mhurhangee/patent-ind-claim-en huggingface dataset:
A striking plate assembly comprising: a striking plate ; and a sensor device for detecting a status of a bolt of a lock for a physical barrier, the sensor device comprising a proximity sensor and an antenna ; wherein the sensor device is provided such that its proximity sensor is provided vertically displaced, along a longitudinal direction of the striking plate, from a through-hole through which the bolt is intended to pass; characterized in that the sensor device is provided such that its antenna is directed towards a gap between the striking plate assembly and the physical barrier, when the striking plate assembly is installed. a striking plate ; and a sensor device for detecting a status of a bolt of a lock for a physical barrier, the sensor device comprising a proximity sensor and an antenna ; wherein the sensor device is provided such that its proximity sensor is provided vertically displaced, along a longitudinal direction of the striking plate, from a through-hole through which the bolt is intended to pass; characterized in that the sensor device is provided such that its antenna is directed towards a gap between the striking plate assembly and the physical barrier, when the striking plate assembly is installed.
A method comprising: orchestrating, by a source coordinator device , one or more coordinated lightweight checkpoints for a source dataset across two or more source storage systems that each store a local portion of the source dataset, wherein each coordinated lightweight checkpoint represents a coordinated point in time for the source dataset and is orchestrated by coordinating a pause in input/output, I/O, operations on the source storage systems to generate consistent local lightweight checkpoints ; wherein each coordinated lightweight checkpoint that is orchestrated for the source dataset across the two or more source storage systems is associated to respective local lightweight checkpoints that the two or more source storage systems replicate to two or more target storage systems ; and determining, by a target coordinator device , across the two or more target storage systems , that each target storage system has received a replicated local lightweight checkpoint corresponding to a same coordinated target checkpoint . orchestrating, by a source coordinator device , one or more coordinated lightweight checkpoints for a source dataset across two or more source storage systems that each store a local portion of the source dataset, wherein each coordinated lightweight checkpoint represents a coordinated point in time for the source dataset and is orchestrated by coordinating a pause in input/output, I/O, operations on the source storage systems to generate consistent local lightweight checkpoints ; wherein each coordinated lightweight checkpoint that is orchestrated for the source dataset across the two or more source storage systems is associated to respective local lightweight checkpoints that the two or more source storage systems replicate to two or more target storage systems ; and determining, by a target coordinator device , across the two or more target storage systems , that each target storage system has received a replicated local lightweight checkpoint corresponding to a same coordinated target checkpoint .
An information processing apparatus comprising: a file generation unit configured to generate a file including speech waveform data and vibration waveform data, wherein the file generation unit is configured to cut out speech waveform data in a to-be-synthesized band from first speech data to acquire speech waveform data in a band different from the to-be-synthesized band, synthesize vibration waveform data extracted in a synthesizing band from vibration data with the speech waveform data in the band different from the to-be-synthesized band to generate second speech data, and encode the second speech data to generate the file. a file generation unit configured to generate a file including speech waveform data and vibration waveform data, wherein the file generation unit is configured to cut out speech waveform data in a to-be-synthesized band from first speech data to acquire speech waveform data in a band different from the to-be-synthesized band, synthesize vibration waveform data extracted in a synthesizing band from vibration data with the speech waveform data in the band different from the to-be-synthesized band to generate second speech data, and encode the second speech data to generate the file.
A fuel nozzle receiving assembly comprising: a base having a nozzle channel formed therethrough; an outer wall connected to the base , wherein an internal chamber is defined between an internal surface of the base and an internal surface of the outer wall ; a seal member secured to the base and extending around at least a portion of the nozzle channel , wherein the seal member is configured to sealingly engage a fuel nozzle that passes into and through the nozzle channel ; and a protective support positioned proximate to the nozzle channel , wherein the protective support is configured to support the fuel nozzle as it passes into and through the nozzle channel and to protect the seal member from damage, wherein the seal member is disposed on an outer surface of the base , and the protective support is disposed on the internal surface of the base . a base having a nozzle channel formed therethrough; an outer wall connected to the base , wherein an internal chamber is defined between an internal surface of the base and an internal surface of the outer wall ; a seal member secured to the base and extending around at least a portion of the nozzle channel , wherein the seal member is configured to sealingly engage a fuel nozzle that passes into and through the nozzle channel ; and a protective support positioned proximate to the nozzle channel , wherein the protective support is configured to support the fuel nozzle as it passes into and through the nozzle channel and to protect the seal member from damage, wherein the seal member is disposed on an outer surface of the base , and the protective support is disposed on the internal surface of the base .
