mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber bundle condensing device for a spinning machine, the fiber bundle condensing device comprising: a condensing device configured to condense a fiber bundle (F) which has been drafted, the condensing device including a delivery bottom roller that is mounted on a rotary shaft and transports the fiber bundle (F), a suction portion that exerts suction acting on the fiber bundle (F), an air-permeable apron that rotates along the suction portion , and a delivery top roller that is pressed against and in contact with the delivery bottom roller with the air-permeable apron interposed between the delivery top roller and the delivery bottom roller and rotates together with the delivery bottom roller ; a countershaft configured to drive the rotary shaft ; a driven gear mounted on the rotary shaft and configured to receive a driving force from the countershaft ; and a drive gear mounted on the countershaft and configured to be engaged with the driven gear , characterized in that the fiber bundle condensing device includes a plurality of the countershafts corresponding to a plurality of the condensing devices , the plurality of the countershafts being connected by a coupling , and a conditional expression W > d ≥ (1/4) x W is satisfied, where W represents a width of the drive gear and d represents a distance between ends of the plurality of countershafts connected to each other by the coupling . a condensing device configured to condense a fiber bundle (F) which has been drafted, the condensing device including a delivery bottom roller that is mounted on a rotary shaft and transports the fiber bundle (F), a suction portion that exerts suction acting on the fiber bundle (F), an air-permeable apron that rotates along the suction portion , and a delivery top roller that is pressed against and in contact with the delivery bottom roller with the air-permeable apron interposed between the delivery top roller and the delivery bottom roller and rotates together with the delivery bottom roller ; a countershaft configured to drive the rotary shaft ; a driven gear mounted on the rotary shaft and configured to receive a driving force from the countershaft ; and a drive gear mounted on the countershaft and configured to be engaged with the driven gear , characterized in that the fiber bundle condensing device includes a plurality of the countershafts corresponding to a plurality of the condensing devices , the plurality of the countershafts being connected by a coupling , and a conditional expression W > d ≥ (1/4) x W is satisfied, where W represents a width of the drive gear and d represents a distance between ends of the plurality of countershafts connected to each other by the coupling .
A remote unit comprising: a transceiver arranged to communicate with a mobile communication network; and a processor arranged to: perform an authentication with a network encrypted traffic detection function, and after a successful authentication with the network encrypted traffic detection function, creating an encrypted traffic detection key; detect a data packet generated by a first application; determine whether the data packet is associated with a start of an encrypted data flow for the first application; and modify the data packet to include detection information, wherein the detection information comprises an application key, the application key formed based on an application identifier of the first application with the encrypted traffic detection key, wherein the transceiver is further arranged to send the modified data packet to the mobile communication network. a transceiver arranged to communicate with a mobile communication network; and a processor arranged to: perform an authentication with a network encrypted traffic detection function, and after a successful authentication with the network encrypted traffic detection function, creating an encrypted traffic detection key; detect a data packet generated by a first application; determine whether the data packet is associated with a start of an encrypted data flow for the first application; and modify the data packet to include detection information, wherein the detection information comprises an application key, the application key formed based on an application identifier of the first application with the encrypted traffic detection key, wherein the transceiver is further arranged to send the modified data packet to the mobile communication network. perform an authentication with a network encrypted traffic detection function, and after a successful authentication with the network encrypted traffic detection function, creating an encrypted traffic detection key; detect a data packet generated by a first application; determine whether the data packet is associated with a start of an encrypted data flow for the first application; and modify the data packet to include detection information, wherein the detection information comprises an application key, the application key formed based on an application identifier of the first application with the encrypted traffic detection key, wherein the transceiver is further arranged to send the modified data packet to the mobile communication network.
