mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission circuit using two coaxial cables (650; 652) each having a center conductor and a shield, comprising: an integrated circuit comprising a differential driver having first and second outputs, and a differential receiver having first and second inputs; a first common mode choke coupled between the first output of the differential driver and a center conductor of a first coaxial cable , and between the second output of the differential driver and the shield of the first coaxial cable a first terminating impedance (130, 129; 720) coupled between the second output of the first differential driver and a first ground node ; a second common mode choke coupled between the first input of the differential receiver and the center conductor of a second coaxial cable , and between the second input of the differential receiver and the shield of the second coaxial cable ; second terminating impedances (646; 648) coupled between the first and second inputs of the differential receiver and the first ground node , respectively; and a dissipative element (622; 624) coupled between the shield of the second coaxial cable and a second ground node , characterized in that the shield of the first coaxial cable is directly connected with the second ground node without using a dissipative resistor. an integrated circuit comprising a differential driver having first and second outputs, and a differential receiver having first and second inputs; a first common mode choke coupled between the first output of the differential driver and a center conductor of a first coaxial cable , and between the second output of the differential driver and the shield of the first coaxial cable a first terminating impedance (130, 129; 720) coupled between the second output of the first differential driver and a first ground node ; a second common mode choke coupled between the first input of the differential receiver and the center conductor of a second coaxial cable , and between the second input of the differential receiver and the shield of the second coaxial cable ; second terminating impedances (646; 648) coupled between the first and second inputs of the differential receiver and the first ground node , respectively; and a dissipative element (622; 624) coupled between the shield of the second coaxial cable and a second ground node , characterized in that the shield of the first coaxial cable is directly connected with the second ground node without using a dissipative resistor.
A chordal replacement system comprising: a first pledget coupled to a first end of a first suture length (Su1); a first needle coupled to a second end of the first suture length (Sul); a first suture loop : (a) (i) closed by a first knot , and (a) (ii) coupled to the first pledget ; a second suture loop : (b) (i) closed by a second knot , and (b) (ii) coupled to the first pledget ; (c) (i) second and third needles coupled to the first knot via second and third suture lengths , respectively; and (c) (ii) fourth and fifth needles coupled to the second knot via fourth and fifth suture lengths , respectively. a first pledget coupled to a first end of a first suture length (Su1); a first needle coupled to a second end of the first suture length (Sul); a first suture loop : (a) (i) closed by a first knot , and (a) (ii) coupled to the first pledget ; (a) (i) closed by a first knot , and (a) (ii) coupled to the first pledget ; a second suture loop : (b) (i) closed by a second knot , and (b) (ii) coupled to the first pledget ; (c) (i) second and third needles coupled to the first knot via second and third suture lengths , respectively; and (c) (ii) fourth and fifth needles coupled to the second knot via fourth and fifth suture lengths , respectively. (b) (i) closed by a second knot , and (b) (ii) coupled to the first pledget ; (c) (i) second and third needles coupled to the first knot via second and third suture lengths , respectively; and (c) (ii) fourth and fifth needles coupled to the second knot via fourth and fifth suture lengths , respectively.
A swimming pool cleaning apparatus comprising: - a body , - a hydraulic circuit for liquid circulation between a liquid inlet and a liquid outlet , and through a filtration chamber , - driving and guiding members of the body on a submerged surface, said driving and guiding members defining a guide plane (XY), - adjustment means for the orientation of a liquid flow, arranged at or proximate the liquid outlet , wherein the adjustment means is configured to orient the flow of liquid which escapes from the liquid outlet in at least two predefined directions, one of which corresponds to a first direction inclined with respect to the guide plane (XY) and the other of which corresponds to a second direction substantially perpendicular to the guide plane (XY), characterized in that the adjustment means comprises (a) a nozzle body comprising (i) a first liquid outlet port configured to allow liquid coming from the liquid outlet to exit in the second direction and (ii) a second liquid outlet port configured to allow the liquid coming from the liquid outlet to exit in the first direction, and (b) a closure device configured to close off either the first liquid outlet port or the second liquid outlet port . - a body , - a hydraulic circuit for liquid circulation between a liquid inlet and a liquid outlet , and through a filtration chamber , - driving and guiding members of the body on a submerged surface, said driving and guiding members defining a guide plane (XY), - adjustment means for the orientation of a liquid flow, arranged at or proximate the liquid outlet ,
A compound selected from the group consisting of substituted 5-aryl-2-aminoimidazoles represented by the structural formula (I), wherein, R1 is selected from the group consisting of substituted or unsubstituted C 4-12 alkyl and C 3-12 cycloalkyl; R2 is selected from the group consisting of substituted or unsubstituted C 2-3 alkyl, C 4-10 alkyl and C 3-10 cycloalkyl; R3 and R4 are each independently selected from the group consisting of hydrogen, halogen, nitro, methoxy, methyl, hydroxyl and methylsulfonyl; and pharmaceutically acceptable salts, hydrates, solvates, stereoisomers or polymorphic forms thereof. R1 is selected from the group consisting of substituted or unsubstituted C 4-12 alkyl and C 3-12 cycloalkyl; R2 is selected from the group consisting of substituted or unsubstituted C 2-3 alkyl, C 4-10 alkyl and C 3-10 cycloalkyl; R3 and R4 are each independently selected from the group consisting of hydrogen, halogen, nitro, methoxy, methyl, hydroxyl and methylsulfonyl; and pharmaceutically acceptable salts, hydrates, solvates, stereoisomers or polymorphic forms thereof.
