mhurhangee/patent-ind-claim-en huggingface dataset:
A protective cap (H3) for a sprinkler head (S1) comprising: an opening on an upper side thereof; a base provided on a lower side thereof; a drain hole at the base side of the protective cap (H3);, a seat portion on which a surface of the sprinkler head (S1) sits being provided inside the protective cap (H3) on the base side, wherein the seat portion is disposed on an opening side with respect to the drain hole , and an edge of the seat portion and an inner peripheral surface of the protective cap (H3) are spaced apart from each other, characterized in that a cylindrical portion extends from the base to the seat portion , and a gripping portion is formed so as to extend downwards from the seat portion . an opening on an upper side thereof; a base provided on a lower side thereof; a drain hole at the base side of the protective cap (H3);, a seat portion on which a surface of the sprinkler head (S1) sits being provided inside the protective cap (H3) on the base side, wherein the seat portion is disposed on an opening side with respect to the drain hole , and an edge of the seat portion and an inner peripheral surface of the protective cap (H3) are spaced apart from each other, characterized in that a cylindrical portion extends from the base to the seat portion , and a gripping portion is formed so as to extend downwards from the seat portion .
A method for controlling foam comprising: providing a food composition comprising a foam control agent and a foodstuff, the foam control agent comprising a composition as shown in Equation wherein R is methyl, ethyl, propyl, butyl, pentyl, hexyl, heptyl, octyl, nonyl, decyl, undecyl, dodecyl, tridecyl, or tetradecyl, and m is 1 to 14; processing the food composition. providing a food composition comprising a foam control agent and a foodstuff, the foam control agent comprising a composition as shown in Equation wherein R is methyl, ethyl, propyl, butyl, pentyl, hexyl, heptyl, octyl, nonyl, decyl, undecyl, dodecyl, tridecyl, or tetradecyl, and m is 1 to 14; processing the food composition.
A method of producing an amorphous silica material, comprising: preparing a batch comprising concrete, wherein the batch comprises at least one of a metal oxide comprising an iron oxide, a metal silicate, and a metal; melting the batch in a furnace to melt effluent; cooling the melt effluent to form amorphous silica particles, mass or product; and crushing the amorphous silica particles, mass or product to form glass particles. preparing a batch comprising concrete, wherein the batch comprises at least one of a metal oxide comprising an iron oxide, a metal silicate, and a metal; melting the batch in a furnace to melt effluent; cooling the melt effluent to form amorphous silica particles, mass or product; and crushing the amorphous silica particles, mass or product to form glass particles.
A printing device (100; 200; 310), comprising: a carriage (101; 201) configured to hold an integrated printhead (103; 203), including a pen body and a plurality of nozzles, in the printing device (100; 200; 310); a manifold latch (105; 205) configured to connect the integrated printhead (103; 203) and an ink tank connector when the manifold latch (105; 205) is in a closed position; and a controller (109; 209); characterized in that the controller is configured to: align the carriage (101; 201) within the printing device (100; 200; 310) in a pen present position, in which the integrated printhead (103; 203) is accessible by a user, or in a capped position, in which the integrated printhead (103; 203) is not accessible by a user, based on a determination as to whether the integrated printhead (103; 203) is functioning correctly and a determination as to whether the manifold latch (105; 205) is in the closed position or an open position. a carriage (101; 201) configured to hold an integrated printhead (103; 203), including a pen body and a plurality of nozzles, in the printing device (100; 200; 310); a manifold latch (105; 205) configured to connect the integrated printhead (103; 203) and an ink tank connector when the manifold latch (105; 205) is in a closed position; and a controller (109; 209); characterized in that the controller is configured to: align the carriage (101; 201) within the printing device (100; 200; 310) in a pen present position, in which the integrated printhead (103; 203) is accessible by a user, or in a capped position, in which the integrated printhead (103; 203) is not accessible by a user, based on a determination as to whether the integrated printhead (103; 203) is functioning correctly and a determination as to whether the manifold latch (105; 205) is in the closed position or an open position.
