mhurhangee/patent-ind-claim-en huggingface dataset:
An endoscope device comprising: a handle portion ; a shaft projecting from the handle portion, wherein the shaft includes a proximal portion and a distal portion relative to the handle portion; a flexible tip coupled to the distal portion of the shaft; a pair of pull wires extending from the handle portion through the shaft portion and coupled to the flexible tip, wherein the handle portion includes a control wheel assembly coupled to the pair of pull wires, wherein the control wheel assembly comprises at least two control wheels, and wherein each of the at least two control wheels are capable of independent rotation to provide accurate tensioning of the pair of pull wires during assembly of the endoscope device, characterized in that each pull wire in the pair of pull wires comprises a Bowden-style cable that includes an inner wire and an outer compression coil; and a coil stop mounted in the handle portion for engaging the outer compression coil in each of the pull wires and transferring a compression load to the handle during articulation of the pair of pull wires,wherein the coil stop comprises a pair of slots for receiving the pair of pull wires respectively therein. a handle portion ; a shaft projecting from the handle portion, wherein the shaft includes a proximal portion and a distal portion relative to the handle portion; a flexible tip coupled to the distal portion of the shaft; a pair of pull wires extending from the handle portion through the shaft portion and coupled to the flexible tip, wherein the handle portion includes a control wheel assembly coupled to the pair of pull wires, wherein the control wheel assembly comprises at least two control wheels, and wherein each of the at least two control wheels are capable of independent rotation to provide accurate tensioning of the pair of pull wires during assembly of the endoscope device, characterized in that each pull wire in the pair of pull wires comprises a Bowden-style cable that includes an inner wire and an outer compression coil; and a coil stop mounted in the handle portion for engaging the outer compression coil in each of the pull wires and transferring a compression load to the handle during articulation of the pair of pull wires,wherein the coil stop comprises a pair of slots for receiving the pair of pull wires respectively therein.
A contact roller for pressing a film against a take-up roll when rolling the film around with the take-up roll , the contact roller comprising: a cylindrical rubber roll main body ; two spiral groove (6a, 6b, 6c, 6d, 6e and 6f) groups provided in a surface of the rubber roll main body, so as to be separated from each other at a longitudinal center of the rubber roll main body with desired interval and turn in reverse directions to each other on both sides of the longitudinal center as a border; spiral rubber layers provided in the two groove groups respectively and having hardness lower than the hardness of the rubber roll main body; and the roller being characterized by a surface rubber layer provided to cover a surface of the rubber roll main body including the spiral rubber layers and having hardness lower than the hardness of the rubber roll main body , wherein nip pressure of the surface of the surface rubber layer (6a, 6b, 6c, 6d, 6e and 6f) which corresponds to the rubber roll main body , is higher than nip pressure of the surface of the surface rubber layer , which corresponds to the spiral rubber layers . a cylindrical rubber roll main body ; two spiral groove (6a, 6b, 6c, 6d, 6e and 6f) groups provided in a surface of the rubber roll main body, so as to be separated from each other at a longitudinal center of the rubber roll main body with desired interval and turn in reverse directions to each other on both sides of the longitudinal center as a border; spiral rubber layers provided in the two groove groups respectively and having hardness lower than the hardness of the rubber roll main body; and the roller being characterized by a surface rubber layer provided to cover a surface of the rubber roll main body including the spiral rubber layers and having hardness lower than the hardness of the rubber roll main body , wherein nip pressure of the surface of the surface rubber layer (6a, 6b, 6c, 6d, 6e and 6f) which corresponds to the rubber roll main body , is higher than nip pressure of the surface of the surface rubber layer , which corresponds to the spiral rubber layers .
Floating wind turbine system , comprising a wind turbine mounted on a floating platform , said platform comprising three floaters having a respective vertical axis (X10), each floater comprising an intermediate section having a preferably substantially constant horizontal cross-section (D22), the floating wind turbine system preferably comprising: - a lower section having a substantially constant horizontal cross-section (D21) larger than the cross-section (D22) of said intermediate section; and - a first connector connecting said intermediate section to said lower section , its cross-section decreasing when going, from bottom to top, from the lower section towards the intermediate section ; the floating wind turbine system comprising: - an upper section having a substantially constant horizontal cross-section (D23), larger than the cross-section (D22) of said intermediate section ; and - a second connector connecting said intermediate section to said upper section , its cross-section increasing when going, from bottom to top, from the intermediate section towards the upper section , this second connector being provided to be disposed above the level (N) of the water. - a lower section having a substantially constant horizontal cross-section (D21) larger than the cross-section (D22) of said intermediate section; and - a first connector connecting said intermediate section to said lower section , its cross-section decreasing when going, from bottom to top, from the lower section towards the intermediate section ; the floating wind turbine system comprising: - an upper section having a substantially constant horizontal cross-section (D23), larger than the cross-section (D22) of said intermediate section ; and - a second connector connecting said intermediate section to said upper section , its cross-section increasing when going, from bottom to top, from the intermediate section towards the upper section , this second connector being provided to be disposed above the level (N) of the water. - an upper section having a substantially constant horizontal cross-section (D23), larger than the cross-section (D22) of said intermediate section ; and - a second connector connecting said intermediate section to said upper section , its cross-section increasing when going, from bottom to top, from the intermediate section towards the upper section , this second connector being provided to be disposed above the level (N) of the water.
