mhurhangee/ep-ind-claims huggingface dataset:
A lifting apparatus for atmospheric interface devices in a submarine, comprising: - a first movable mounting unit equipped at the top of it with at least one atmospheric interface device; - a second movable mounting unit equipped at the top of it with at least one atmospheric interface device; - actuating means associated with the first movable mounting unit and with the second movable mounting unit to move them along a main direction of movement; - a guide member associated to each movable unit (4, 5) and configured to guide the sliding of the respective movable unit (4, 5) along said main direction of movement; characterized in that said guide member consists of a single supporting member extending along the main direction and interposed between the first movable mounting unit and the second movable mounting unit; the supporting member having a pair of guides (11, 12), each extending along the main direction and slidably coupled to a respective movable mounting unit (4, 5) to guide its movement along the selfsame main direction, wherein the two guides (11, 12) face outside the supporting member, away from each other, and are accessible from the outside. - a first movable mounting unit equipped at the top of it with at least one atmospheric interface device; - a second movable mounting unit equipped at the top of it with at least one atmospheric interface device; - actuating means associated with the first movable mounting unit and with the second movable mounting unit to move them along a main direction of movement; - a guide member associated to each movable unit (4, 5) and configured to guide the sliding of the respective movable unit (4, 5) along said main direction of movement;
A touch-sensitive interface, comprising contact surface designed to be touched by an effector, the contact surface comprising: • at least one transducer (10 1....10 N), referred to as actuating transducer, designed to exert a pressure on contact surface, in such a manner as to form a stationary flexural wave extending along the contact surface, according to a resonance frequency, driving a vibration of the contact surface; the touch-sensitive interface further comprising: • at least one detector (20 1, 20 2), designed to detect an amplitude of the flexural wave, each detector being connected to a detection circuit; • the detection circuit being configured for forming a signal, referred to as attenuation signal ( S att), representative of an attenuation of the flexural wave resulting from a contact between the effector and the contact surface; • a processing circuit, configured for estimating a magnitude of a force applied, by the effector, onto the contact surface, based on the attenuation signal ( S att); the touch-sensitive interface being characterized in that • it comprises a plate, defining the contact surface; and in that • each actuating transducer (10 n) is supplied by a power supply signal; • the detection circuit is configured for establishing a power supply signal referred to as feedback signal ( δV) when the amplitude of the flexural wave, detected by the detector (20 1, 20 2), differs from a setpoint value; the detection circuit being configured for forming the attenuation signal ( S att) as a function of the feedback signal ( δV). • at least one transducer (10 1....10 N), referred to as actuating transducer, designed to exert a pressure on contact surface, in such a manner as to form a stationary flexural wave extending along the contact surface, according to a resonance frequency, driving a vibration of the contact surface; the touch-sensitive interface further comprising: • at least one detector (20 1, 20 2), designed to detect an amplitude of the flexural wave, each detector being connected to a detection circuit; • the detection circuit being configured for forming a signal, referred to as attenuation signal ( S att), representative of an attenuation of the flexural wave resulting from a contact between the effector and the contact surface; • a processing circuit, configured for estimating a magnitude of a force applied, by the effector, onto the contact surface, based on the attenuation signal ( S att); the touch-sensitive interface being characterized in that • it comprises a plate, defining the contact surface; and in that • each actuating transducer (10 n) is supplied by a power supply signal; • the detection circuit is configured for establishing a power supply signal referred to as feedback signal ( δV) when the amplitude of the flexural wave, detected by the detector (20 1, 20 2), differs from a setpoint value; the detection circuit being configured for forming the attenuation signal ( S att) as a function of the feedback signal ( δV).
A toner, comprising: a colorant; a binder resin comprising a polyester resin; a release agent; and a fixing supplemental component which is a crystalline polyester or a fatty acid amide having an amino group or a hydroxyl group at the end, wherein the toner has a storage elastic modulus G' (Pa), measured at a frequency of 1Hz, satisfying the following conditions: 5.0 × 10 4 < Gʹ < 5.0 × 10 5 at 80 °C 1.0 × 10 4 < Gʹ < 1.0 × 10 5 at 90 °C 5.0 × 10 3 < Gʹ < 5.0 × 10 4 at 100 °C 1.0 × 10 3 < Gʹ < 1.0 × 10 4 at 120 °C 1.0 × 10 3 < Gʹ < 1.0 × 10 4 at 150 °C. a colorant; a binder resin comprising a polyester resin; a release agent; and a fixing supplemental component which is a crystalline polyester or a fatty acid amide having an amino group or a hydroxyl group at the end, wherein the toner has a storage elastic modulus G' (Pa), measured at a frequency of 1Hz, satisfying the following conditions: 5.0 × 10 4 < Gʹ < 5.0 × 10 5 at 80 °C 1.0 × 10 4 < Gʹ < 1.0 × 10 5 at 90 °C 5.0 × 10 3 < Gʹ < 5.0 × 10 4 at 100 °C 1.0 × 10 3 < Gʹ < 1.0 × 10 4 at 120 °C 1.0 × 10 3 < Gʹ < 1.0 × 10 4 at 150 °C.