A dynamically deployable side-view camera mount , comprising: a support body having a proximal end that attaches to a motorized vehicle , and a distal end that connects to a side-view camera , and the support body is mounted such that when the support body is in a deployed position, the distal end is positioned away from the motorized vehicle, and an image scene captured by the side-view camera is from a rearward perspective with respect to a forward-moving direction of the motorized vehicle , the image scene spanning an angular range, and when the support body is in a retracted position, the distal end of the support body is positioned closer to the motorized vehicle than when the support body is in the deployed position, and the side-view camera is positioned to at least partially include the angular range captured by the side-view camera when the support body is in the deployed position, characterized in that the support body includes two support arms arranged in parallel and interconnected at respective ends thereof with support links attached at pivot points so the two support arms remain substantially in parallel when in the deployed position and when in the retracted position. a support body having a proximal end that attaches to a motorized vehicle , and a distal end that connects to a side-view camera , and the support body is mounted such that when the support body is in a deployed position, the distal end is positioned away from the motorized vehicle, and an image scene captured by the side-view camera is from a rearward perspective with respect to a forward-moving direction of the motorized vehicle , the image scene spanning an angular range, and when the support body is in a retracted position, the distal end of the support body is positioned closer to the motorized vehicle than when the support body is in the deployed position, and the side-view camera is positioned to at least partially include the angular range captured by the side-view camera when the support body is in the deployed position, characterized in that the support body includes two support arms arranged in parallel and interconnected at respective ends thereof with support links attached at pivot points so the two support arms remain substantially in parallel when in the deployed position and when in the retracted position.
A data transmitting method, being applied to a target bluetooth earphone included in a data transmitting system, the data transmitting system comprising a mobile terminal and a plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500), characterized by the mobile terminal and the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) being connected in sequence thereby forming a connection loop, wherein each of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) has two transmission paths for transmitting audio data to the mobile terminal along the connection loop in two directions, respectively, and wherein the target bluetooth earphone is one of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500), the method comprising: the target bluetooth earphone receiving (S110, S210) audio data; the target bluetooth earphone determining (S120, S220) a target device, wherein there are two devices adjacent to the target bluetooth earphone in the connection loop, the target device is one of the two devices, the target device is one of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) or the mobile terminal , and the target device is on the transmission path with the smaller number of bluetooth earphones; and the target bluetooth earphone transmitting (S130, S230) the audio data to the target device. the target bluetooth earphone receiving (S110, S210) audio data; the target bluetooth earphone determining (S120, S220) a target device, wherein there are two devices adjacent to the target bluetooth earphone in the connection loop, the target device is one of the two devices, the target device is one of the plurality of bluetooth earphones (A, B, C, D, a, b, c, d, e, 500) or the mobile terminal , and the target device is on the transmission path with the smaller number of bluetooth earphones; and the target bluetooth earphone transmitting (S130, S230) the audio data to the target device.
A system (700; 800) comprising: a processor (710; 870, 880) to automatically execute enclave initialization code within a host application at run time of the host application, wherein the enclave initialization code includes marshaling code to create a secure enclave separate from the host application, the marshaling code generated at build time of the host application; and a dynamic random access memory, DRAM, (715; 832, 834) including a dedicated DRAM portion to store the secure enclave. a processor (710; 870, 880) to automatically execute enclave initialization code within a host application at run time of the host application, wherein the enclave initialization code includes marshaling code to create a secure enclave separate from the host application, the marshaling code generated at build time of the host application; and a dynamic random access memory, DRAM, (715; 832, 834) including a dedicated DRAM portion to store the secure enclave.
A radical generator comprising: a supply tube for supplying a gas; a plasma-generating tube made of a dielectric material and having a center axis parallel to a gas flow direction, the plasma-generating tube being connected to the supply tube at a downstream end of the supply tube ; a coil disposed around an outer wall of the plasma-generating tube , for generating an inductively coupled plasma in the plasma-generating tube ; and a first electrode which is disposed around the outer wall of the plasma-generating tube and more proximal to the supply tube than the coil is, for generating an AC electric field radially to the center axis of the plasma generating tube , for generating a first capacitively coupled plasma in the plasma-generating tube and adding the first capacitively coupled plasma to the inductively coupled plasma, characterized in that the radical generator comprises: a second electrode which is disposed around the outer wall of the plasma-generating tube and more proximal to a downstream end of the plasma-generating tube than the coil is, for generating an AC electric field radially to the center axis of the plasma-generating tube , for generating a second capacitively coupled plasma in the plasma-generating tube and adding the second capacitively coupled plasma to the first capacitively coupled plasma and the inductively coupled plasma which are flowing downstream. a supply tube for supplying a gas; a plasma-generating tube made of a dielectric material and having a center axis parallel to a gas flow direction, the plasma-generating tube being connected to the supply tube at a downstream end of the supply tube ; a coil disposed around an outer wall of the plasma-generating tube , for generating an inductively coupled plasma in the plasma-generating tube ; and a first electrode which is disposed around the outer wall of the plasma-generating tube and more proximal to the supply tube than the coil is, for generating an AC electric field radially to the center axis of the plasma generating tube , for generating a first capacitively coupled plasma in the plasma-generating tube and adding the first capacitively coupled plasma to the inductively coupled plasma, characterized in that the radical generator comprises: a second electrode which is disposed around the outer wall of the plasma-generating tube and more proximal to a downstream end of the plasma-generating tube than the coil is, for generating an AC electric field radially to the center axis of the plasma-generating tube , for generating a second capacitively coupled plasma in the plasma-generating tube and adding the second capacitively coupled plasma to the first capacitively coupled plasma and the inductively coupled plasma which are flowing downstream.