An electronic circuit configured to drive a plurality of light emitting diode (LED) channels coupled to a common voltage node , each LED channel in the plurality of LED channels including a series-connected string of LEDs (16a-n), the electronic circuit comprising: control circuitry for controlling a DC-DC converter to generate a regulated voltage on the common voltage node, the control circuitry comprising: a duty cycle control unit to control a duty cycle of the DC-DC converter , the duty cycle control unit being responsive to a duty cycle control signal (Vcomp) at a control input thereof and an enable signal at an enable input thereof, wherein the duty cycle control signal is indicative of a duty cycle to be used by the duty cycle control unit to set the duty cycle of the DC-DC converter during an "on" portion of a dimming duty cycle of a dominant LED channel; and a control unit coupled to the enable input of the duty cycle control unit and configured to maintain an output voltage of the DC-DC converter within a range defined by thresholds (Vth -, Vth +) as required by the dominant LED channel during an "off" portion of a dimming duty cycle of a dominant LED channel of the plurality of LED channels by alternately enabling and disabling the duty cycle control unit based, at least in part, on feedback from the DC-DC converter output, wherein the dominant LED channel of the plurality of LED channels is a channel that requires a highest voltage on the common voltage node. a duty cycle control unit to control a duty cycle of the DC-DC converter , the duty cycle control unit being responsive to a duty cycle control signal (Vcomp) at a control input thereof and an enable signal at an enable input thereof, wherein the duty cycle control signal is indicative of a duty cycle to be used by the duty cycle control unit to set the duty cycle of the DC-DC converter during an "on" portion of a dimming duty cycle of a dominant LED channel; and a control unit coupled to the enable input of the duty cycle control unit and configured to maintain an output voltage of the DC-DC converter within a range defined by thresholds (Vth -, Vth +) as required by the dominant LED channel during an "off" portion of a dimming duty cycle of a dominant LED channel of the plurality of LED channels by alternately enabling and disabling the duty cycle control unit based, at least in part, on feedback from the DC-DC converter output, wherein the dominant LED channel of the plurality of LED channels is a channel that requires a highest voltage on the common voltage node.
A solid composition comprising: a) from 15 to 90 wt. %, based on the total weight of the solid composition, free acid equivalent of aminopolycarboxylate; and b) from 1 to 25 wt. %, based on the total weight of the solid composition, free acid equivalent of inorganic acid; and c) from 2 to 30 wt. %, based on the total weight of the solid composition, of water; and wherein the pH of a solution made by dissolving the solid in water at 1 wt. % is at least 5.0 as measured at 25 degrees Celsius; and wherein the pH of a solution made by dissolving the solid in water in a 1:1: weight ratio is at most 10 as measured at 25 degrees Celsius, wherein at least 10 wt. % of the ingredient a), based on the total weight of the ingredient a) is non-crystalline; and wherein at least 10 wt. % of ingredient b), based on the total weight of the ingredient b) is non-crystalline. a) from 15 to 90 wt. %, based on the total weight of the solid composition, free acid equivalent of aminopolycarboxylate; and b) from 1 to 25 wt. %, based on the total weight of the solid composition, free acid equivalent of inorganic acid; and c) from 2 to 30 wt. %, based on the total weight of the solid composition, of water; and wherein the pH of a solution made by dissolving the solid in water in a 1:1: weight ratio is at most 10 as measured at 25 degrees Celsius, wherein at least 10 wt. % of the ingredient a), based on the total weight of the ingredient a) is non-crystalline; and wherein at least 10 wt. % of ingredient b), based on the total weight of the ingredient b) is non-crystalline.
A header for an agricultural farm implement comprising: a rigid frame ; a cutter bar assembly mounted to the header adjacent the rigid frame; a knife assembly operatively connected to the cutter bar assembly, the knife assembly including a knife arm ; a floor assembly including a floor extending rearwardly from the cutter bar assembly; and a protective encapsulation covering the knife arm extending forwardly of the floor , characterized by a cover extending from the floor and covering the rigid frame. a rigid frame ; a cutter bar assembly mounted to the header adjacent the rigid frame; a knife assembly operatively connected to the cutter bar assembly, the knife assembly including a knife arm ; a floor assembly including a floor extending rearwardly from the cutter bar assembly; and a protective encapsulation covering the knife arm extending forwardly of the floor , characterized by a cover extending from the floor and covering the rigid frame.
