mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: input nodes (111 0 , 111 1 , 111 2 , 111 3 , 112 0 , 112 1 , 112 2 , 112 3 , 212 0 , 212 1 , 212 2 , 212 3 ) to receive input signals (IN1, IN2, IN1 0 , IN1 1 , IN1 2 , IN1 3 , IN2 0 , IN2 1 , IN2 2 , IN2 3 ); output nodes to provide output signals (OUT1 0 , OUT1 1 , OUT1 2 , OUT1 3 , OUT2 0 , OUT2 1 , OUT2 2 , and OUT2 3 ); a first stage including a first pair of input transistors , the first pair of input transistors including gates coupled to the input nodes (111 0 , 111 1 , 111 2 , 111 3 , 112 0 , 112 1 , 112 2 , 112 3 , 212 0 , 212 1 , 212 2 , 212 3 ); a second stage including a second pair of input transistors , the second pair of input transistors including gates coupled to the input nodes (111 0 , 111 1 , 111 2 , 111 3 , 112 0 , 112 1 , 112 2 , 112 3 , 212 0 , 212 1 , 212 2 , 212 3 ); and a third stage including inverters coupled to the output nodes, the inverters coupled to the first and second stages at same nodes to switch the output signals (OUT1 0 , OUT1 1 , OUT1 2 , OUT1 3 , OUT2 0 , OUT2 1 , OUT2 2 , and OUT2 3 ) between different voltages based on the input signals (IN1, IN2, IN1 0 , IN1 1 , IN1 2 , IN1 3 , IN2 0 , IN2 1 , IN2 2 , IN2 3 ), wherein the second stage is arranged to receive a signal to deactivate the second stage during operation of the first and second stages . input nodes (111 0 , 111 1 , 111 2 , 111 3 , 112 0 , 112 1 , 112 2 , 112 3 , 212 0 , 212 1 , 212 2 , 212 3 ) to receive input signals (IN1, IN2, IN1 0 , IN1 1 , IN1 2 , IN1 3 , IN2 0 , IN2 1 , IN2 2 , IN2 3 ); output nodes to provide output signals (OUT1 0 , OUT1 1 , OUT1 2 , OUT1 3 , OUT2 0 , OUT2 1 , OUT2 2 , and OUT2 3 ); a first stage including a first pair of input transistors , the first pair of input transistors including gates coupled to the input nodes (111 0 , 111 1 , 111 2 , 111 3 , 112 0 , 112 1 , 112 2 , 112 3 , 212 0 , 212 1 , 212 2 , 212 3 ); a second stage including a second pair of input transistors , the second pair of input transistors including gates coupled to the input nodes (111 0 , 111 1 , 111 2 , 111 3 , 112 0 , 112 1 , 112 2 , 112 3 , 212 0 , 212 1 , 212 2 , 212 3 ); and a third stage including inverters coupled to the output nodes, the inverters coupled to the first and second stages at same nodes to switch the output signals (OUT1 0 , OUT1 1 , OUT1 2 , OUT1 3 , OUT2 0 , OUT2 1 , OUT2 2 , and OUT2 3 ) between different voltages based on the input signals (IN1, IN2, IN1 0 , IN1 1 , IN1 2 , IN1 3 , IN2 0 , IN2 1 , IN2 2 , IN2 3 ), wherein the second stage is arranged to receive a signal to deactivate the second stage during operation of the first and second stages .
A method of forming a protective coating on a chromium alloy interconnect for an electrochemical device stack, comprising: using a wet coating process to deposit a powder on the chromium alloy interconnect, the powder comprising perovskite metal oxide powder; and laser sintering the powder to form the protective coating on the chromium alloy interconnect. using a wet coating process to deposit a powder on the chromium alloy interconnect, the powder comprising perovskite metal oxide powder; and laser sintering the powder to form the protective coating on the chromium alloy interconnect.
A smart crank system for an e-bike, the e-bike including a crank and an electric motor connected to an e-bike controller , the e-bike controller including a throttle connector , the smart crank system comprising: a strain gauge disposed on the crank ; a control board coupled to the strain gauge ; and a plurality of slip rings disposed about the crank , characterized in that the control board is disposed on the crank and includes a motion sensor, a digital motion processor and a micro controller, the plurality of slip rings are disposed about the crank to provide for both a power connection and a control signal connection to the control board without interfering with rotation of the crank , wherein the control board is coupled to the e-bike controller via at least one of the slip rings and the throttle connector of the e-bike controller , and wherein the control board is configured to transmit to the e-bike controller an output in the form of a throttle magnitude value for the e-bike controller . a strain gauge disposed on the crank ; a control board coupled to the strain gauge ; and a plurality of slip rings disposed about the crank , characterized in that the control board is disposed on the crank and includes a motion sensor, a digital motion processor and a micro controller, the plurality of slip rings are disposed about the crank to provide for both a power connection and a control signal connection to the control board without interfering with rotation of the crank , wherein the control board is coupled to the e-bike controller via at least one of the slip rings and the throttle connector of the e-bike controller , and wherein the control board is configured to transmit to the e-bike controller an output in the form of a throttle magnitude value for the e-bike controller .
