mhurhangee/patent-ind-claim-en huggingface dataset:
Suction device for a spinning machine for spinning a textile element , comprising: - a suction opening suited to be positioned in proximity to the textile element ; - a suction control element suited to be set at least in an open configuration and in a closed configuration; - an actuator suited to operate the suction control element , configured so as to set the suction control element in the open configuration in the presence of at least one tear in the textile element and to set the suction control element in the closed configuration when there are no tears in the textile element, wherein the actuator is a mechanical actuator , wherein the actuator comprises a feeler , wherein in the absence of tears in the textile element , the feeler is maintained against the textile element , thus preventing the actuator from moving, characterized in that the feeler is positioned on the side of the textile element that is opposite the suction opening . - a suction opening suited to be positioned in proximity to the textile element ; - a suction control element suited to be set at least in an open configuration and in a closed configuration; - an actuator suited to operate the suction control element , configured so as to set the suction control element in the open configuration in the presence of at least one tear in the textile element and to set the suction control element in the closed configuration when there are no tears in the textile element,
A measurement method for measuring a mass parameter of a workpiece being measured, the method comprising: determining a measured mass parameter of the workpiece being measured based on radiation intensity of rays that have passed through the workpiece being measured; characterized in that the method further comprises: correcting the measured mass parameter using a displacement curve function of the workpiece being measured in a measurement environment, to obtain a corrected mass parameter of the workpiece being measured, wherein the displacement curve function is used to characterize influence of environmental factors on radiation in the measurement environment. determining a measured mass parameter of the workpiece being measured based on radiation intensity of rays that have passed through the workpiece being measured; characterized in that the method further comprises: correcting the measured mass parameter using a displacement curve function of the workpiece being measured in a measurement environment, to obtain a corrected mass parameter of the workpiece being measured, wherein the displacement curve function is used to characterize influence of environmental factors on radiation in the measurement environment.
A method for preparing the compound of Formula 1, comprising steps of: 1) subjecting the compound of Formula 3 to a reaction with the compound of Formula 4 in an organic solvent under the presence of a base to obtain the compound of Formula 2; and 2) subjecting the compound of Formula 2 to a reaction with the compound of Formula 5 in an organic solvent under the presence of an acid to obtain the compound of Formula 1. 1) subjecting the compound of Formula 3 to a reaction with the compound of Formula 4 in an organic solvent under the presence of a base to obtain the compound of Formula 2; and 2) subjecting the compound of Formula 2 to a reaction with the compound of Formula 5 in an organic solvent under the presence of an acid to obtain the compound of Formula 1.
A track kit for a vehicle , the vehicle comprising a chassis , a rear drive axle featuring two opposite wheel hub units and a rear suspension, and the track kit comprises two track assemblies , each track assembly comprises an endless (ground) track , a front idler wheel , an intermediate support member comprising at least one track engaging element , a rear idler wheel , a drive wheel , at least one swing arm and a shock absorber connecting assembly , wherein the endless track comprises an external side featuring ground lugs for ground engagement and an internal side featuring drive lugs for engagement with the drive wheel , and the internal side is circumferentially trained around and in contact with the front idler wheel , the at least one track engaging element , the rear idler wheel and the drive wheel ; the drive wheel is connectable to one of the wheel hub units ; the front idler wheel is arranged at a level above the at least one track engaging element and comprises a front idler wheel axle rigidly connectable to the chassis; characterized in that the at least one swing arm is pivotably connected to the intermediate support member and pivotably connectable to the chassis; the shock absorber connecting assembly is connected to the intermediate support member and operably connectable to a lower end of a shock absorber having an upper end operably connected to the chassis. the endless track comprises an external side featuring ground lugs for ground engagement and an internal side featuring drive lugs for engagement with the drive wheel , and the internal side is circumferentially trained around and in contact with the front idler wheel , the at least one track engaging element , the rear idler wheel and the drive wheel ; the drive wheel is connectable to one of the wheel hub units ; the front idler wheel is arranged at a level above the at least one track engaging element and comprises a front idler wheel axle rigidly connectable to the chassis; characterized in that the at least one swing arm is pivotably connected to the intermediate support member and pivotably connectable to the chassis; the shock absorber connecting assembly is connected to the intermediate support member and operably connectable to a lower end of a shock absorber having an upper end operably connected to the chassis.
