mhurhangee/patent-ind-claim-en huggingface dataset:
A child-containment device , comprising: a structural support frame including a plurality of peripheral upper frame members and a plurality of upright frame members supporting the peripheral upper frame members ; and a depth-adjustment enclosure supported by the structural support frame , wherein the depth-adjustment enclosure includes a support surface and a plurality of peripheral flexible walls connected to the support surface and together defining an internal containment volume, wherein the peripheral flexible walls are routed around the peripheral upper frame members in an overlapping double-walled arrangement with each of the peripheral flexible walls having an inner wall portion within the internal containment volume and an outer wall portion outside of the internal containment volume and at least partially overlapping with the inner wall portion, and wherein the peripheral flexible walls are vertically slidable relative to the structural support frame to reposition/adjust the support surface to a plurality of different vertical positions forming a plurality of different configurations of the child-containmenl device ; a synchronization system including inter-engaging synching elements that operably link adjacent ones of the peripheral flexible walls on different sides of the child-containment device so that the linked adjacent peripheral flexible walls move and reposition together between the configurations, characterized in that the inter-engaging synching elements include meshing gears on adjacent ones of the peripheral upper frame members . a structural support frame including a plurality of peripheral upper frame members and a plurality of upright frame members supporting the peripheral upper frame members ; and a depth-adjustment enclosure supported by the structural support frame , wherein the depth-adjustment enclosure includes a support surface and a plurality of peripheral flexible walls connected to the support surface and together defining an internal containment volume, wherein the peripheral flexible walls are routed around the peripheral upper frame members in an overlapping double-walled arrangement with each of the peripheral flexible walls having an inner wall portion within the internal containment volume and an outer wall portion outside of the internal containment volume and at least partially overlapping with the inner wall portion, and wherein the peripheral flexible walls are vertically slidable relative to the structural support frame to reposition/adjust the support surface to a plurality of different vertical positions forming a plurality of different configurations of the child-containmenl device ; a synchronization system including inter-engaging synching elements that operably link adjacent ones of the peripheral flexible walls on different sides of the child-containment device so that the linked adjacent peripheral flexible walls move and reposition together between the configurations, characterized in that the inter-engaging synching elements include meshing gears on adjacent ones of the peripheral upper frame members .
A circuit , comprising an error amplifier configured to amplify a difference between a reference voltage and a scaled version of an output voltage from a switch-mode power supply to produce an error signal; characterized in that the circuit further comprises a resistor (R) having a first terminal configured to receive the error signal and having a second terminal; a capacitor; a ramp generator having a ramp output signal node coupled through the capacitor (C) to the second terminal of the resistor; and a comparator configured to produce a pulse-width modulated, PWM, controller output clock responsive to a comparison of the reference voltage and a voltage for the second terminal of the resistor.
A high performance, thixotropic polyurea/overbased calcium sulfonate complex hybrid grease with a worked cone penetration rating of 295 or less, comprising, 70 to 85 wt% oleaginous medium in which there is homogeneously dispersed; 8 to 21 wt% overbased calcium sulfonate complex thickener comprising fine particles of calcium carbonate in calcite form; 0.5 to 6.5 wt% polyurea thickener; 0.05 to 3 wt% calcium borate or calcium borate complex; 0.5 to 3.5 wt% calcium soap of C 12-24 aliphatic fatty acids; and 0 to 3 wt% lime or calcium hydroxide, wherein all percentages are weight % based on the total weight of the grease. 70 to 85 wt% oleaginous medium in which there is homogeneously dispersed; 8 to 21 wt% overbased calcium sulfonate complex thickener comprising fine particles of calcium carbonate in calcite form; 0.5 to 6.5 wt% polyurea thickener; 0.05 to 3 wt% calcium borate or calcium borate complex; 0.5 to 3.5 wt% calcium soap of C 12-24 aliphatic fatty acids; and 0 to 3 wt% lime or calcium hydroxide, wherein all percentages are weight % based on the total weight of the grease.