A method of producing a gas barrier laminate, comprising: a step of forming a coating film on a surface of a base film or a laminate including the base film, the coating film containing zinc ions, at least one of metal alkoxide and a hydrolysate thereof, and an aqueous polymer; and a step of drying the coating film to form a gas barrier layer on the surface. a step of forming a coating film on a surface of a base film or a laminate including the base film, the coating film containing zinc ions, at least one of metal alkoxide and a hydrolysate thereof, and an aqueous polymer; and a step of drying the coating film to form a gas barrier layer on the surface.
A method for monitoring a vehicle by means of a monitoring system comprising a monitoring device comprising a lens, the monitoring device being installed in a parking lot and the system further comprising an in-vehicle device having a GPS module and a collision sensor , the method comprising: establishing a wireless connection between the in-vehicle device and the monitoring device when the in-vehicle device enters the parking lot; detecting (S401, S402) by the in-vehicle device that a collision has occurred using its collision sensor ; on detecting that a collision occurs, the in-vehicle device determining (S403) its GPS location using its GPS module and subsequently sending (S404) a monitoring request comprising the GPS location to the monitoring device over the wireless connection; the monitoring device receiving (S404, S402, S302) the monitoring request and adjusting (S102, S302) at least one of a direction and a focal length of the lens according to the location information of the vehicle and collecting (S103, S206, S305) environment data of the vehicle by using the lens adjusted, and storing the environment data. establishing a wireless connection between the in-vehicle device and the monitoring device when the in-vehicle device enters the parking lot; detecting (S401, S402) by the in-vehicle device that a collision has occurred using its collision sensor ; on detecting that a collision occurs, the in-vehicle device determining (S403) its GPS location using its GPS module and subsequently sending (S404) a monitoring request comprising the GPS location to the monitoring device over the wireless connection; determining (S403) its GPS location using its GPS module and subsequently sending (S404) a monitoring request comprising the GPS location to the monitoring device over the wireless connection; the monitoring device receiving (S404, S402, S302) the monitoring request and adjusting (S102, S302) at least one of a direction and a focal length of the lens according to the location information of the vehicle and collecting (S103, S206, S305) environment data of the vehicle by using the lens adjusted, and storing the environment data. adjusting (S102, S302) at least one of a direction and a focal length of the lens according to the location information of the vehicle and collecting (S103, S206, S305) environment data of the vehicle by using the lens adjusted, and storing the environment data.
A method of positioning a braided fibre sleeve relative to a tool surface , the braided fibre sleeve comprising a longitudinal axis and biaxially oriented tows arranged at acute angles relative to the longitudinal axis, the method comprising: applying tension to a plurality of axial threads disposed along the longitudinal axis, such tension forming a tensioned braided fibre sleeve; positioning the tensioned braided fibre sleeve relative to a tool surface; and releasing tension on the plurality of axial threads, wherein the step of applying tension to the plurality of axial threads comprises applying tension to at least one of the plurality of axial threads at an angle of greater than zero degrees relative to the longitudinal axis, further comprising, following the step of releasing the tension on the axial threads, removing the axial threads from the braided fibre sleeve. applying tension to a plurality of axial threads disposed along the longitudinal axis, such tension forming a tensioned braided fibre sleeve; positioning the tensioned braided fibre sleeve relative to a tool surface; and releasing tension on the plurality of axial threads, wherein the step of applying tension to the plurality of axial threads comprises applying tension to at least one of the plurality of axial threads at an angle of greater than zero degrees relative to the longitudinal axis, further comprising, following the step of releasing the tension on the axial threads, removing the axial threads from the braided fibre sleeve.