Process for fabricating a device for detecting electromagnetic radiation comprising at least one thermal detector resting on a substrate and one encapsulation structure defining, with the substrate , a cavity in which the thermal detector is located, comprising the following steps: ∘ producing the thermal detector from at least one first sacrificial layer deposited on the substrate ; ∘ producing a thin encapsulation layer of the encapsulation structure extending above the thermal detector from at least one second sacrificial layer resting on the first sacrificial layer , the thin encapsulation layer being made of an encapsulation material; ∘ producing, by physical vapour deposition (PVD), a thin "sealing" layer covering the thin encapsulation layer , the thin sealing layer being made of a sealing material having a coefficient of thermal expansion different from that of the encapsulation material; characterized in that it furthermore comprises the following step: ∘ prior to the step of producing the thin sealing layer , producing at least one relief on the thin encapsulation layer having a suitable average thickness so that, during the deposition of the thin sealing layer , the latter is formed from at least one layer segment (24.1) resting on the thin encapsulation layer and from at least one pad (24.2) that is separate from the layer segment (24.1) and that rests on the relief , thus forming a local breakage in the continuity of the thin sealing layer at the relief . ∘ producing the thermal detector from at least one first sacrificial layer deposited on the substrate ; ∘ producing a thin encapsulation layer of the encapsulation structure extending above the thermal detector from at least one second sacrificial layer resting on the first sacrificial layer , the thin encapsulation layer being made of an encapsulation material; ∘ producing, by physical vapour deposition (PVD), a thin "sealing" layer covering the thin encapsulation layer , the thin sealing layer being made of a sealing material having a coefficient of thermal expansion different from that of the encapsulation material; characterized in that it furthermore comprises the following step: ∘ prior to the step of producing the thin sealing layer , producing at least one relief on the thin encapsulation layer having a suitable average thickness so that, during the deposition of the thin sealing layer , the latter is formed from at least one layer segment (24.1) resting on the thin encapsulation layer and from at least one pad (24.2) that is separate from the layer segment (24.1) and that rests on the relief , thus forming a local breakage in the continuity of the thin sealing layer at the relief .
A seat structure (1C, ID, IE) which includes a seat cushion part and a seat back part coupled to each other via a reclining mechanism part , the seat structure comprising a reinforcing structure (X3, X4, X5) in a substantially rectangular frame shape provided in an area where the seat cushion part and the seat back part are coupled to each other via the reclining mechanism part , from vicinities of rear portions of cushion-part side frames included in a cushion frame of the seat cushion part up to vicinities of lower portions of back-part side frames included in a back frame of the seat back part, the reinforcing structure (X3, X4, X5) including a pair of rigid members provided in vicinities of side portions of the area and at least two bridge members arranged at an interval from each other and extending between the pair of rigid members along a left and right direction wherein the reclining mechanism parts are provided in pair on left and right, characterized in that the rigid members included in the reinforcing structure (X3, X4, X5) are constituted by gears disposed to face each other in the pair of left and right reclining mechanism parts.
A device for processing a cable end of a cable including an inner part and a shield concentrically surrounding the inner part , comprising a die including a penetrating opening in an axial direction, a centering device movable in the axial direction towards the die by a first drive unit and including an inner passage adapted such that the inner part of the cable is insertable into the inner passage , wherein the shield is widened upon insertion of the inner part and the cable is held in a centered position by the centering device , and a cutting body movable in the axial direction towards the die by a second drive unit and including a cutting edge configured such that the cutting edge cuts off a portion of the widened shield of the cable by movement of the cutting body into the penetrating opening of the die , wherein the first drive unit is provided independent of the second drive unit and wherein the die further includes an abutment surface perpendicular to the axial direction and adjacent to the penetrating opening , and the portion of the widened shield of the cable to be cut off abuts at least in part on the abutment surface when the cutting body moves into the penetrating opening of the die and thereby cuts off the portion to be cut off, further comprising a shield clamping device movable in the axial direction towards the die by a third drive unit and including a clamping surface configured to clamp the widened shield between the clamping surface and the abutment surface , wherein the shield clamping device is supported directly or indirectly on the cutting body such that a movement of the cutting body caused by the second drive unit results in a corresponding movement of the shield clamping device , and a movement of the shield clamping device caused by the third drive unit does not result in a corresponding movement of the cutting body .