An apparatus comprising: a tool body comprising: a cavity ; and a work piece holder disposed within the cavity and configured to receive a work piece ; a seal door configured to move between a first position allowing access to the cavity and a second position preventing access to the cavity; a first media entry configured to couple to a media source and allow media to flow into the cavity ; and a first media exit configured to allow the media to flow out of the cavity , wherein the first media entry is a first point in a media flow path of the media and the media exit is a second point in the media flow path downstream of the first point, and wherein the work piece holder is configured to hold the work piece within the media flow path to be machined by the media, wherein the tool body further comprises: a shaping portion comprising the cavity ; and a stiffening portion configured to receive the shaping portion and stiffen the shaping portion . a cavity ; and a work piece holder disposed within the cavity and configured to receive a work piece ; a seal door configured to move between a first position allowing access to the cavity and a second position preventing access to the cavity; a first media entry configured to couple to a media source and allow media to flow into the cavity ; and a first media exit configured to allow the media to flow out of the cavity , wherein the first media entry is a first point in a media flow path of the media and the media exit is a second point in the media flow path downstream of the first point, and wherein the work piece holder is configured to hold the work piece within the media flow path to be machined by the media, wherein the tool body further comprises: a shaping portion comprising the cavity ; and a stiffening portion configured to receive the shaping portion and stiffen the shaping portion . a shaping portion comprising the cavity ; and a stiffening portion configured to receive the shaping portion and stiffen the shaping portion .
A soft magnetic powder represented by Fe a Si b B c P d Cr e M f except for inevitable impurities, wherein: 78 atomic % ≤ a ≤ 85 atomic % ; 0 .1 atomic % ≤ b ≤ 6 atomic % ; 4 atomic % ≤ c ≤ 10 atomic % ; 5 atomic % ≤ d ≤ 12 atomic % ; 0 atomic % < e ≤ 3 atomic % ; 0 .4 atomic % ≤ f < 6 atomic % ; a + b + c + d + e + f = 100 atomic %; M f is represented by Cu g M' h , where M' is one or more element selected from Co, Ni and Zn; 0 .5 atomic % ≤ g < 0.65 atomic % ; and f = g + h , wherein Fe is optionally replaced with at least one element selected from Nb, Zr, Hf, Mo, Ta, W, Ag, Au, Pd, K, Ca, Mg, Sn, Ti, Al, S, O, N, Y and rare-earth elements at 3 atomic % or less, and if Fe is replaced with Al, Ti, S, N or O, the soft magnetic powder contains Al of 0.05 wt% or less, Ti of 0.05 wt% or less, S of 0.5 wt% or less, N of 0.01 wt% or less, and O of 1.0 wt% or less. wherein Fe is optionally replaced with at least one element selected from Nb, Zr, Hf, Mo, Ta, W, Ag, Au, Pd, K, Ca, Mg, Sn, Ti, Al, S, O, N, Y and rare-earth elements at 3 atomic % or less, and if Fe is replaced with Al, Ti, S, N or O, the soft magnetic powder contains Al of 0.05 wt% or less, Ti of 0.05 wt% or less, S of 0.5 wt% or less, N of 0.01 wt% or less, and O of 1.0 wt% or less.
A camera arrangement comprising a camera head , a camera holder ring and a camera holder base , wherein the camera head has an imaging unit and an interaction portion with a defined cross section, the camera holder ring has an inner surface configured to fit onto the interaction portion of the camera head, the camera holder base has a receptacle orifice dimensioned to receive the camera holder ring fitted onto the interaction portion of the camera head and grip an outer surface of the holder ring , the receptacle orifice has a tightening function such that its dimensions may be reduced so as to fixate the camera holder ring and the camera head in relation to the camera holder base , and thereby to fixate an orientation of the camera head in relation to the camera holder base, wherein the camera holder ring is configured to be movable along a length of the interaction portion until the tightening function of the receptacle orifice has been actuated. the camera head has an imaging unit and an interaction portion with a defined cross section, the camera holder ring has an inner surface configured to fit onto the interaction portion of the camera head, the camera holder base has a receptacle orifice dimensioned to receive the camera holder ring fitted onto the interaction portion of the camera head and grip an outer surface of the holder ring , the receptacle orifice has a tightening function such that its dimensions may be reduced so as to fixate the camera holder ring and the camera head in relation to the camera holder base , and thereby to fixate an orientation of the camera head in relation to the camera holder base, wherein the camera holder ring is configured to be movable along a length of the interaction portion until the tightening function of the receptacle orifice has been actuated.