Optical position measuring device for detecting the position of two objects that are movable relative to one another, the optical position measuring device having: - a scale , which is connected to one of the two objects, and - a scanning unit , which is connected to the other object and comprises at least one scanning plate (22; 122; 222) having at least one scanning grating (22.1, 22.2, 22.3; 122; 222) that is arranged on a carrier element (124; 224) and is arranged on that side of the scanning plate (22; 122; 222) that faces towards the scale , wherein beams, emitted by a light source , with a scanning beam path impinge on the scale and the scanning grating (22.1, 22.2, 22.3; 122; 222) in each case once or multiple times, and wherein - the scanning grating (22.1, 22.2, 22.3; 122; 222) comprises at least one first and one second grating material (122.1, 122.2; 222.1, 222.2), which are arranged in alternation, wherein at least the first grating material (122.1; 222.1) has a different refractive index than the second grating material (122.2; 222.2) and has a different hardness than the second grating material (122.2; 222.2), wherein that surface of the scanning plate (22; 122; 222) that faces towards the scale has a planar form and forms the exposed termination of the scanning plate (22; 122; 222) in the direction of the scale , characterized in that the surface of the scanning plate (22; 122; 222) comprises at least one of the grating materials (122.1, 122.2; 222.1, 222.2). - a scale , which is connected to one of the two objects, and - a scanning unit , which is connected to the other object and comprises at least one scanning plate (22; 122; 222) having at least one scanning grating (22.1, 22.2, 22.3; 122; 222) that is arranged on a carrier element (124; 224) and is arranged on that side of the scanning plate (22; 122; 222) that faces towards the scale , wherein beams, emitted by a light source , with a scanning beam path impinge on the scale and the scanning grating (22.1, 22.2, 22.3; 122; 222) in each case once or multiple times, and wherein - the scanning grating (22.1, 22.2, 22.3; 122; 222) comprises at least one first and one second grating material (122.1, 122.2; 222.1, 222.2), which are arranged in alternation, wherein at least the first grating material (122.1; 222.1) has a different refractive index than the second grating material (122.2; 222.2) and has a different hardness than the second grating material (122.2; 222.2),
Use of an outer layer (B) having a shore D hardness of at least 60 according to ISO 868 comprising a polymer having a Shore D hardness measured according to ISO 868 of at least 60 for protecting a polyethylene pipe against termite attacks, characterized in that the polymer having a Shore D hardness of at least 60 is a heterophasic propylene copolymer having a total comonomer content of from 0.5 to 20.0 wt.-%, wherein the comonomers are ethylene and/or a C 4 to C 12 α-olefin; a xylene cold soluble (XCS) fraction measured according to ISO 16152 (25 °C) of from 0.5 to 10.0 wt.-%; and a melt flow rate MFR 2 (230 °C, 2.16 kg) measured according to ISO 1133 of from 0.05 to 0.7 g/10min; wherein the heterophasic propylene copolymer (HECO) has an amorphous (AM) phase having a comonomer content of 20.0 to 37.0 wt.-%, the comonomers being ethylene and/or a C 4 to C 12 α-olefin.
A spinal decompression device comprising: a. a thoracic belt configured to wrap around a user's chest and be positioned in the user's axilla area, wherein the upper thoracic belt is formed of a material having stretchable and fixed fibers configured to contour around the user's chest; b. a lumbar belt configured to wrap around the user's waist, wherein the lumbar belt is formed of a material having stretchable and fixed fibers configured to contour around the user's waist; c. top anchor points positioned on the thoracic belt and bottom anchor points positioned on the lumbar belt ; d. rods extending between the top anchor points and the bottom anchor points ; and e. a traction tensioner assembly capable of extending the rods from a neutral position, wherein the traction assembly comprises an user operated ratchet type actuator mechanism with actuator handles with quick release mechanism ; wherein the actuator mechanism moves bi-directionally along the rods when lift or force is exerted upon the actuator handles to facilitate spinal column decompression between the thoracic belt and the lumbar belt ; and wherein the actuator mechanism is configured to be operable by a user wearing the spinal decompression device . a. a thoracic belt configured to wrap around a user's chest and be positioned in the user's axilla area, wherein the upper thoracic belt is formed of a material having stretchable and fixed fibers configured to contour around the user's chest; b. a lumbar belt configured to wrap around the user's waist, wherein the lumbar belt is formed of a material having stretchable and fixed fibers configured to contour around the user's waist; c. top anchor points positioned on the thoracic belt and bottom anchor points positioned on the lumbar belt ; d. rods extending between the top anchor points and the bottom anchor points ; and e. a traction tensioner assembly capable of extending the rods from a neutral position, wherein the traction assembly comprises an user operated ratchet type actuator mechanism with actuator handles with quick release mechanism ; wherein the actuator mechanism moves bi-directionally along the rods when lift or force is exerted upon the actuator handles to facilitate spinal column decompression between the thoracic belt and the lumbar belt ; and wherein the actuator mechanism is configured to be operable by a user wearing the spinal decompression device . wherein the actuator mechanism moves bi-directionally along the rods when lift or force is exerted upon the actuator handles to facilitate spinal column decompression between the thoracic belt and the lumbar belt ; and wherein the actuator mechanism is configured to be operable by a user wearing the spinal decompression device .