A method of manufacturing a silicone hydrogel contact lens comprising: a. providing a contact lens mold comprising a first lens-forming surface to mold one side of said hydrogel contact lens and a second lens-forming surface to mold opposite side of said hydrogel contact lens, wherein the first lens-forming surface has a higher polarity than the second lens-forming surface; b. curing a polymerizable composition comprising at least one siloxane monomer and at least one hydrophilic monomer in the contact lens mold to form a polymeric lens body; c. hydrating the polymeric lens body to provide a silicone hydrogel contact lens having a first surface formed by the first lens-forming surface of the contact lens mold and a second surface formed by the second lens-forming surface of the contact lens mold; and d. sealing the silicone hydrogel contact lens in a package, wherein the silicone hydrogel contact lens has a lower ionoflux and/or a lower evaporation rate than a control contact lens manufactured by an identical method except that the second lens-forming surface has the same polarity as the first lens-forming surface. a. providing a contact lens mold comprising a first lens-forming surface to mold one side of said hydrogel contact lens and a second lens-forming surface to mold opposite side of said hydrogel contact lens, wherein the first lens-forming surface has a higher polarity than the second lens-forming surface; b. curing a polymerizable composition comprising at least one siloxane monomer and at least one hydrophilic monomer in the contact lens mold to form a polymeric lens body; c. hydrating the polymeric lens body to provide a silicone hydrogel contact lens having a first surface formed by the first lens-forming surface of the contact lens mold and a second surface formed by the second lens-forming surface of the contact lens mold; and d. sealing the silicone hydrogel contact lens in a package,
Radiation-detecting integrated circuit , receiving analogue signals coming from radiation detectors on a plurality of input channels, characterized in that said circuit comprises, for each input channel, a filtering and storage block comparing the amplitude of the input analogue signal with a reference analogue value and generating a detection signal when the amplitude of the input signal on the channel under consideration exceeds the reference value and when said input signal passes through an extremum, and a plurality of analogue memories receiving, at input, time information indicating the detection time and storing, when said detection signal is generated, both the amplitude of the analogue signal present on an input channel and said time information indicating the detection time, the integrated circuit furthermore comprising: - a trigger signal generation block , receiving the detection signals from all of the input channels and generating a trigger signal when at least one detection signal is generated, - a generator for generating an electrical signal the voltage of which changes in a ramp shape, said voltage taken at the time of detection of radiation constituting the time information associated with this radiation, the ramp generation signal being transmitted at input of the analogue memories associated with each input channel through an RC circuit, the trigger signal being transmitted, within the circuit, to the ramp generator by the trigger signal generation block , and - an output port outputting the stored analogue signals and the trigger signal to outside said integrated circuit. - a trigger signal generation block , receiving the detection signals from all of the input channels and generating a trigger signal when at least one detection signal is generated, - a generator for generating an electrical signal the voltage of which changes in a ramp shape, said voltage taken at the time of detection of radiation constituting the time information associated with this radiation, the ramp generation signal being transmitted at input of the analogue memories associated with each input channel through an RC circuit, the trigger signal being transmitted, within the circuit, to the ramp generator by the trigger signal generation block , and - an output port outputting the stored analogue signals and the trigger signal to outside said integrated circuit.
A solid-state laser device comprising: a resonator composed of a pair of mirrors ; a laser rod disposed in the resonator; and a laser chamber that contains at least a part of the laser rod , wherein the resonator and the laser rod are disposed in a housing , a polarizer and a Q switch that are disposed between one of the pair of mirrors and the laser rod , and an aperture member that is disposed in a light path of the resonator, that suppresses propagation of stray light, which is generated in the housing , in a direction from the one of the pair of mirrors toward the laser rod , and that has an opening in the light path, the aperture member being disposed separately from the chamber , wherein the aperture member is disposed more adjacent to the laser rod than the polarizer and the Q switch wherein the laser chamber comprises a hole having a columnar shape that is shorter than a longitudinal axial length of the laser rod , wherein the laser rod is inserted through the hole of the laser chamber and is supported in a state in which two end portions of the laser rod are exposed from the hole , wherein an O-ring is disposed at an exposed root of at least one end portion of the two end portions, the exposed root being exposed from the laser chamber , and wherein the solid-state laser device comprises a cover member that is disposed on a side surface of the laser rod between the O-ring and an end surface of the at least one end portion of the laser rod and that blocks incidence of stray light, which is generated in the housing , on the O-ring . a resonator composed of a pair of mirrors ; a laser rod disposed in the resonator; and a laser chamber that contains at least a part of the laser rod , wherein the resonator and the laser rod are disposed in a housing , a polarizer and a Q switch that are disposed between one of the pair of mirrors and the laser rod , and an aperture member that is disposed in a light path of the resonator, that suppresses propagation of stray light, which is generated in the housing , in a direction from the one of the pair of mirrors toward the laser rod , and that has an opening in the light path, the aperture member being disposed separately from the chamber , wherein the aperture member is disposed more adjacent to the laser rod than the polarizer and the Q switch wherein the laser chamber comprises a hole having a columnar shape that is shorter than a longitudinal axial length of the laser rod , wherein the laser rod is inserted through the hole of the laser chamber and is supported in a state in which two end portions of the laser rod are exposed from the hole , wherein an O-ring is disposed at an exposed root of at least one end portion of the two end portions, the exposed root being exposed from the laser chamber , and wherein the solid-state laser device comprises a cover member that is disposed on a side surface of the laser rod between the O-ring and an end surface of the at least one end portion of the laser rod and that blocks incidence of stray light, which is generated in the housing , on the O-ring .