An anti-tampering assembly for the transportation and storage of a package , the anti-tampering assembly being configured to be associated with said package , the anti-tampering assembly comprising: - a tampering detection unit comprising a RFID passive tag and a tampering track of a conductive material configured to be connected to said RFID tag upon dispatching said package so as to inhibit the operation of the RFID tag , wherein the tampering track is configured to be interrupted in case of tampering of said package ; - an actuating unit configured to detect said interruption of said tampering track in case of tampering of said package and, upon said detection, actuate an alarm unit ; and - the alarm unit comprising a radio module configured to, upon actuation of the alarm unit, transmit an alarm message over a long range wireless communication network. - a tampering detection unit comprising a RFID passive tag and a tampering track of a conductive material configured to be connected to said RFID tag upon dispatching said package so as to inhibit the operation of the RFID tag , wherein the tampering track is configured to be interrupted in case of tampering of said package ; - an actuating unit configured to detect said interruption of said tampering track in case of tampering of said package and, upon said detection, actuate an alarm unit ; and - the alarm unit comprising a radio module configured to, upon actuation of the alarm unit, transmit an alarm message over a long range wireless communication network.
A homogeneous process for hydrodehalogenating a halo-substituted C 3 -C 20 heteroaryl starting material to form a non-halogenated C 3 -C 20 heteroaryl product and/or a halo-substituted C 3 -C 20 heteroaryl product, wherein the halo-substituted C 3 -C 20 heteroaryl starting material is a halo-substituted C 3 -C 20 nitrogen-containing heteroaryl starting material, the halo-substituted C 3 -C 20 heteroaryl product is a halo-substituted C 3 -C 20 nitrogen-containing heteroaryl product, and wherein the halo-substituted C 3 -C 20 heteroaryl product has at least one less halogen substituent than the halo-substituted C 3 -C 20 heteroaryl starting material, the process comprising the step of hydrogenating the halo-substituted C 3 -C 20 heteroaryl starting material in the presence of a rhodium or ruthenium complex, molecular hydrogen, a base and a solvent, wherein the process is carried out in a monophasic solvent system and wherein the base is present in a molar excess of between 0.1 to 1.0 molar equivalents over the amount required for the stoichiometric reaction.
A meta-material comprising: a deformable or reconfigurable structure ; and a set of activation elements , where each activation element a) couples to the deformable structure at an attached portion of the activation element , b) includes a rigid component and an electrode that participates in an activation mechanism, wherein the activation mechanism is electrostatic clamping, and c) is configured to change between a first activation state and a second activation state, wherein the meta-material includes a first value for a mechanical property when at least one of the activation elements is in the first activation state and the meta-material includes a second value for the mechanical property when the at least one activation element has been activated to the second activation state, characterized in that the electrode is on a free portion of the activation element that is unattached to the deformable structure in the first activation state and temporarily attached to the attached portion of an adjacent activation element in the second activation state. a deformable or reconfigurable structure ; and a set of activation elements , where each activation element a) couples to the deformable structure at an attached portion of the activation element , b) includes a rigid component and an electrode that participates in an activation mechanism, wherein the activation mechanism is electrostatic clamping, and c) is configured to change between a first activation state and a second activation state,
A sail system to be mounted on a boat, the sail system containing: - a telescopic mast containing at least two mast sections that can be slid together and apart, wherein the telescopic mast contains a drive system adapted to slide the mast sections together and apart, - at least two yards , with sails between the two yards , mounted parallel to one another on the mast sections such that, when the mast sections are slid apart, the distance between the two yards increases, characterised in that at least one of the two yards contains a furling system consisting of several intercoupled furling cylinders , each having a straight axis of rotation around which the sails can be furled, with a different sail on each furling cylinder, wherein the furling cylinders are arranged such that a projection of the assembly of intercoupled furling cylinders in a plane perpendicular to the mast is convex and wherein the furling system contains a tensioning system for tensioning the sails between the two yards. - a telescopic mast containing at least two mast sections that can be slid together and apart, wherein the telescopic mast contains a drive system adapted to slide the mast sections together and apart, - at least two yards , with sails between the two yards , mounted parallel to one another on the mast sections such that, when the mast sections are slid apart, the distance between the two yards increases, characterised in that at least one of the two yards contains a furling system consisting of several intercoupled furling cylinders , each having a straight axis of rotation around which the sails can be furled, with a different sail on each furling cylinder, wherein the furling cylinders are arranged such that a projection of the assembly of intercoupled furling cylinders in a plane perpendicular to the mast is convex and wherein the furling system contains a tensioning system for tensioning the sails between the two yards.