A thermoplastic resin composition, comprising a base resin including: (A) 75 to 85 wt% of a polycarbonate resin; (B) 7 to 13 wt% of an acrylic rubber modified aromatic vinyl-vinyl cyanide graft copolymer; and (C) 7 to 13 wt% of an aromatic vinyl-vinyl cyanide copolymer, wherein the amounts of (A), (B), and (C) are based on a total weight of the base resin, and further comprising, based on 100 parts by weight of the base resin: (D) 1 to 5 parts by weight of zinc oxide (ZnO); and (E) 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer. (A) 75 to 85 wt% of a polycarbonate resin; (B) 7 to 13 wt% of an acrylic rubber modified aromatic vinyl-vinyl cyanide graft copolymer; and (C) 7 to 13 wt% of an aromatic vinyl-vinyl cyanide copolymer, wherein the amounts of (A), (B), and (C) are based on a total weight of the base resin, and further comprising, based on 100 parts by weight of the base resin: (D) 1 to 5 parts by weight of zinc oxide (ZnO); and (E) 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer. wherein the amounts of (A), (B), and (C) are based on a total weight of the base resin, and further comprising, based on 100 parts by weight of the base resin: (D) 1 to 5 parts by weight of zinc oxide (ZnO); and (E) 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer. (D) 1 to 5 parts by weight of zinc oxide (ZnO); and (E) 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer.
A domestic or commercial electric appliance comprising: - at least one electric load ; - an AC power supply input connectable to an AC power source for receiving electric power from said power source and arranged to supply electric power to said at least one electric load , the AC power source comprising a private available AC power supply connected to said AC power supply unit , wherein the private available AC power supply is an AC power generator which is directly managed by a private user, comprises a modulator unit adapted to modulate AC current generated by the private AC power supply with an identification signal when the AC power generator is operating and delivering additional power and further comprises a domestic photovoltaic panel or a micro-wind turbine generator; - a current sensor for sensing an AC current absorbed by the electric appliance from the AC power source; and - a processing unit for carrying out an harmonic analysis on a sensed AC current sensed by the current sensor and for driving the at least one electric load based on an outcome of said harmonic analysis, wherein said processing unit is configured to assess a presence, in a sensed AC current, of at least one secondary component oscillating at a frequency higher than a fundamental frequency of a main component of said sensed AC current, and to detect if said at least one secondary component corresponds to an identification signal generated by the private available AC power supply , wherein the processing unit is further configured to drive said at least one electric load based on said identification signal. - at least one electric load ; - an AC power supply input connectable to an AC power source for receiving electric power from said power source and arranged to supply electric power to said at least one electric load , the AC power source comprising a private available AC power supply connected to said AC power supply unit , wherein the private available AC power supply is an AC power generator which is directly managed by a private user, comprises a modulator unit adapted to modulate AC current generated by the private AC power supply with an identification signal when the AC power generator is operating and delivering additional power and further comprises a domestic photovoltaic panel or a micro-wind turbine generator; - a current sensor for sensing an AC current absorbed by the electric appliance from the AC power source; and - a processing unit for carrying out an harmonic analysis on a sensed AC current sensed by the current sensor and for driving the at least one electric load based on an outcome of said harmonic analysis, wherein said processing unit is configured to assess a presence, in a sensed AC current, of at least one secondary component oscillating at a frequency higher than a fundamental frequency of a main component of said sensed AC current, and to detect if said at least one secondary component corresponds to an identification signal generated by the private available AC power supply , wherein the processing unit is further configured to drive said at least one electric load based on said identification signal.