An intercom system that includes a slave device , an intercom master device , a Web server , and a push notification server , wherein the slave device , on which a call operation is performed, is configured to transmit to the intercom master device a call signal indicating that the call operation is performed, wherein the intercom master device is configured to receive the call signal from the slave device , and is configured to transmit to the Web server an incoming call notification that notifies an in-advance associated mobile terminal device that the call signal is received, wherein the Web server is configured to receive the incoming call notification from the intercom master device and is configured to determine whether or not a connection to the mobile terminal device is made with a TCP full-time connection, wherein in a case where the connection is made with the TCP full-time connection, the Web server is configured to transmit the incoming call notification to the mobile terminal device using the TCP full-time connection, wherein in a case where the connection is not made with the TCP full-time connection, the Web server is configured to transmit the incoming call notification to the push notification server , and wherein the push notification server is configured to receive the incoming call notification from the Web server and is configured to transmit the incoming call notification to the mobile terminal device with a push notification.
A method of controlling movement of a body through a plurality of motion commands along a trajectory in a multi-dimensional environment during a plurality of control cycles, including the steps of: determining a current position of the body in the multi-dimensional environment during a current control cycle; and determining an ideal position on the trajectory, the ideal position being a point on the trajectory that is closest to the current position; characterized by determining a vector difference between the current position and the ideal position; and adjusting a velocity of the body for a subsequent control cycle based on the vector difference, a tangential tracking error of the ideal position and a distance from the ideal position to a stopper position spaced apart from an endpoint of the trajectory. determining a current position of the body in the multi-dimensional environment during a current control cycle; and determining an ideal position on the trajectory, the ideal position being a point on the trajectory that is closest to the current position; characterized by determining a vector difference between the current position and the ideal position; and adjusting a velocity of the body for a subsequent control cycle based on the vector difference, a tangential tracking error of the ideal position and a distance from the ideal position to a stopper position spaced apart from an endpoint of the trajectory.
An inductive component (100; 200) comprising: a magnetic core (10; 210), an insulation body (20; 220) formed from an electrically insulating material, in which the magnetic core (10; 210) is housed, the insulation body (20; 220) having at least two interconnected insulation wall portions (22, 24; 222, 224), each of which is at least partially facing a side surface portion (14, 16; 214) of the magnetic core (10; 210), at least one winding (W1; W2), and a bobbin (30; 230) on which the at least one winding (W1; W2) is wound, comprising at least one contact element (50b; 250a) attached to a side surface portion (37b; 237a) of the bobbin (30; 230) for electrical connection to the at least one winding (W1; W2), and a magnetic core receptacle (32; 232) in which the magnetic core (10; 210) housed in the insulation body (20; 220) is partially accommodated, wherein a side surface portion (14; 214) of the magnetic core (10; 210) facing the at least one contact element (50b; 250a) is at least partially covered by one of the insulation wall portions (24; 224) of the insulation body (20; 220), characterized in that the insulation body further comprises at least one rib portion formed on the insulation wall portion facing the at least one contact member and protruding to the outside away from the insulation body along a normal direction of the insulation wall portion . a magnetic core (10; 210), an insulation body (20; 220) formed from an electrically insulating material, in which the magnetic core (10; 210) is housed, the insulation body (20; 220) having at least two interconnected insulation wall portions (22, 24; 222, 224), each of which is at least partially facing a side surface portion (14, 16; 214) of the magnetic core (10; 210), at least one winding (W1; W2), and a bobbin (30; 230) on which the at least one winding (W1; W2) is wound, comprising at least one contact element (50b; 250a) attached to a side surface portion (37b; 237a) of the bobbin (30; 230) for electrical connection to the at least one winding (W1; W2), and a magnetic core receptacle (32; 232) in which the magnetic core (10; 210) housed in the insulation body (20; 220) is partially accommodated, at least one contact element (50b; 250a) attached to a side surface portion (37b; 237a) of the bobbin (30; 230) for electrical connection to the at least one winding (W1; W2), and a magnetic core receptacle (32; 232) in which the magnetic core (10; 210) housed in the insulation body (20; 220) is partially accommodated, wherein a side surface portion (14; 214) of the magnetic core (10; 210) facing the at least one contact element (50b; 250a) is at least partially covered by one of the insulation wall portions (24; 224) of the insulation body (20; 220), characterized in that the insulation body further comprises at least one rib portion formed on the insulation wall portion facing the at least one contact member and protruding to the outside away from the insulation body along a normal direction of the insulation wall portion .