A crystalline polymorph Form 1 of Compound I: that exhibits a powder x-ray diffraction pattern having characteristic peak locations of approximately 4.7, 9.4, 11.0, 12.5, and 15.4 degrees 2θ.
Sludge flask of a motor vehicle forming a bulkhead that substantially describes a semicircle and defines a wheel housing intended to accommodate a wheel of a motor vehicle, the mud flask comprising: - a plurality of assembly openings, each assembly opening being intended to receive an attachment part of the said mudshield to a structure of the motor vehicle; - a spacer located at one of the assembly openings and on a rear face of the bulkhead opposite the wheel housing in relation to the bulkhead, the spacer extending in relation to the rear face of the bulkhead taken at the opening of the assembly; characterized as the spacer consists of a first collerette and a second collerette, the first collerette and the second collerette being concentric between them. - a plurality of assembly openings, each assembly opening being intended to receive an attachment part of the said mudshield to a structure of the motor vehicle; - a spacer located at one of the assembly openings and on a rear face of the bulkhead opposite the wheel housing in relation to the bulkhead, the spacer extending in relation to the rear face of the bulkhead taken at the opening of the assembly;
A wireless communications system, comprising: a base station; a relay device; and a terminal device; wherein the terminal device is configured to receive from the base station an allocation of uplink resources for transmitting uplink data to the relay device; to transmit uplink data to the relay device using the uplink resources allocated to the terminal device; the relay device is configured to receive the transmitted uplink data from the terminal device on the allocated resources; to receive an allocation of uplink resources for relaying the received uplink data to the base station; and to transmit the received uplink data to the base station using the uplink resources allocated to the relay device, and wherein the relay device is further operable to receive from the base station an indication of the allocation of uplink resources made to the terminal device for transmitting the uplink data to the relay device; and to derive the allocation of uplink resources for relaying the received uplink data to the base station from the received indication of the allocation of uplink resources for transmitting the uplink data to the relay device. a base station; a relay device; and a terminal device; wherein the terminal device is configured to receive from the base station an allocation of uplink resources for transmitting uplink data to the relay device; to transmit uplink data to the relay device using the uplink resources allocated to the terminal device; the relay device is configured to receive the transmitted uplink data from the terminal device on the allocated resources; to receive an allocation of uplink resources for relaying the received uplink data to the base station; and to transmit the received uplink data to the base station using the uplink resources allocated to the relay device, and wherein the relay device is further operable to receive from the base station an indication of the allocation of uplink resources made to the terminal device for transmitting the uplink data to the relay device; and to derive the allocation of uplink resources for relaying the received uplink data to the base station from the received indication of the allocation of uplink resources for transmitting the uplink data to the relay device.
A system for storing electrical components accommodated in reels, wherein - the reels can be stored in storage compartments of at least one racking unit, - a height-adjustable gripper unit for feeding the reels into the storage compartments and/or removing the reels from the storage compartments is associated with the racking unit, - the reels can be transported by a gripper unit between a staging area of the system and the storage compartments, - the racking unit has a cylinder-like bogie which can be rotated about a vertical rotation axis and on which the storage compartments are tiered one above the other in multiple layers, - the individual layers each have several of the circularly distributed storage compartments in one plane, - the gripper unit is movably mounted on a stationary, vertical linear guide arranged outside the bogie, - each of the storage compartments of the bogie can be moved into a rotation position which can be adjusted to the gripper unit, - the staging area is arranged in the access region of the gripper unit, - the system has a belt transport through which the reels can be transported between a feed station and/or a removal station and the staging area, - a plurality of the racking units with a plurality of the gripper units are arranged along a transport track of the belt transport in a row in a horizontal machine direction one behind the other, and wherein - the staging areas associated with the individual racking units are formed by stop positions of the belt transports. - the reels can be stored in storage compartments of at least one racking unit, - a height-adjustable gripper unit for feeding the reels into the storage compartments and/or removing the reels from the storage compartments is associated with the racking unit, - the reels can be transported by a gripper unit between a staging area of the system and the storage compartments, - the racking unit has a cylinder-like bogie which can be rotated about a vertical rotation axis and on which the storage compartments are tiered one above the other in multiple layers, - the individual layers each have several of the circularly distributed storage compartments in one plane, - the gripper unit is movably mounted on a stationary, vertical linear guide arranged outside the bogie, - each of the storage compartments of the bogie can be moved into a rotation position which can be adjusted to the gripper unit, - the staging area is arranged in the access region of the gripper unit, - the system has a belt transport through which the reels can be transported between a feed station and/or a removal station and the staging area, - a plurality of the racking units with a plurality of the gripper units are arranged along a transport track of the belt transport in a row in a horizontal machine direction one behind the other, and wherein - the staging areas associated with the individual racking units are formed by stop positions of the belt transports.