A method performed by a user equipment comprising: receiving, from a network node , a measurement configuration that specifies a reference frequency corresponding to a set of a plurality of carriers, the measurement configuration further specifying an offset from the reference frequency, wherein the offset specifies positions of a plurality of frequency resource blocks within the set of carriers, and wherein each of the plurality of frequency resource blocks is associated with a different carrier of the set of carriers; performing measurements on reference signals located at the positions of the plurality of frequency resource blocks; and using the measurements for one or more radio operations. receiving, from a network node , a measurement configuration that specifies a reference frequency corresponding to a set of a plurality of carriers, the measurement configuration further specifying an offset from the reference frequency, wherein the offset specifies positions of a plurality of frequency resource blocks within the set of carriers, and wherein each of the plurality of frequency resource blocks is associated with a different carrier of the set of carriers; performing measurements on reference signals located at the positions of the plurality of frequency resource blocks; and using the measurements for one or more radio operations.
A cable sequence detection method, wherein a base station antenna comprises N ports , a remote radio unit, RRU, comprises M antenna ports and one calibration port, CAL, any port i of the base station antenna corresponds to a directional coupling branch Ti, a switch circuit Ki is disposed on the Ti, connection and disconnection of the switch circuit Ki are controlled by a remote control unit, RCU , M, N, and i are integers, 1≤i≤N, the M antenna ports of the RRU have been connected to the N ports of the base station antenna, and the cable sequence detection method comprises the following steps: sending , by the RRU, a detection signal to the base station antenna through any antenna port j; controlling , by the RCU, a switch circuit Ki to be disconnected, and controlling all the other switch circuits of the base station antenna to be connected; detecting , by the RRU, whether energy Qi obtained during coupling by the directional coupling branch Ti is greater than a threshold; and if Qi is greater than the threshold, determining that the antenna port j of the RRU is connected to the port i of the base station antenna; or if Qi is less than or equal to the threshold, determining that the antenna port j of the RRU is not connected to the port i of the base station antenna. sending , by the RRU, a detection signal to the base station antenna through any antenna port j; controlling , by the RCU, a switch circuit Ki to be disconnected, and controlling all the other switch circuits of the base station antenna to be connected; detecting , by the RRU, whether energy Qi obtained during coupling by the directional coupling branch Ti is greater than a threshold; and if Qi is greater than the threshold, determining that the antenna port j of the RRU is connected to the port i of the base station antenna; or if Qi is less than or equal to the threshold, determining that the antenna port j of the RRU is not connected to the port i of the base station antenna.
A component (B) comprising - a carrier (TR), - a plurality of functional structures (FS) working with acoustic waves on the carrier (TR), - thin-layer coverings (DSA) spanning across each of the plurality of functional structures (FS) and resting on the carrier, such that each of the plurality of functional structures is respectively covered by a separate thin-layer covering, - a planarization layer arranged above the thin-layer coverings (DSA), - a wiring level (M1, M2) applied onto the planarization layer, wherein - the wiring level (M1, M2) comprises structured conductor paths and is connected to the plurality of functional structures (FS) via through-connections, - in which the plurality of functional structures (FS) working with acoustic waves is connected to form a high-frequency, HF, filter, - in which connection of the plurality of functional structures (FS) to form the HF filter is at least partially realized in the wiring level. - a carrier (TR), - a plurality of functional structures (FS) working with acoustic waves on the carrier (TR), - thin-layer coverings (DSA) spanning across each of the plurality of functional structures (FS) and resting on the carrier, such that each of the plurality of functional structures is respectively covered by a separate thin-layer covering, - a planarization layer arranged above the thin-layer coverings (DSA), - a wiring level (M1, M2) applied onto the planarization layer, - the wiring level (M1, M2) comprises structured conductor paths and is connected to the plurality of functional structures (FS) via through-connections, - in which the plurality of functional structures (FS) working with acoustic waves is connected to form a high-frequency, HF, filter, - in which connection of the plurality of functional structures (FS) to form the HF filter is at least partially realized in the wiring level.