A polyolefin-polystyrene multi-block copolymer comprising a repeating unit represented by Formula 1 below: wherein, in Formula 1, Ar is a substituted or unsubstituted phenyl; n is 0 or has an average value of 10 to 1,000; m has an average value of 10 to 1,000; A is a substituted or unsubstituted meta- or para-phenylene group having 6 to 20 carbon atoms; R is hydrogen, a methyl group, an ethyl group, a butyl group or a hexyl group; a has an average value of 10 to 10,000; * is each independently the end of the repeating unit or a site connected with a Z moiety by covalent bonding; and Z is a binding site derived from an anionic polymerization initiator and connected with a silicon atom-containing alkyl group having 1 to 20 carbon atoms, a silicon atom-containing arylalkyl group having 7 to 20 carbon atoms or the * by covalent bonding.
Holding part for fastening at least one visible profile , more particularly a terrace profile, to a substructure , having a profile which is formed from a metal sheet, is open and hat-shaped in cross section and has two limbs (8.1, 8.2) connected to one another by a web , which are adjoined by two flanges (9.1, 9.2), having at least one tongue-shaped section formed from the web by cutting and shape-bending, which section projects from the web and is designed to engage in a groove (3.1, 4.1) on one side (3.2, 4.2) of the visible profile , and having at least one mounting opening (13.1, 13.2) provided on a first flange (9.1, 9.2) for fastening means for mounting the holding part on the substructure , characterized in that the holding part has at least one mounting opening (13.1, 13.2) in each case on the first and second flange (9.1, 9.2), and in that the resiliently designed tongue-shaped section extends from its tongue base (10.1, 11.1) to its free tongue end (10.2, 11.2) in the longitudinal direction of the profile .
A method of operating a computing system to generate a three-dimensional reconstruction of a surface in a scene, wherein the computing system represents the scene by a plurality of bricks, each brick comprising a plurality of voxels, the method comprising: capturing a depth image from a depth sensor worn by a user, the depth image comprising a plurality of pixels, each pixel indicating a distance to a region adjacent the surface in the scene; culling the plurality of bricks by eliminating bricks outside a field of view of the depth sensor to generate a reduced plurality of bricks; conducting a first acceptance test for each of the reduced plurality of bricks, wherein the first acceptance test comprises accepting said brick for further processing based at least in part on determining a pixel of the plurality of pixels intersects said brick; conducting a second acceptance test for each of the reduced plurality of bricks not accepted by the first acceptance test , the second acceptance test comprising accepting a brick of the reduced plurality of bricks not accepted by the first acceptance test that has a position in front of a solid or holey background as indicated by pixels in the depth image for further processing; and generating the 3D reconstruction based on accepted bricks that are accepted by the first acceptance test or the second acceptance test. capturing a depth image from a depth sensor worn by a user, the depth image comprising a plurality of pixels, each pixel indicating a distance to a region adjacent the surface in the scene; culling the plurality of bricks by eliminating bricks outside a field of view of the depth sensor to generate a reduced plurality of bricks; conducting a first acceptance test for each of the reduced plurality of bricks, wherein the first acceptance test comprises accepting said brick for further processing based at least in part on determining a pixel of the plurality of pixels intersects said brick; conducting a second acceptance test for each of the reduced plurality of bricks not accepted by the first acceptance test , the second acceptance test comprising accepting a brick of the reduced plurality of bricks not accepted by the first acceptance test that has a position in front of a solid or holey background as indicated by pixels in the depth image for further processing; and generating the 3D reconstruction based on accepted bricks that are accepted by the first acceptance test or the second acceptance test.