A method for impressing a measuring-signal voltage on a power supply network comprising the steps of - providing a generator signal, - inductive transmission of the generator signal into the power supply network, characterised in that - the generator signal (U sig) is sampled alternately by two sample-and-hold elements (20, S1, S3), - the sampled values are alternately allocated to a first pulse sequence and a second pulse sequence, - the pulse sequences (P1, P2) are separately inductively transmitted so as to generate induced partial voltages (U1, U2), - the secondary-side measuring-signal voltage is formed by adding the induced partial voltages (U1, U2) together. - providing a generator signal, - inductive transmission of the generator signal into the power supply network, - the generator signal (U sig) is sampled alternately by two sample-and-hold elements (20, S1, S3), - the sampled values are alternately allocated to a first pulse sequence and a second pulse sequence, - the pulse sequences (P1, P2) are separately inductively transmitted so as to generate induced partial voltages (U1, U2), - the secondary-side measuring-signal voltage is formed by adding the induced partial voltages (U1, U2) together.
A mobile drawing-in unit for drawing-in warp threads of a first warp into elements of a weaving harness, wherein the first warp is placed at a predetermined location, and the warp threads of the first warp are tensioned by means of a first tensioning unit, with at least one feeding device (33, 43) for feeding elements of the weaving harness; at least one receiving device (32, 42) for receiving elements of the weaving harness with drawn-in warp thread; a drawing-in module that is configured to separate an element from the at least one feeding device (33, 43), for gripping a respective warp thread, for drawing-in this warp thread into the separated element, and for placing the element with the drawn-in warp thread on one of the receiving devices (32, 42); wherein the drawing-in unit for drawing in individual warp threads is spatially transportable, characterised in that the mobile drawing-in unit is spatially mobile with reference to the location of the first warp and with reference to the first tensioning unit, so that the mobile drawing-in unit can be moved to and away with reference to the first tensioning unit, in order to be suitable for drawing in warp threads of a second warp, which second warp is tensioned by means of a second tensioning unit, which second tensioning unit is distanced from the first tensioning unit.
An optical network test system, comprising: a fiber link under test; a first instrument comprising a plurality of first optical signal sources (108, 108") at a first wavelength and a first distributor coupled to the plurality of first optical signal sources to supply the signals produced to a first multi-fiber test port; and a second instrument comprising a plurality of photodiodes (114, 114', 114") coupled to a second distributor to receive signals from a second multi-fiber test port, wherein the first instrument and the second instrument are configured to connect to opposite ends of the fiber link under test; the system of first and second instruments (106, 116) is configured to selectively measure optical power, optical loss and polarity of the received signals; the first test instrument is coupled to a first end of the fiber link under test; the second test instrument comprises a plurality of second optical signal sources (112', 112") at a second different wavelength, the second test instrument being coupled to a second end of the fiber link under test; the second distributor is coupled to the plurality of second optical signal sources (112', 112") to supply the signals produced to the multi-fiber test port at the second end of the fiber link under test; and the system further comprises a plurality of further photodiodes (110, 110', 110") coupled to the first distributor to receive signals from the first multi-fiber test port at the first test instrument. a fiber link under test; a first instrument comprising a plurality of first optical signal sources (108, 108") at a first wavelength and a first distributor coupled to the plurality of first optical signal sources to supply the signals produced to a first multi-fiber test port; and a second instrument comprising a plurality of photodiodes (114, 114', 114") coupled to a second distributor to receive signals from a second multi-fiber test port, wherein the first instrument and the second instrument are configured to connect to opposite ends of the fiber link under test; the system of first and second instruments (106, 116) is configured to selectively measure optical power, optical loss and polarity of the received signals; the first test instrument is coupled to a first end of the fiber link under test; the second test instrument comprises a plurality of second optical signal sources (112', 112") at a second different wavelength, the second test instrument being coupled to a second end of the fiber link under test; the second distributor is coupled to the plurality of second optical signal sources (112', 112") to supply the signals produced to the multi-fiber test port at the second end of the fiber link under test; and the system further comprises a plurality of further photodiodes (110, 110', 110") coupled to the first distributor to receive signals from the first multi-fiber test port at the first test instrument.