A composition comprising a styrene-isobutylene block copolymer; and at least one ethylenically unsaturated monomer comprising one or more groups selected from (meth)acryl or vinyl ether, wherein the ethylenically unsaturated monomer is aromatic and has a refractive index of at least 1.50; and the composition comprises no greater than 30 wt.-% ethylenically unsaturated monomer. a styrene-isobutylene block copolymer; and at least one ethylenically unsaturated monomer comprising one or more groups selected from (meth)acryl or vinyl ether, wherein the ethylenically unsaturated monomer is aromatic and has a refractive index of at least 1.50; and the composition comprises no greater than 30 wt.-% ethylenically unsaturated monomer.
An electrical box for engaging through a cavity formed in a wall , said electrical box comprising: • a rear body that is centered on a central axis (A1) and that includes a side wall ; • at least one snap-fastener tab that comprises firstly a bendable strip that is attached to the rear body via an end edge and that is flexible so as to tilt between a deployed position and a retracted position towards the central axis (Al), and secondly a catch rim that is adapted to catch against the wall , that is carried by the bendable strip , and that is at a distance from said end edge that is substantially constant; and • at least one screw-fastener well that is adapted to receive the threaded shank of a fastener screw for fastening an accessory mechanism , and that is fastened to the snap-fastener tab ; said electrical box being characterized in that the end edge of the snap-fastener tab is attached to said side wall in such a manner that the snap-fastener tab is stationary in translation relative to said side wall so that when the fastener screw is tightened in the screw-fastener well , the snap-fastener tab does not move away from the remainder of the rear body . • a rear body that is centered on a central axis (A1) and that includes a side wall ; • at least one snap-fastener tab that comprises firstly a bendable strip that is attached to the rear body via an end edge and that is flexible so as to tilt between a deployed position and a retracted position towards the central axis (Al), and secondly a catch rim that is adapted to catch against the wall , that is carried by the bendable strip , and that is at a distance from said end edge that is substantially constant; and • at least one screw-fastener well that is adapted to receive the threaded shank of a fastener screw for fastening an accessory mechanism , and that is fastened to the snap-fastener tab ; said electrical box being characterized in that the end edge of the snap-fastener tab is attached to said side wall in such a manner that the snap-fastener tab is stationary in translation relative to said side wall so that when the fastener screw is tightened in the screw-fastener well , the snap-fastener tab does not move away from the remainder of the rear body .
A power transmission device for a vehicle, the power transmission device comprising: an input shaft configured to rotate about an axis of the input shaft together with a wheel of the vehicle; a driving gear arranged coaxially with the input shaft , and configured to rotate about the axis of the input shaft integrally with the input shaft ; a regenerative energy converting means connected to an output shaft ; a driven gear meshing with the driving gear , and configured to transmit a rotational force to the output shaft , so that it is possible to recover regenerative energy both when a rotational force is transmitted from a driving source to the wheel , and when a braking force is applied to the wheel ; a wheel bearing supporting the input shaft such that the input shaft is rotatable about the axis of the input shaft relative to the driven gear ; and a constant-velocity universal joint to which the input shaft is coupled, and which is configured to transmit a rotational force about an axis of the constant-velocity universal joint to the input shaft under a driving force of the driving source. an input shaft configured to rotate about an axis of the input shaft together with a wheel of the vehicle; a driving gear arranged coaxially with the input shaft , and configured to rotate about the axis of the input shaft integrally with the input shaft ; a regenerative energy converting means connected to an output shaft ; a driven gear meshing with the driving gear , and configured to transmit a rotational force to the output shaft , so that it is possible to recover regenerative energy both when a rotational force is transmitted from a driving source to the wheel , and when a braking force is applied to the wheel ; a wheel bearing supporting the input shaft such that the input shaft is rotatable about the axis of the input shaft relative to the driven gear ; and a constant-velocity universal joint to which the input shaft is coupled, and which is configured to transmit a rotational force about an axis of the constant-velocity universal joint to the input shaft under a driving force of the driving source.