A toy assembly , comprising: a housing , an inner object inside the housing in a pre-breakout position, wherein the inner object includes a functional mechanism set, wherein the inner object is removable from the housing and is positionable in a post-breakout position, and a breakout mechanism ; wherein the inner object includes at least one limb and a limb power source that all together form part of the functional mechanism set; wherein, when the inner object is in the pre-breakout position, the limb power source is operatively disconnected from the at least one limb , and so movement of the limb power source does not drive movement of the at least one limb ; and wherein, when the inner object is in the post-breakout position the limb power source is operatively connected to the at least one limb and can drive movement of the limb ; characterised in that : the breakout mechanism has a breakout mechanism power source , and when the inner object is in the post-breakout position, the breakout mechanism is not driven by the breakout mechanism power source ; wherein, when the inner object is in the pre-breakout position, the functional mechanism set is operable to perform a first set of movements, and when the inner object is in the post-breakout position, the functional mechanism set is operable to perform a second set of movements that is different than the first set of movements. a housing , an inner object inside the housing in a pre-breakout position, wherein the inner object includes a functional mechanism set, wherein the inner object is removable from the housing and is positionable in a post-breakout position, and a breakout mechanism ; wherein the inner object includes at least one limb and a limb power source that all together form part of the functional mechanism set; wherein, when the inner object is in the pre-breakout position, the limb power source is operatively disconnected from the at least one limb , and so movement of the limb power source does not drive movement of the at least one limb ; and wherein, when the inner object is in the post-breakout position the limb power source is operatively connected to the at least one limb and can drive movement of the limb ; characterised in that : the breakout mechanism has a breakout mechanism power source , and when the inner object is in the post-breakout position, the breakout mechanism is not driven by the breakout mechanism power source ; wherein, when the inner object is in the pre-breakout position, the functional mechanism set is operable to perform a first set of movements, and when the inner object is in the post-breakout position, the functional mechanism set is operable to perform a second set of movements that is different than the first set of movements.
A load sensing assembly for a spinal implant, the load sensing assembly comprising: a break-off set screw comprising a break-off head coupled to an adjustment head via a break-off region , and a bore extending from an outer surface of the break-off head into a threaded portion of the break-off set screw , the bore having a cylindrically shaped opening when viewed from a top surface of the set screw , wherein an outer surface of the break-off head is offset from an outer surface of the adjustment head ; an antenna positioned around the adjustment head ; an integrated circuit in communication with the antenna ; and a strain gauge in connection with the integrated circuit , wherein the integrated circuit and strain gauge are positioned within the bore of the set screw , and wherein the threaded portion of the break-off set screw is configured to fasten to an anchoring member . a break-off set screw comprising a break-off head coupled to an adjustment head via a break-off region , and a bore extending from an outer surface of the break-off head into a threaded portion of the break-off set screw , the bore having a cylindrically shaped opening when viewed from a top surface of the set screw , wherein an outer surface of the break-off head is offset from an outer surface of the adjustment head ; an antenna positioned around the adjustment head ; an integrated circuit in communication with the antenna ; and a strain gauge in connection with the integrated circuit , wherein the integrated circuit and strain gauge are positioned within the bore of the set screw , and wherein the threaded portion of the break-off set screw is configured to fasten to an anchoring member .
A method for forming a semiconductor structure comprising an elongated structure , the method comprising: - providing a monocrystalline substrate selected from Si and Ge having an upper surface covered with a masking layer comprising at least one opening exposing the upper surface , - filling the opening by epitaxially growing therein a first layer comprising a first Group III-nitride compound, - growing the first layer further above the opening and on the masking layer by epitaxial lateral overgrowth, wherein the at least one opening has a top surface defined by three or more straight edges forming a polygon parallel to the upper surface , the polygon being a triangle or a rectangle, wherein at least one of the three or more straight edges forming the polygon makes an angle of at most 10° with a crystalline plane of the crystal lattice of the monocrystalline substrate , perpendicular to the upper surface, and belonging to a family of crystalline planes having Miller indices { 1-10}, thereby permitting the epitaxial lateral overgrowth of the first layer in a direction perpendicular to at least one of the edges, thereby forming the elongated structure , said elongated structure having a height perpendicular to the upper surface of the substrate and a length and a width parallel to the upper surface of the substrate, characterised in that the length is at least twice as long as the width, said elongated structure having a width predetermined by the length of said at least one of the edges and being laterally elongated in the direction perpendicular to said at least one of the edges. - providing a monocrystalline substrate selected from Si and Ge having an upper surface covered with a masking layer comprising at least one opening exposing the upper surface , - filling the opening by epitaxially growing therein a first layer comprising a first Group III-nitride compound, - growing the first layer further above the opening and on the masking layer by epitaxial lateral overgrowth, wherein the at least one opening has a top surface defined by three or more straight edges forming a polygon parallel to the upper surface , the polygon being a triangle or a rectangle, wherein at least one of the three or more straight edges forming the polygon makes an angle of at most 10° with a crystalline plane of the crystal lattice of the monocrystalline substrate , perpendicular to the upper surface, and belonging to a family of crystalline planes having Miller indices { 1-10}, thereby permitting the epitaxial lateral overgrowth of the first layer in a direction perpendicular to at least one of the edges, thereby forming the elongated structure , said elongated structure having a height perpendicular to the upper surface of the substrate and a length and a width parallel to the upper surface of the substrate, characterised in that the length is at least twice as long as the width, said elongated structure having a width predetermined by the length of said at least one of the edges and being laterally elongated in the direction perpendicular to said at least one of the edges.