Shaker comprising - a frame , - a tray for holding one or more samples, - a drive for the tray , in which a tray shaft is mounted eccentrically in a drivable hollow shaft , - a second hollow shaft mounted on the frame , characterized by - a connecting element , which is fastened to the tray shaft in a non-rotatable manner for securing the tray shaft against rotation relative to the frame , - a second tray shaft , which is mounted eccentrically in the second hollow shaft and is fastened to the connecting element in a non-rotatable manner, wherein the tray shaft is fixedly connected to the tray and secured against rotation relative to the frame , wherein the second tray shaft has the same eccentric position relative to the second hollow shaft as the tray shaft has relative to the hollow shaft . - a frame , - a tray for holding one or more samples, - a drive for the tray , in which a tray shaft is mounted eccentrically in a drivable hollow shaft , - a second hollow shaft mounted on the frame , - a connecting element , which is fastened to the tray shaft in a non-rotatable manner for securing the tray shaft against rotation relative to the frame , - a second tray shaft , which is mounted eccentrically in the second hollow shaft and is fastened to the connecting element in a non-rotatable manner, wherein the tray shaft is fixedly connected to the tray and secured against rotation relative to the frame , wherein the second tray shaft has the same eccentric position relative to the second hollow shaft as the tray shaft has relative to the hollow shaft . wherein the tray shaft is fixedly connected to the tray and secured against rotation relative to the frame , wherein the second tray shaft has the same eccentric position relative to the second hollow shaft as the tray shaft has relative to the hollow shaft .
Method for producing an ultrasound sensor for a motor vehicle, in which method, for the ultrasound sensor , a diaphragm for emitting ultrasound signals in an emitting direction and a sensor housing are provided, in and/or on which sensor housing the diaphragm is fastened, wherein by way of the sensor housing , the ultrasound sensor can be installed on a bracket which is connected to a panelling part of the motor vehicle, wherein the sensor housing has a front side , which points in the emitting direction of the diaphragm , and a rear side , which points in a rearward direction which is opposite to the emitting direction , and wherein, on the front side , the sensor housing is formed with a front-side opening for the diaphragm , wherein the front side of the sensor housing is connected to a cap which is composed of a foil and by way of which the front-side opening of the sensor housing is covered in the emitting direction , wherein the diaphragm is inserted at least regionally into a receptacle of the cap and, here, a front side , which points in the emitting direction , of the diaphragm is connected to a base of the receptacle of the cap , wherein the method is characterized in that the diaphragm is received in the receptacle with an accurate fit, and the cap is mounted onto the front side of the sensor housing . wherein the front side of the sensor housing is connected to a cap which is composed of a foil and by way of which the front-side opening of the sensor housing is covered in the emitting direction , wherein the diaphragm is inserted at least regionally into a receptacle of the cap and, here, a front side , which points in the emitting direction , of the diaphragm is connected to a base of the receptacle of the cap , wherein the method is characterized in that the diaphragm is received in the receptacle with an accurate fit, and the cap is mounted onto the front side of the sensor housing .
A method of operating a renewable power plant that is connected to a power network by a bus , the method comprising identifying a predetermined voltage condition of the renewable power plant or of the bus ; controlling the renewable power plant to maintain zero reactive power exchange at the bus for a first period; calculating an average voltage level of the bus that was achieved during the first period; and controlling the renewable power plant to maintain the voltage output at a set voltage level for a second period, the set voltage level being equal to the calculated average voltage level identifying a predetermined voltage condition of the renewable power plant or of the bus ; controlling the renewable power plant to maintain zero reactive power exchange at the bus for a first period; calculating an average voltage level of the bus that was achieved during the first period; and controlling the renewable power plant to maintain the voltage output at a set voltage level for a second period, the set voltage level being equal to the calculated average voltage level
Method for the assisted driving of a vehicle , - wherein a setpoint trajectory, to be travelled along in a car park, for the vehicle is determined in accordance with a vehicle type of the vehicle , - wherein the determined setpoint trajectory is transmitted to the vehicle via a communications network, - wherein a digital map of the car park is transmitted to the vehicle via the communication network, - so that the vehicle can travel autonomously in the car park on the basis of the setpoint trajectory and of the digital map, - wherein the vehicle is monitored during its autonomous travel in the car park by means of a vehicle-external monitoring system, characterized in that the monitoring comprises that the actual trajectory of the vehicle is monitored for deviation from the determined setpoint trajectory, wherein in the case of a deviation a stop signal is transmitted to the vehicle via the communication network, so that the vehicle can stop in response to reception of the stop signal. - wherein a setpoint trajectory, to be travelled along in a car park, for the vehicle is determined in accordance with a vehicle type of the vehicle , - wherein the determined setpoint trajectory is transmitted to the vehicle via a communications network, - wherein a digital map of the car park is transmitted to the vehicle via the communication network, - so that the vehicle can travel autonomously in the car park on the basis of the setpoint trajectory and of the digital map, - wherein the vehicle is monitored during its autonomous travel in the car park by means of a vehicle-external monitoring system, characterized in that the monitoring comprises that the actual trajectory of the vehicle is monitored for deviation from the determined setpoint trajectory, wherein in the case of a deviation a stop signal is transmitted to the vehicle via the communication network, so that the vehicle can stop in response to reception of the stop signal.
