducer (1904, 2406) relative to the cryo-ablation element (1906, 2410). an elongated probe shaft (1902, 2408) with a proximal end and a distal end; a handle coupled to the proximal end; an ultrasound transducer (1904, 2406) coupled to the probe shaft (1902, 2408); and a cryo-ablation element (1906, 2410) coupled to the probe shaft (1902, 2408); wherein the ultrasound transducer (1904, 2406) includes an ultrasound emitter configured to emit an ultrasound signal and an ultrasound receiver configured to receive a reflected ultrasound signal for determining a location of a target treatment site within a nasal cavity of the patient, and wherein the cryo-ablation element (1906, 2410) is configured to be positioned at the target treatment site location to cryogenically ablate the target treatment site in order to ablate at least one nasal nerve to reduce at least one symptom of rhinitis, characterized in that the probe shaft (1902, 2408) includes a cryo-ablation element portion along the probe shaft (1902, 2408), and the ultrasound transducer (1904, 2406) is coupled to the probe shaft (1902, 2408) towards the distal end of the probe shaft (1902, 2408) and distal of the cryo-ablation element (1906, 2410), and the probe shaft (1902, 2408) comprises an articulation joint configured to facilitate articulation of the ultrasound transducer (1904, 2406) relative to the cryo-ablation element (1906, 2410).
Sewing machine - with a needle bar for mounting a sewing needle, - with a needle bar frame for guiding a movement of the needle bar, - with a feeding foot bar for mounting a feeding foot, - with a feeding foot bar guide for guiding an axial movement of the feeding foot bar, -- with a guiding component connected to the needle bar frame, -- with a counter guiding component connected to the feeding foot bar, which component is in direct guiding connection with the guiding component, - wherein the feeding foot bar guide is configured such as to prevent the feeding foot bar from being pivoted undesirably about its longitudinal axis, - wherein the guiding component has an elongated guiding hole which runs in the axial direction of the feeding foot bar, - wherein the counter guiding component has a bolt which is securely connected to the feeding foot bar, - wherein the counter guiding component has a slide connected to the bolt, which slide bears against the guiding component when guiding the feeding foot bar. - with a needle bar for mounting a sewing needle, - with a needle bar frame for guiding a movement of the needle bar, - with a feeding foot bar for mounting a feeding foot, - with a feeding foot bar guide for guiding an axial movement of the feeding foot bar, -- with a guiding component connected to the needle bar frame, -- with a counter guiding component connected to the feeding foot bar, which component is in direct guiding connection with the guiding component, -- with a guiding component connected to the needle bar frame, -- with a counter guiding component connected to the feeding foot bar, which component is in direct guiding connection with the guiding component, - wherein the feeding foot bar guide is configured such as to prevent the feeding foot bar from being pivoted undesirably about its longitudinal axis, - wherein the guiding component has an elongated guiding hole which runs in the axial direction of the feeding foot bar, - wherein the counter guiding component has a bolt which is securely connected to the feeding foot bar, - wherein the counter guiding component has a slide connected to the bolt, which slide bears against the guiding component when guiding the feeding foot bar.
A method at a user equipment, comprising: receiving a cellular synchronization signal on a first resource; and receiving a device to device synchronization signal on a second resource, wherein the first resource is different from the second resource, and wherein the cellular synchronization signal and the device to device synchronization signal share a same base sequence, characterized in that the device to device synchronization signal comprises a synchronization sequence designed as ZC M 63 n = e − j πMn n + 1 63, n = 0,1,..., 30, 32,..., 62 where M is a variable different from a corresponding variable used in cellular primary synchronization sequence and n is the frequency index. receiving a cellular synchronization signal on a first resource; and receiving a device to device synchronization signal on a second resource, wherein the first resource is different from the second resource, and wherein the cellular synchronization signal and the device to device synchronization signal share a same base sequence, characterized in that the device to device synchronization signal comprises a synchronization sequence designed as ZC M 63 n = e − j πMn n + 1 63, n = 0,1,..., 30, 32,..., 62 where M is a variable different from a corresponding variable used in cellular primary synchronization sequence and n is the frequency index.