A method for determining angular position of a generator shaft of a wind turbine, the method comprising: receiving a position signal, from an encoder position sensor of the wind turbine, indicative of an angular position of the generator shaft; determining a compensation signal to compensate for a disturbance signal in the received position signal indicative of an imperfection associated with the encoder position sensor; and, modifying the position signal by applying the determined compensation signal to the received position signal to determine angular position, characterized in that , determining the compensation signal comprises: determining a position component of the position signal; determining a speed signal based on the position signal, and determining a speed component associated with the disturbance signal in the speed signal; and, determining a gain of the compensation signal based on the position component and the speed component. receiving a position signal, from an encoder position sensor of the wind turbine, indicative of an angular position of the generator shaft; determining a compensation signal to compensate for a disturbance signal in the received position signal indicative of an imperfection associated with the encoder position sensor; and, modifying the position signal by applying the determined compensation signal to the received position signal to determine angular position, characterized in that , determining the compensation signal comprises: determining a position component of the position signal; determining a speed signal based on the position signal, and determining a speed component associated with the disturbance signal in the speed signal; and, determining a gain of the compensation signal based on the position component and the speed component. determining a position component of the position signal; determining a speed signal based on the position signal, and determining a speed component associated with the disturbance signal in the speed signal; and, determining a gain of the compensation signal based on the position component and the speed component.
A method for a user equipment (A700, A401, A501, A601) comprising a processor, the method comprising steps performed by the processor: allocating a secure memory area in the memory unit (A702) of said user equipment (A700, A401, A501, A601), wherein said secure memory area being inaccessible by a user of the user equipment (A700); generating a charging identifier relating to proximity communication involving the user equipment (A700, A401, A501, A601); collecting proximity service charging data during the proximity communication; storing the charging identifier and the proximity service charging data in the secure memory area. allocating a secure memory area in the memory unit (A702) of said user equipment (A700, A401, A501, A601), wherein said secure memory area being inaccessible by a user of the user equipment (A700); generating a charging identifier relating to proximity communication involving the user equipment (A700, A401, A501, A601); collecting proximity service charging data during the proximity communication; storing the charging identifier and the proximity service charging data in the secure memory area.
A traditional Chinese medicine composition, which is prepared from the following traditional Chinese medicine raw materials in parts by weight: 5 to 25 parts by weight of buffalo horn powder, 5 to 15 parts by weight of Japanese honeysuckle flower, 5 to 15 parts by weight of gypsum, 2 to 10 parts by weight of red peony root, 2 to 10 parts by weight of tree peony bark, 1 to 4 parts by weight of charred cape jasmine fruit, 2 to 10 parts by weight of baical skullcap root, 5 to 15 parts by weight of garden burnet root and 0.5 to 3 parts by weight of liquorice root.