A communicator (30A; 30B) comprising: a connector configured to be electrically coupled to a transmission side electric working machine ; a communication circuit configured to perform wireless communication; and a communication controller configured to, in response to the connector being electrically coupled to the transmission side electric working machine , set an operating mode of the communication controller to an operation-transmission mode, the communicator being characterized in that the communication controller is further configured to cyclically transmit operational information via the communication circuit without specifying a recipient in response to the operating mode being set to the operation-transmission mode, the operational information indicating an operational state of the transmission side electric working machine . a connector configured to be electrically coupled to a transmission side electric working machine ; a communication circuit configured to perform wireless communication; and a communication controller configured to, in response to the connector being electrically coupled to the transmission side electric working machine , set an operating mode of the communication controller to an operation-transmission mode, the communicator being characterized in that the communication controller is further configured to cyclically transmit operational information via the communication circuit without specifying a recipient in response to the operating mode being set to the operation-transmission mode, the operational information indicating an operational state of the transmission side electric working machine .
A gas turbine engine , the gas turbine engine comprising: a fan case ; a stator disposed within the fan case comprising a first stator vane and a second stator vane ; and a wear liner body disposed between the fan case and the stator , characterised in that the gas turbine engine further comprises an anti-rotation feature affixed to the wear liner body and disposed between the first stator vane and the second stator vane , wherein the anti-rotation feature includes a first mating surface to engage an edge of the first stator vane and a second mating surface to engage an edge of the second stator vane to prevent rotation of the wear liner body . a fan case ; a stator disposed within the fan case comprising a first stator vane and a second stator vane ; and a wear liner body disposed between the fan case and the stator , characterised in that the gas turbine engine further comprises an anti-rotation feature affixed to the wear liner body and disposed between the first stator vane and the second stator vane , wherein the anti-rotation feature includes a first mating surface to engage an edge of the first stator vane and a second mating surface to engage an edge of the second stator vane to prevent rotation of the wear liner body .
Wind turbine having a foundation , a tower with a tower wall , at least one component to be cooled within the tower wall , a first cooling unit within the tower wall for cooling the components to be cooled, a second cooling unit , which is provided at least partially outside the tower wall , at least one cooling duct or a cooling line between the first and second cooling unit , wherein the second cooling unit has a heat exchanger which is coupled to the cooling duct or the cooling line , and wherein the second cooling unit has a first end and a second end , wherein the first end is provided outside the tower wall and the second end is provided at least partially inside the tower wall , characterized in that the wind turbine comprises a medium-voltage switchgear assembly within the tower wall , and at least one fault arc duct between the medium-voltage switchgear assembly and the second cooling unit , and in that the second cooling unit has a pressure-release unit which serves to guide a pressure wave which is formed inside the medium-voltage switchgear assembly and is transmitted via the fault arc duct to the outside.
A computerized method, comprising: recognizing a current condition of a writing-pad tool displayed on a touchscreen interface based on whether text is provided within a content-entry area generated by the writing-pad tool; ascertaining whether a focus of a cursor tool resides within the content-entry area; ascertaining which actions are available for invocation at the writing-pad tool based on the recognized current condition and based on the ascertainment of the focus of the cursor; identifying teaching animations mapped to the actions available for invocation, said actions including managing actions if no text is provided within the content-entry area, and including editing actions if text is provided within the content-entry area, wherein the managing actions comprise at least one of the commands insert words, open file, or close tool, and wherein the editing actions comprise at least one of the commands delete words, join words, split words, correct words, or add space; temporarily storing the identified teaching animations in an active state, wherein each teaching animation comprises a video of a model hand and/or pen properly executing a manual gesture for invoking the corresponding action; presenting said identified teaching animations as selectable controls on a user interface display; receiving a user-initiated input directed at one of the selectable controls of the teaching animations; and launching the teaching animation that corresponds to the user- initiated input. recognizing a current condition of a writing-pad tool displayed on a touchscreen interface based on whether text is provided within a content-entry area generated by the writing-pad tool; ascertaining whether a focus of a cursor tool resides within the content-entry area; ascertaining which actions are available for invocation at the writing-pad tool based on the recognized current condition and based on the ascertainment of the focus of the cursor; identifying teaching animations mapped to the actions available for invocation, said actions including managing actions if no text is provided within the content-entry area, and including editing actions if text is provided within the content-entry area, wherein the managing actions comprise at least one of the commands insert words, open file, or close tool, and wherein the editing actions comprise at least one of the commands delete words, join words, split words, correct words, or add space; temporarily storing the identified teaching animations in an active state, wherein each teaching animation comprises a video of a model hand and/or pen properly executing a manual gesture for invoking the corresponding action; presenting said identified teaching animations as selectable controls on a user interface display; receiving a user-initiated input directed at one of the selectable controls of the teaching animations; and launching the teaching animation that corresponds to the user- initiated input.