A wavelength-tunable light source operative to emit wavelength tunable radiation over a wavelength range contained in a wavelength span between about 950nm and about 1150nm, said wavelength tunable light source comprising a vertical cavity laser, VCL, said VCL having a VCL gain region with at least one compressively strained quantum well containing Indium, Gallium, and Arsenic , said vertical cavity laser further comprising a first portion including a first mirror , a second portion including a second mirror attached to a mechanical structure including a flexible membrane having a tensile stress of more than 100 megapascal with a support structure comprising a geometry of a central plate with multiple supporting arms and having a frequency response flattened by squeeze film damping introduced by viscous air, an adjustable airgap between said second portion and said first portion , a first means for injecting electrons and holes into said gain region, a second means for adjusting said airgap, a third means for obtaining substantially single longitudinal and transverse mode operation over said wavelength tuning range, said wavelength-tunable light source further comprising a semiconductor optical amplifier (SOA) comprising at least one SOA quantum well including Indium, Gallium, and Arsenic, said at least one SOA quantum well having a room temperature photoluminescence wavelength in a range of about 1050nm-1085nm, wherein a thickness of said at least one SOA quantum well is in a range of about 5-10nm, and wherein the squeeze film damping is controlled by control of a central plate and arm areas of the membrane. wherein a thickness of said at least one SOA quantum well is in a range of about 5-10nm, and wherein the squeeze film damping is controlled by control of a central plate and arm areas of the membrane.
A mobile projection device for projection mapping, the device comprising a road vehicle having a structure mounted on wheels , and at least one light projector unit arranged in an upper portion of the structure and configured to be controlled so as to provide projection mapping in the environment outside the mobile projection device , wherein the upper portion is located at least 2 meters above the ground.
A catheter ablation device for delivery of energy to a selected region of tissue, the device having an antenna portion including a radiating antenna electrically connectable via an electrical feedline to a source of energy, the antenna configured to generate an electromagnetic field able to ablate tissue in said selected region of tissue, the device including a thermocouple having a hot junction formed by electrical connection between a thermocouple conductor and a conducting part of the electrical feedline; wherein the thermocouple conductor is provided by a thermocouple wire ; and characterised in that the thermocouple wire is arranged as a pull wire, such that its manipulation from a proximal portion of the catheter results in selective manipulation of the catheter at said antenna portion, the hot junction electrical connection providing a point of mechanical connection between the pull wire and the electrical feedline to enable said manipulation. wherein the thermocouple conductor is provided by a thermocouple wire ; and characterised in that the thermocouple wire is arranged as a pull wire, such that its manipulation from a proximal portion of the catheter results in selective manipulation of the catheter at said antenna portion, the hot junction electrical connection providing a point of mechanical connection between the pull wire and the electrical feedline to enable said manipulation.
A method for communication, comprising: determining (S201), by a terminal device, a failure of access to a target primary secondary cell, PSCell, or a radio link failure, RLF, after the target PSCell is accessed; and transmitting (S202), by the terminal device, a secondary cell group, SCG, failure report to a first network node, characterized in that : the SCG failure report comprises first indication information, wherein the first indication information indicates whether a type of PSCell addition/change is conditional PSCell addition/change, CPAC, or conventional PSCell addition/change; and the SCG failure report further comprises second indication information if the first indication information indicates that the type of the PSCell addition/change is the CPAC, wherein the second indication information indicates information for triggering the CPAC configured by a network device. determining (S201), by a terminal device, a failure of access to a target primary secondary cell, PSCell, or a radio link failure, RLF, after the target PSCell is accessed; and transmitting (S202), by the terminal device, a secondary cell group, SCG, failure report to a first network node, characterized in that : the SCG failure report comprises first indication information, wherein the first indication information indicates whether a type of PSCell addition/change is conditional PSCell addition/change, CPAC, or conventional PSCell addition/change; and the SCG failure report further comprises second indication information if the first indication information indicates that the type of the PSCell addition/change is the CPAC, wherein the second indication information indicates information for triggering the CPAC configured by a network device. the SCG failure report comprises first indication information, wherein the first indication information indicates whether a type of PSCell addition/change is conditional PSCell addition/change, CPAC, or conventional PSCell addition/change; and the SCG failure report further comprises second indication information if the first indication information indicates that the type of the PSCell addition/change is the CPAC, wherein the second indication information indicates information for triggering the CPAC configured by a network device.