A method comprising: receiving, at a terrestrial terminal that is configured to enable communications between a local host of one or more connected local hosts and a remote host over a network connection through a satellite, a network packet from the remote host destined for the local host ; obtaining, from the network packet, an included Transmission Control Protocol, TCP, segment; determining, from the TCP segment, a receive window size advertised by the remote host ; computing, based at least on a predicted condition of the network connection and predicted bandwidth allocations for one or more TCP flows through the terrestrial terminal , a target receive window size for the network connection; modifying the TCP segment by replacing the advertised receive window size with the target receive window size; and forwarding the network packet with the modified TCP segment to the local host . receiving, at a terrestrial terminal that is configured to enable communications between a local host of one or more connected local hosts and a remote host over a network connection through a satellite, a network packet from the remote host destined for the local host ; obtaining, from the network packet, an included Transmission Control Protocol, TCP, segment; determining, from the TCP segment, a receive window size advertised by the remote host ; computing, based at least on a predicted condition of the network connection and predicted bandwidth allocations for one or more TCP flows through the terrestrial terminal , a target receive window size for the network connection; modifying the TCP segment by replacing the advertised receive window size with the target receive window size; and forwarding the network packet with the modified TCP segment to the local host .
A video surveillance system comprising: a plurality of surveillance cameras; a video converting and combining unit configured to combine a plurality of videos captured by the respective surveillance cameras into one combined video; an encoder configured to encode the combined video combined by the video converting and combining unit; a decoder configured to decode the combined video transmitted from the encoder through a transmission line; a video converting and splitting unit configured to split the combined video decoded by the decoder into the videos captured by the respective surveillance cameras; and a display device configured to display on a display screen the videos captured by the respective surveillance cameras inputted from the video converting and splitting unit, wherein when combining the videos captured by the plurality of surveillance cameras into one combined video, the video converting and combining unit appends assignment information in which each of the surveillance cameras that captured the plurality of videos, rotation information indicating application of a rotation process, and division information indicating whether the corresponding video is a left half video or a right half video are associated with one another, and wherein the video converting and splitting unit splits the combined video into a plurality of videos based on the assignment information. a plurality of surveillance cameras; a video converting and combining unit configured to combine a plurality of videos captured by the respective surveillance cameras into one combined video; an encoder configured to encode the combined video combined by the video converting and combining unit; a decoder configured to decode the combined video transmitted from the encoder through a transmission line; a video converting and splitting unit configured to split the combined video decoded by the decoder into the videos captured by the respective surveillance cameras; and a display device configured to display on a display screen the videos captured by the respective surveillance cameras inputted from the video converting and splitting unit, wherein when combining the videos captured by the plurality of surveillance cameras into one combined video, the video converting and combining unit appends assignment information in which each of the surveillance cameras that captured the plurality of videos, rotation information indicating application of a rotation process, and division information indicating whether the corresponding video is a left half video or a right half video are associated with one another, and wherein the video converting and splitting unit splits the combined video into a plurality of videos based on the assignment information.
A piston assembly for a spring-loaded contact, including - a piston body to be received into a housing of the spring-loaded contact and having a first end to be connected directly or indirectly with an external part, - a clip · to mate with a conductive portion of the spring-loaded contact, the piston assembly being characterised in that the piston body has a through hole , the clip being in the through hole. - a piston body to be received into a housing of the spring-loaded contact and having a first end to be connected directly or indirectly with an external part, - a clip · to mate with a conductive portion of the spring-loaded contact, the piston assembly being characterised in that the piston body has a through hole , the clip being in the through hole.
A fiber optic mode scrambler comprising: - a multi-mode optical fiber (10; 30; 40; 50) comprising a core and a cladding around the core , - a non-adiabatic cross-sectional shape change zone in the optical fiber (10; 30;40; 50), - a bending region extending over a length of the optical fiber (10; 30; 40; 50), the optical fiber (10; 30; 40; 50) having a non-zero curvature at the bending region , wherein the shape change zone is at least partially located within the bending region , - means for maintaining said curvature of the optical fiber (10; 30; 40; 50) at the bending region , characterized in that the radius of curvature (r) of the optical fiber (10; 30; 40; 50) at each point of the bending region is more than 50 times the diameter (D) of the optical fiber. - a multi-mode optical fiber (10; 30; 40; 50) comprising a core and a cladding around the core , - a non-adiabatic cross-sectional shape change zone in the optical fiber (10; 30;40; 50), - a bending region extending over a length of the optical fiber (10; 30; 40; 50), the optical fiber (10; 30; 40; 50) having a non-zero curvature at the bending region , wherein the shape change zone is at least partially located within the bending region , - means for maintaining said curvature of the optical fiber (10; 30; 40; 50) at the bending region ,