A transfer tray for use in bonding of a plurality of orthodontic appliances (16', 16"), each having a base for bonding to a tooth surface and a body extending outwardly from the base, the tray comprising: a plurality of receptacles for the plurality of orthodontic appliances (16', 16"), each of the plurality of receptacles having a configuration matching a portion of the appliance body to releasably retain the appliance (16', 16"); the plurality of orthodontic appliances (16', 16") releasably retained in the plurality of receptacles ; and a tray body (56'. 91) extending continuously across the plurality of receptacles and having a gingival edge , wherein the gingival edge intersects each of the plurality of receptacles such that a first portion of each appliance body extends below the gingival edge and is not enclosed by any portion of the tray body for each appliance (16', 16") releasably retained in each receptacle , and wherein each receptacle and the tray body cooperate to cover all exterior surfaces of each appliance body opposite the base and located in an occlusal direction from the gingival edge for each appliance (16', 16") releasably retained in each receptacle , wherein prior to placement of the appliances (16', 16") on the teeth while the appliance (16', 16") are retained in the receptacles of the tray body , positions of the receptacles in the tray body correspond with positions of teeth to receive the appliances (16', 16") retained in the receptacles , wherein the tray body comprises rapid prototyping material. a plurality of receptacles for the plurality of orthodontic appliances (16', 16"), each of the plurality of receptacles having a configuration matching a portion of the appliance body to releasably retain the appliance (16', 16"); the plurality of orthodontic appliances (16', 16") releasably retained in the plurality of receptacles ; and a tray body (56'. 91) extending continuously across the plurality of receptacles and having a gingival edge , wherein the gingival edge intersects each of the plurality of receptacles such that a first portion of each appliance body extends below the gingival edge and is not enclosed by any portion of the tray body for each appliance (16', 16") releasably retained in each receptacle , and wherein each receptacle and the tray body cooperate to cover all exterior surfaces of each appliance body opposite the base and located in an occlusal direction from the gingival edge for each appliance (16', 16") releasably retained in each receptacle , wherein prior to placement of the appliances (16', 16") on the teeth while the appliance (16', 16") are retained in the receptacles of the tray body , positions of the receptacles in the tray body correspond with positions of teeth to receive the appliances (16', 16") retained in the receptacles , wherein the tray body comprises rapid prototyping material.
Method for the horizontal, painting of objects having two prevailing sides, wherein the painting of the first side and the painting of the second side are performed one after the other inside two distinct painting stations , characterized by the following steps: a) Inserting an object to be painted inside a frame ; b) The assembly of object and frame is conveyed inside a first painting station so that said object is horizontally painted on its top prevailing side; c) The assembly of object and frame is conveyed from the first painting station to an overturning device so that the object never touches said conveying means; d) The assembly of object and frame is turned of 180° inside the overturning device ; e) The assembly of object and frame is conveyed to the second painting station so that the object never touches said conveying means; f) The second prevailing side of the object , turned upwards, is horizontally painted inside the second painting station and the drying of the object takes place only after the two prevailing sides have been painted. a) Inserting an object to be painted inside a frame ; b) The assembly of object and frame is conveyed inside a first painting station so that said object is horizontally painted on its top prevailing side; c) The assembly of object and frame is conveyed from the first painting station to an overturning device so that the object never touches said conveying means; d) The assembly of object and frame is turned of 180° inside the overturning device ; e) The assembly of object and frame is conveyed to the second painting station so that the object never touches said conveying means; f) The second prevailing side of the object , turned upwards, is horizontally painted inside the second painting station
A thin film transistor, comprising a gate , a gate insulation layer , a semiconductor active region , and a source and a drain connected with the semiconductor active region , wherein the thin film transistor further comprises a surface charge transfer layer in contact with the semiconductor active region , the surface charge transfer layer is located above or below the semiconductor active region , and is used for causing the semiconductor active region to generate holes therein without changing the lattice structure of the semiconductor active region ; wherein energy level difference between the lowest unoccupied molecular orbit of material of the surface charge transfer layer and the top of valence band of material of the semiconductor active region is greater than or equal to -1eV and less than or equal to 1eV, and wherein the material of the semiconductor active region is zinc oxide, and the material of the surface charge transfer layer is molybdenum trioxide.
A glass comprising at least the following components (given in mol-% on oxide basis): SiO 2 64 - 77 Al 2 O 3 9 - 14 Na 2 O 4 - 12 CaO 1 - 12 MgO 0 - 14 ZrO 2 0 - 2 TiO 2 0.1 - 4.5 wherein the ratio Al 2 O 3 /Na 2 O ≥ 1; wherein the ratio Al 2 O 3 /CaO ≥ 1.5; wherein the total content SiO 2 + Al 2 O 3 < 82 mol-%; wherein there is present no B 2 O 3 , apart from unavoidable impurities; wherein there is present no Li 2 O, apart from unavoidable impurities.