A sub-assembly of external parts for a watch or for a piece of jewellery, including, coaxially with a first component and a second component compressing together a sealing and friction joint , and interposed therebetween, a bolt securing them together by axially blocking said first component , and a lower surface of which lies, in the assembled position, in the vicinity of an upper surface of said second component , characterised in that said bolt includes a lower relief protruding axially from said lower surface towards said second component , arranged to either complementarily cooperate with an oblong groove which is partially of revolution that said upper surface includes, and interrupted by a stopper limiting the angular travel between said second component and said bolt within a turn, or else to constitute an angular stopper to an upper relief protruding from said on upper face of said second component and extending axially towards said bolt .
A circular loom for manufacturing doup fabric (F) provided with a pularity of heald assemblies, characterized in that said assembly comprises a pair of partial healds, namely partial heald-A and partial heald-B of which at least one partial heald is engaged after each shedding motion, a shedding cam assembly and a swing control cam assembly , said shedding cam assembly consisting of a shedding cam roller and a shedding cam , said swing control assembly consisting of a swing control cam roller and a swing control cam , said swing control cam pushing the swing control cam roller against a torsion spring mounted with a swivel bush leading to swinging motion of a swivel arm that extends below each inner partial heald-A , said partial heald-A consisting of an vertical movement facilitator and an in-plane lateral movement facilitator that facilitates rotation around a pivot , wherein said two partial healds are formed from slit belt strands of flexible material, whereby the partial healds are connected using a belt in a continuous belt form, and wherein said pair of partial heads engage with each other in a comb-like arrangement of guide means provided on each of the partial healds , said guide means having a thread eye , wherein said at least one of the thread eye is provided with a replaceable insert and that said swivel bush is made from metallic material.
A backlight unit, comprising: a light source unit including a point light source; and a light guide plate disposed on a path of light emitted from the light source unit , wherein a plurality of split patterns (SP1 to SPk) is defined in the light guide plate , wherein the plurality of split patterns (SP1 to SPk) is configured to transmit a part of the light emitted from the light source unit and to reflect a remaining part thereof, and the plurality of split patterns (SP1 to SPk) is concentrically arranged on the light guide plate and around the light source unit wherein each of the plurality of split patterns (SP1 to SPk) includes a light splitting portion (SP1a, SP2a, SP3a) having an incident surface on which the light emitted from the light source unit is incident, characterized in that each of the plurality of split patterns includes a respective coating player (SP1d, SP2d, SP3d), Peach coating layer includes a metal material and each coating layer is disposed to surround a respective light splitting portion of each of the plurality of split patterns. a light source unit including a point light source; and a light guide plate disposed on a path of light emitted from the light source unit , wherein a plurality of split patterns (SP1 to SPk) is defined in the light guide plate , wherein the plurality of split patterns (SP1 to SPk) is configured to transmit a part of the light emitted from the light source unit and to reflect a remaining part thereof, and the plurality of split patterns (SP1 to SPk) is concentrically arranged on the light guide plate and around the light source unit wherein each of the plurality of split patterns (SP1 to SPk) includes a light splitting portion (SP1a, SP2a, SP3a) having an incident surface on which the light emitted from the light source unit is incident, characterized in that each of the plurality of split patterns includes a respective coating player (SP1d, SP2d, SP3d), Peach coating layer includes a metal material and each coating layer is disposed to surround a respective light splitting portion of each of the plurality of split patterns.
A brake rotor assembly , comprising: a structural part having a receiving surface aligned perpendicularly to an axis of rotation of the structural part; and a friction surface part having a contact surface , the friction surface part fixably attached to the receiving surface of the structural part such that the contact surface faces away from the receiving surface of the structural surface to form at least part of an annular braking surface arranged concentrically around the axis of rotation, wherein the contact surface is configured to interact with a friction material of a brake pad to slow rotation of the brake rotor assembly and a vehicle axle to which the brake rotor assembly is rotationally fixed, the structural part being formed of at least one bulk material selected from a ceramic, a metal matrix, a composite material, cast iron, and carbon fiber, and characterized in that the friction surface part is formed of stainless steel and the contact surface of the friction surface part comprises a wear and corrosion resistant coating . a structural part having a receiving surface aligned perpendicularly to an axis of rotation of the structural part; and a friction surface part having a contact surface , the friction surface part fixably attached to the receiving surface of the structural part such that the contact surface faces away from the receiving surface of the structural surface to form at least part of an annular braking surface arranged concentrically around the axis of rotation, wherein the contact surface is configured to interact with a friction material of a brake pad to slow rotation of the brake rotor assembly and a vehicle axle to which the brake rotor assembly is rotationally fixed, the structural part being formed of at least one bulk material selected from a ceramic, a metal matrix, a composite material, cast iron, and carbon fiber, and characterized in that the friction surface part is formed of stainless steel and the contact surface of the friction surface part comprises a wear and corrosion resistant coating .