A display device (DD) comprising: a first electrode (E1); a second electrode (E2) which is spaced apart from the first electrode (E1); a light-emitting element (ED, ED-1, ED-2) which is disposed directly on the first electrode (E1) and the second electrode (E2); a first pattern portion (PT1, PT1a) which is disposed on the first electrode (E1) and adjacent to a first area (AR1) in which the first electrode (E1) and the light-emitting element (ED, ED-1, ED-2) overlap each other in a plan view; a second pattern portion (PT2, PT2a) which is disposed on the second electrode (E2) and adjacent to a second area (AR2) in which the second electrode (E2) and the light-emitting element (ED, ED-1, ED-2) overlap each other in a plan view; a first connection electrode (CNE1) which covers the light-emitting element (ED) and the first pattern portion (PT1, PT1a) and is electrically connected to the light-emitting element (ED) and the first electrode (E1); and a second connection electrode (CNE2) which covers the light-emitting element (E2) and the second pattern portion (PT2, PT2a) and is electrically connected to the light-emitting element (ED, ED-1, ED-2) and the second electrode (E2). a first electrode (E1); a second electrode (E2) which is spaced apart from the first electrode (E1); a light-emitting element (ED, ED-1, ED-2) which is disposed directly on the first electrode (E1) and the second electrode (E2); a first pattern portion (PT1, PT1a) which is disposed on the first electrode (E1) and adjacent to a first area (AR1) in which the first electrode (E1) and the light-emitting element (ED, ED-1, ED-2) overlap each other in a plan view; a second pattern portion (PT2, PT2a) which is disposed on the second electrode (E2) and adjacent to a second area (AR2) in which the second electrode (E2) and the light-emitting element (ED, ED-1, ED-2) overlap each other in a plan view; a first connection electrode (CNE1) which covers the light-emitting element (ED) and the first pattern portion (PT1, PT1a) and is electrically connected to the light-emitting element (ED) and the first electrode (E1); and a second connection electrode (CNE2) which covers the light-emitting element (E2) and the second pattern portion (PT2, PT2a) and is electrically connected to the light-emitting element (ED, ED-1, ED-2) and the second electrode (E2).
A method comprising: generating an address m, 1 ≤ m ≤ N, N being the depth of a memoryless lookup table , from samples of a baseband input signal, u(n-k), of a communication system, wherein k is a counter corresponding to a plurality of taps of an equalizer ; retrieving from the memoryless lookup table an entry, F m (|u(n)-k|), in accordance with the address m for each tap of the plurality of taps of the equalizer ; multiplying the baseband input signal and the entry from the memoryless lookup table to generate a multiplied signal, x(n-k) = u(n-k) · F m (|u(n-k)|) for each tap of the plurality of taps of the equalizer ; pre-equalizing the multiplied signal by multiplying, for each tap of the plurality of taps of the equalizer , the multiplied signal, x(n-k), with an indexed coefficient from the equalizer corresponding to a magnitude of the baseband input signal, W k m (|u(n)|), to generate a pre-equalized signal for each tap of the plurality of taps of the equalizer ; summing the pre-equalized signal for each tap of the plurality of taps of the equalizer to generate an output signal, z n = ∑ k = 0 K − 1 W k m u n ⋅ x n − k ; and outputting the output signal, z(n), to a power amplifier . generating an address m, 1 ≤ m ≤ N, N being the depth of a memoryless lookup table , from samples of a baseband input signal, u(n-k), of a communication system, wherein k is a counter corresponding to a plurality of taps of an equalizer ; retrieving from the memoryless lookup table an entry, F m (|u(n)-k|), in accordance with the address m for each tap of the plurality of taps of the equalizer ; multiplying the baseband input signal and the entry from the memoryless lookup table to generate a multiplied signal, x(n-k) = u(n-k) · F m (|u(n-k)|) for each tap of the plurality of taps of the equalizer ; pre-equalizing the multiplied signal by multiplying, for each tap of the plurality of taps of the equalizer , the multiplied signal, x(n-k), with an indexed coefficient from the equalizer corresponding to a magnitude of the baseband input signal, W k m (|u(n)|), to generate a pre-equalized signal for each tap of the plurality of taps of the equalizer ; summing the pre-equalized signal for each tap of the plurality of taps of the equalizer to generate an output signal, z n = ∑ k = 0 K − 1 W k m u n ⋅ x n − k ; and outputting the output signal, z(n), to a power amplifier .
A rivastigmine-containing sustained-release pharmaceutical composition for a once-a-day regimen, the pharmaceutical composition comprising: a pH-dependent delayed-release formulation; and a matrix form of a pH-independent sustained-release formulation, wherein the pH-dependent delayed-release formulation is in a granule or pellet form and contains 25-90 wt% of rivastigmine in the total content of rivastigmine, and wherein the pH-independent sustained-release formulation comprises, inside the matrix form, the pH-dependent delayed-release formulation and 10-75 wt% of rivastigmine in the total content of rivastigmine, and wherein the pharmaceutical composition is in a tablet form.