Expanded beads, which are crosslinked expanded beads and which are olefin-based thermoplastic elastomer expanded beads containing a coloring agent and a cell controlling agent, and have an apparent density of 40 to 300 g/L and an average surface layer membrane thickness (a) of 3 to 25 μm, wherein a proportion of a xylene insoluble fraction of the crosslinked expanded beads by a hot xylene extraction method according to the specification is from 30 to 70% by mass, and the flexural modulus of the olefin-based thermoplastic elastomer is from 10 to 100MPa, wherein the average surface layer membrane thickness represents the thickness of the thinnest part of the cell membrane on the expanded beads surface side, and the apparent density, the average surface layer membrane thickness, and the flexural modulus are determined by the method according to the specification. wherein the average surface layer membrane thickness represents the thickness of the thinnest part of the cell membrane on the expanded beads surface side, and the apparent density, the average surface layer membrane thickness, and the flexural modulus are determined by the method according to the specification.
A measuring probe for the examination of surface areas of an object , in particular by scanning surface areas of the object , comprising a substrate , a tip for interaction with the object and a transducer for sending acoustic signals into the object , wherein the substrate carries the tip and the transducer , wherein the transducer is built up by a plurality of layers, whereof at least one layer is constituted as a structure that is periodic in the propagation direction, in particular as a multi-quantum well , and can be excited to send acoustic signals and wherein the tip is designed to transmit acoustic signals onto the object .
A method performed in a system comprising a plurality of nodes that communicate with each other via a network, the method comprising, at a first node of the plurality of nodes: receiving a packet that is targeted for a second node of the plurality of nodes; receiving a message that includes sleepy node variables indicative of sleepy attributes of the second node, the sleepy node variables including a variable indicating whether the second node is a sleepy node; and responsive to determining, based on said variable indicating whether the second node is a sleepy node, that the second node is a sleepy node configured to enter a low power state and suspend communications with the first node: determining a reachability state of the second node; processing the packet based on the determined reachability state and in accordance with the sleepy node variables received in the message; and wherein, when the determined reachability state is a sleeping state, the processing comprises: storing the packet for a time duration specified in one of the sleepy node variables; and when the time duration elapses, sending the packet to the second node. receiving a packet that is targeted for a second node of the plurality of nodes; receiving a message that includes sleepy node variables indicative of sleepy attributes of the second node, the sleepy node variables including a variable indicating whether the second node is a sleepy node; and responsive to determining, based on said variable indicating whether the second node is a sleepy node, that the second node is a sleepy node configured to enter a low power state and suspend communications with the first node: determining a reachability state of the second node; processing the packet based on the determined reachability state and in accordance with the sleepy node variables received in the message; and wherein, when the determined reachability state is a sleeping state, the processing comprises: storing the packet for a time duration specified in one of the sleepy node variables; and when the time duration elapses, sending the packet to the second node. determining a reachability state of the second node; processing the packet based on the determined reachability state and in accordance with the sleepy node variables received in the message; and wherein, when the determined reachability state is a sleeping state, the processing comprises: storing the packet for a time duration specified in one of the sleepy node variables; and when the time duration elapses, sending the packet to the second node. storing the packet for a time duration specified in one of the sleepy node variables; and when the time duration elapses, sending the packet to the second node.
A computer-implemented method, comprising: controlling an image sensor (204; 206) of a head-mounted device (102; 200; 402) to acquire environmental tracking exposures and handheld object tracking exposures , comprising controlling the image sensor to acquire the environmental tracking exposures utilizing one or more of a longer exposure time and a higher image sensor gain than when acquiring the handheld object tracking exposures, receiving, from the image sensor, the environmental tracking exposures and the handheld object tracking exposures, determining a pose of a handheld object (106; 202; 300; 702) with respect to the head-mounted device based upon the handheld object tracking exposures, wherein the handheld object comprises one or more light sources, determining a pose of the head-mounted device with respect to a surrounding environment based upon the environmental tracking exposures, deriving a first pose of the handheld object relative to the surrounding environment based upon the pose of the handheld object with respect to the head-mounted device and the pose of the head-mounted device with respect to the surrounding environment, and outputting the first pose of the handheld object relative to the surrounding environment for controlling a user interface displayed on the head-mounted device. controlling an image sensor (204; 206) of a head-mounted device (102; 200; 402) to acquire environmental tracking exposures and handheld object tracking exposures , comprising controlling the image sensor to acquire the environmental tracking exposures utilizing one or more of a longer exposure time and a higher image sensor gain than when acquiring the handheld object tracking exposures, receiving, from the image sensor, the environmental tracking exposures and the handheld object tracking exposures, determining a pose of a handheld object (106; 202; 300; 702) with respect to the head-mounted device based upon the handheld object tracking exposures, wherein the handheld object comprises one or more light sources, determining a pose of the head-mounted device with respect to a surrounding environment based upon the environmental tracking exposures, deriving a first pose of the handheld object relative to the surrounding environment based upon the pose of the handheld object with respect to the head-mounted device and the pose of the head-mounted device with respect to the surrounding environment, and outputting the first pose of the handheld object relative to the surrounding environment for controlling a user interface displayed on the head-mounted device.