A system for determining a location of a wireless client (102; 801) in a wireless subnet comprising: said wireless client (102; 801); an access point (108; 802) providing said wireless subnet in which said wireless client (102; 801) is connected to said access point (108; 802); at least one sniffer (104, 1010; 803) that detects a signal strength of a signal transmitted from said wireless client (102; 801); and, a database that receives from the sniffer, information relating to said detected signal strength of the signal transmitted from said wireless client (102; 801) and stores said information to provide location information, wherein said at least one sniffer (104, 1010; 803) comprises a mobile sniffer, and wherein said wireless client (102; 801) comprises a mobile, wireless client. said wireless client (102; 801); an access point (108; 802) providing said wireless subnet in which said wireless client (102; 801) is connected to said access point (108; 802); at least one sniffer (104, 1010; 803) that detects a signal strength of a signal transmitted from said wireless client (102; 801); and, a database that receives from the sniffer, information relating to said detected signal strength of the signal transmitted from said wireless client (102; 801) and stores said information to provide location information,
A method performed by a mobility management entity, MME, to redirect a wireless transmit receive unit, WTRU, to a dedicated core network, CN, node, the method comprising: determining, based on a change in subscription information, that the WTRU should be redirected to the dedicated CN node; re-allocating a global unique temporary identity, GUTI, to the WTRU in response to receiving a service request for a connection from the WTRU, wherein the GUTI indicates the dedicated CN node; and transmitting, to the WTRU, the GUTI. determining, based on a change in subscription information, that the WTRU should be redirected to the dedicated CN node; re-allocating a global unique temporary identity, GUTI, to the WTRU in response to receiving a service request for a connection from the WTRU, wherein the GUTI indicates the dedicated CN node; and transmitting, to the WTRU, the GUTI.
A phototherapeutic system for treating dermatological disorders, the phototherapeutic system comprising: a wearable substrate; a radiation source comprising an array of LEDs arranged on the wearable substrate and configured to emit light within a treatment area, wherein at least 75% of the light emitted by the radiation source has wavelength with a bandwidth between 298 nm and 307 nm; a controller operably connected to the radiation source and configured to determine a dosage for a phototherapy session, wherein the dosage is equivalent to a product of an intensity of the radiation source and an exposure time of the radiation source, wherein the dosage has an upper bound less than 1 minimal erythema dose, and wherein delivery of the dosage to the treatment area via the radiation source stimulates production of calcitriol and vitamin D 3 and provides an immune response to treat the dermatological disorder; and a sensor on the wearable substrate, the sensor being configured to determine proximity of the radiation source to a patient's skin. a wearable substrate; a radiation source comprising an array of LEDs arranged on the wearable substrate and configured to emit light within a treatment area, wherein at least 75% of the light emitted by the radiation source has wavelength with a bandwidth between 298 nm and 307 nm; a controller operably connected to the radiation source and configured to determine a dosage for a phototherapy session, wherein the dosage is equivalent to a product of an intensity of the radiation source and an exposure time of the radiation source, wherein the dosage has an upper bound less than 1 minimal erythema dose, and wherein delivery of the dosage to the treatment area via the radiation source stimulates production of calcitriol and vitamin D 3 and provides an immune response to treat the dermatological disorder; and a sensor on the wearable substrate, the sensor being configured to determine proximity of the radiation source to a patient's skin.
A scheduling timing determination method, applied to a terminal, comprising: receiving scheduling information from a network side device carried in a control channel on a scheduling carrier, and obtaining a slot offset between the control channel and a data channel according to the scheduling information; determining a relative slot where the data channel is transmitted on a scheduled carrier according to a subcarrier spacing of the scheduling carrier, a subcarrier spacing of the scheduled carrier, the slot offset between the control channel and the data channel, and a starting symbol of the control channel transmitted in a slot on the scheduling carrier, wherein the relative slot uses a starting time of the slot where the control channel is transmitted on the scheduling carrier as a reference point; determining a transmission slot of the data channel on the scheduled carrier according to the relative slot; characterized in that the relative slot is: K slot = ⌊ 2 μ scheduled / 2 μ scheduling × S / m ⌋ + K indicated, wherein, μ scheduled is a index of the subcarrier spacing of the scheduled carrier, μ scheduling is a index of the subcarrier spacing of the scheduling carrier, S is a index of the starting symbol of the control channel transmitted in the slot on the scheduling carrier, K indicated is the slot offset value between the control channel and the data channel, and m is the quantity of symbols within one slot. receiving scheduling information from a network side device carried in a control channel on a scheduling carrier, and obtaining a slot offset between the control channel and a data channel according to the scheduling information; determining a relative slot where the data channel is transmitted on a scheduled carrier according to a subcarrier spacing of the scheduling carrier, a subcarrier spacing of the scheduled carrier, the slot offset between the control channel and the data channel, and a starting symbol of the control channel transmitted in a slot on the scheduling carrier, wherein the relative slot uses a starting time of the slot where the control channel is transmitted on the scheduling carrier as a reference point; determining a transmission slot of the data channel on the scheduled carrier according to the relative slot; characterized in that the relative slot is: K slot = ⌊ 2 μ scheduled / 2 μ scheduling × S / m ⌋ + K indicated, wherein, μ scheduled is a index of the subcarrier spacing of the scheduled carrier, μ scheduling is a index of the subcarrier spacing of the scheduling carrier, S is a index of the starting symbol of the control channel transmitted in the slot on the scheduling carrier, K indicated is the slot offset value between the control channel and the data channel, and m is the quantity of symbols within one slot.