A method performed by a base station, the method comprising: receiving, from a wireless transmit receive unit, WTRU, via a communication in a first frequency band, channel state information, CSI, location information, and mobility information; determining beam pair prediction information including one or more beam pair information to establish a communication in a second frequency band between the base station and the WTRU based on the received information, wherein the communication in the second frequency band occurs at a higher frequency band than the communication in the first frequency band; transmitting, to the WTRU in the first frequency band, configuration information relating to the beam pair prediction information for communication in the second frequency band; transmitting, in the second frequency band, at least one synchronization signal block according to the beam pair prediction information; receiving feedback from the WTRU; and performing one of transmitting an acknowledge to the WTRU or updating the beam pair prediction information based on the feedback. receiving, from a wireless transmit receive unit, WTRU, via a communication in a first frequency band, channel state information, CSI, location information, and mobility information; determining beam pair prediction information including one or more beam pair information to establish a communication in a second frequency band between the base station and the WTRU based on the received information, wherein the communication in the second frequency band occurs at a higher frequency band than the communication in the first frequency band; transmitting, to the WTRU in the first frequency band, configuration information relating to the beam pair prediction information for communication in the second frequency band; transmitting, in the second frequency band, at least one synchronization signal block according to the beam pair prediction information; receiving feedback from the WTRU; and performing one of transmitting an acknowledge to the WTRU or updating the beam pair prediction information based on the feedback.
A method of fabricating a dental template for positioning an object on a patient's tooth, comprising: creating a digital tooth model of the patient's tooth; adding a virtual object to a predetermined location on the digital tooth model; scaling the digital tooth model; superimposing the scaled digital tooth model over the original digital tooth model; and fabricating the dental template based on the scaled digital tooth model and the original digital tooth model to locate a said object on the patient's tooth. creating a digital tooth model of the patient's tooth; adding a virtual object to a predetermined location on the digital tooth model; scaling the digital tooth model; superimposing the scaled digital tooth model over the original digital tooth model; and fabricating the dental template based on the scaled digital tooth model and the original digital tooth model to locate a said object on the patient's tooth.
A separator for livestock building, especially for cattle, intended to be fastened to a receiving structure, for example a feed fence, comprising: - a rigid front part, comprising a metallic tubular member, said metallic tubular member having two ends that are equipped with first means for the fastening to said receiving structure, and - a rear part, characterized in that the rear part is laterally flexible, and comprises: o at least two flexible, plastic tubular members, said plastic tubular members each having two opposite ends (611, 612), with a front end fastened to said metallic tubular member via second fastening means, and o a rigid linking member, which is fastened to a rear end of said plastic tubular members via third fastening means. - a rigid front part, comprising a metallic tubular member, said metallic tubular member having two ends that are equipped with first means for the fastening to said receiving structure, and - a rear part, characterized in that the rear part is laterally flexible, and comprises: o at least two flexible, plastic tubular members, said plastic tubular members each having two opposite ends (611, 612), with a front end fastened to said metallic tubular member via second fastening means, and o a rigid linking member, which is fastened to a rear end of said plastic tubular members via third fastening means. o at least two flexible, plastic tubular members, said plastic tubular members each having two opposite ends (611, 612), with a front end fastened to said metallic tubular member via second fastening means, and o a rigid linking member, which is fastened to a rear end of said plastic tubular members via third fastening means.
An electrolyte for a lithium-ion battery comprising at least a lithium salt and at least one block copolymer, characterized in that said block copolymer comprises at least one polymeric segment A which is soluble in said electrolyte and at least one polymeric segment B having a temperature for dissolution "T" in said electrolyte, the polymeric segments A and B being present in amounts sufficient to make possible an increase in the viscosity of the electrolyte, preferably up to gelling of the electrolyte, at a temperature greater than or equal to the temperature "T", and then the return of the electrolyte to a liquid state when the temperature of the battery falls back below "T", said temperature T being preferably less than or equal to 80°C, said block copolymer comprising at least one polymeric segment A chosen from the following polymers: polyacrylates, polymethacrylates, polycarbonates, polyester carbonates, polylactones, polylactams, polyesters, polyethers, soluble homopolymers and random copolymers of polyethers, in particular of polyoxyethylene, polyoxypropylene or polyoxybutylene, and also the copolymers of these polymers or corresponding monomers, said block copolymer comprising at least one polymeric segment B obtained from at least one monomer chosen from the following monomers: acrylic and methacrylic acids, N-alkylacrylamides or N-alkylmethacrylamides, in particular N-isopropylacrylamide, N-isopropylmethacrylamide or N,N'-diethylacrylamide, saccharides, vinylidene fluoride or hexafluoropropylene, the polymeric segments B/ polymeric segments A molar ratio being greater than 0.5.