A transformer, comprising a core configured to form a magnetic circuit and have a middle leg and a plurality of side legs (10b, 10c) branching off from the middle leg (lOa); primary windings respectively wound around the middle leg and one of the side legs, wherein winding direction of the primary winding wound around the middle leg and winding direction of the primary winding wound around the one of the side legs are opposite to each other; and a secondary winding wound around the one of the side legs, wherein a first magnetic flux generated by the primary windings from the middle leg and a second magnetic flux generated by the primary windings from the one of the side legs differ from each other at a position at which the fluxes do not intersect with the secondary winding, wherein a cross-sectional area of the primary winding differs at the middle leg and the one of the side legs. a core configured to form a magnetic circuit and have a middle leg and a plurality of side legs (10b, 10c) branching off from the middle leg (lOa); primary windings respectively wound around the middle leg and one of the side legs, wherein winding direction of the primary winding wound around the middle leg and winding direction of the primary winding wound around the one of the side legs are opposite to each other; and a secondary winding wound around the one of the side legs, wherein a first magnetic flux generated by the primary windings from the middle leg and a second magnetic flux generated by the primary windings from the one of the side legs differ from each other at a position at which the fluxes do not intersect with the secondary winding, wherein a cross-sectional area of the primary winding differs at the middle leg and the one of the side legs.
Supporting and tensioning group of a projection screen made of a flexible material for obtaining a Pepper's ghost illusion comprising a frame provided with at least one pair of lateral supports (12, 12') placed in a substantially fixed spatial relation one with respect to the other, said lateral supports (12, 12') comprising respective opposing lateral support bars (13, 13'), said lateral support bars (13, 13') being tilted with respect to a support plane of the frame and being spaced apart and parallel with respect to each other, characterized in that to and at each lateral support bar (13, 13') a tube for winding said screen is constrained parallel to the extension of said respective lateral support bar (13, 13'), at least one of the tubes being a winding tube being constrained to the respective lateral support bar (13, 13') so as to be able to rotate about its own axis thereby obtaining a tensioning of the flexible screen.
An activation device (10,20,30,40) for use in a downhole well for activation of a downhole tool in the well, the downhole tool having a seat adapted to engage the activation device (10,20,30,40) whereby engagement of the activation device (10,20,30,40) in the seat changes the activation status of the downhole tool, the activation device being adapted for passage through the borehole of the well and being adapted to engage the seat of the downhole tool in the well to change the activation status of the downhole tool, characterised in that: the activation device (10,20,30,40) comprises an outer layer (12,22) and a core (14,24) housed within the outer layer (12,22), wherein the core (14,24) comprises a material that is more susceptible to erosion than the material of the outer layer (12,22); and wherein the material of the outer layer (12,22) is adapted to resist erosion during passage of the activation device (10,20,30,40) through the borehole of the well in normal operating conditions, and wherein the material of the outer layer (12,22) and the core (14,24) are adapted to be eroded by drilling fluid when the activation device (10,20,30,40) is engaged in the seat in the downhole tool, whereby the drilling fluid erodes the seated activation device such that the activation device (10,20,30,40) is able to pass through the seat. the activation device (10,20,30,40) comprises an outer layer (12,22) and a core (14,24) housed within the outer layer (12,22), wherein the core (14,24) comprises a material that is more susceptible to erosion than the material of the outer layer (12,22); and wherein the material of the outer layer (12,22) is adapted to resist erosion during passage of the activation device (10,20,30,40) through the borehole of the well in normal operating conditions, and wherein the material of the outer layer (12,22) and the core (14,24) are adapted to be eroded by drilling fluid when the activation device (10,20,30,40) is engaged in the seat in the downhole tool, whereby the drilling fluid erodes the seated activation device such that the activation device (10,20,30,40) is able to pass through the seat.
Method for assembling conductive pins in a transfer device, each conductive pin being formed of at least one conductive segment and being intended to be electrically connected to at least one other conductive pin in order to form an electrical winding of a wound part of a rotary electric machine, the transfer device comprising a spindle body having an axis and a plurality of guide strips radially extending from the body, lateral spaces intended to house at least one conductive segment being defined between two adjacent guide strips, the conductive pins being split into several groups of pins, each group comprising at least one conductive pin, the method comprising: - at least one step of arranging at least one group of pins in a supply device; - a plurality of supply steps, each supply step comprising transferring at least one group of pins from the supply device to a lateral space of the transfer device; and - a plurality of rotation steps, each rotation step separating at least two supply steps from each other and comprising a rotation movement of the supply device and/or of the transfer device so as to allow a subsequent supply step, characterized in that the conductive pins are split into a first set of pins and a second set of pins, and in that only the conductive pins of the first set of pins are transferred from the supply device to the transfer device. - at least one step of arranging at least one group of pins in a supply device; - a plurality of supply steps, each supply step comprising transferring at least one group of pins from the supply device to a lateral space of the transfer device; and - a plurality of rotation steps, each rotation step separating at least two supply steps from each other and comprising a rotation movement of the supply device and/or of the transfer device so as to allow a subsequent supply step,