Caliper body for a disc brake, wherein said caliper body is suitable for straddling an associable disc brake having a first braking surface , or a vehicle-side braking surface , and a second braking surface , or wheel-side braking surface , opposite said first braking surface ; and wherein an axial direction (A-A) coinciding or parallel with the rotation axis of the disc is defined, a radial direction (R-R) orthogonal with said axial direction (A-A) and a tangential direction (T-T) orthogonal both to said axial direction (A-A) and to said radial direction (R-R) are defined; and wherein said caliper body comprising a first elongated portion , or vehicle-side elongated portion , at least partially suitable for facing said first braking surface and a second elongated portion , or wheel-side elongated portion , opposite said first elongated portion and at least partially suitable for facing said second braking surface ; and wherein at least one part of said first elongated portion is constituted by at least one first module and at least one part of said second elongated portion is constituted by at least one second module , and wherein said first module and said second module are obtained by means of at least one non-additive manufacturing technique, and wherein said first module comprises at least one first positioning surface and wherein said second module comprises at least one second positioning surface , and wherein said first positioning surface and said second positioning surface are suitable for being arranged, when facing, substantially parallel to each other, characterised in that said caliper body comprises at least one junction element obtained by means of at least one additive manufacturing technique, and that said junction element connects said first module and said second module to each other to form a single piece, blocking the relative position of said first module and said second module with said first and second positioning surfaces substantially parallel to each other.
A wheel nut indicator including an attachment section for fitting to a wheel nut/lug nut of a wheel and a pointer section extending radially away from the attachment section , the wheel nut indicator being installable or fittable over the nut such that the pointer section is oriented in a chosen direction for providing a primary visual indication of any rotation of the wheel nut, characterized in that the pointer also forms a moveable secondary indication means , the pointer being moveable relative to the attachment section by rotation on an axis which extends radially away from the attachment section , between a first position for indicating a first status in which the wheel nut requires re-torquing, and a second position for indicating a second status in which a re-torquing operation has been completed.
A titanium electrode for the impedance measurement in aqueous biological media, containing on a substrate : - a Ti carrier layer , consisting of elemental titanium (Ti), - one or several titanium-rich titanium nitride (TiN x ) intermediate layers , consisting of TiN x , with x smaller than 1 or x equal to 1, which rests on the Ti carrier layer, and - a titanium-poor titanium nitride (TiN y ) cover layer , consisting of TiN y with y greater than 1, which rests on the titanium-rich TiN x intermediate layer. - a Ti carrier layer , consisting of elemental titanium (Ti), - one or several titanium-rich titanium nitride (TiN x ) intermediate layers , consisting of TiN x , with x smaller than 1 or x equal to 1, which rests on the Ti carrier layer, and - a titanium-poor titanium nitride (TiN y ) cover layer , consisting of TiN y with y greater than 1, which rests on the titanium-rich TiN x intermediate layer.
A conveyor for can blanks, having a machine frame , on which at least one conveyor drum is supported so that it can rotate about an axis of rotation , wherein the conveyor drum is provided with a plurality of can holders which are supported on an external circumferential surface of the conveyor drum , wherein each can holder is linearly moveable parallel to the axis of rotation and the conveyor drum comprises at least one actuator system which is configured to impart a linear movement to at least one can holder , wherein the at least one actuator system is configured to provide the linear movement of the at least one can holder as a predefinable function of a rotational position of the conveyor drum in relation to the machine frame and wherein a continuously rotating conveyor chain with a plurality of deflection rollers is supported on the machine frame , characterised in that between the conveyor drum and the machine frame a sprocket for the conveyor chain is arranged coaxially to the conveyor drum which sprocket is able to rotate freely, wherein adjacent to the sprocket two deflection rollers are arranged, both of them are configured to deflect the conveyor chain in a tangential direction to the sprocket and wherein at least one of these deflection rollers is linearly moveable attached on the machine frame .
An apparatus, comprising: a load terminal ; a power source terminal ; and a current limiter (110; 210; 410) coupled to the load terminal and coupled to the power source terminal , wherein the current limiter (110; 210; 410) is configured to limit, as a fast-response current limiter, a current from the power source terminal to the load terminal using an electric field activated in response to a difference in voltage between the power source terminal and the load terminal ; characterized in that the apparatus further comprises a current limit circuit comprising: a switch (225; 425) having a state controlled by a control circuit (220; 420) in response to a voltage across the current limiter (110; 210; 410); and the control circuit (220; 420), wherein the current limit circuit is configured to function as a slow-response current limiter. a load terminal ; a power source terminal ; and a current limiter (110; 210; 410) coupled to the load terminal and coupled to the power source terminal , wherein the current limiter (110; 210; 410) is configured to limit, as a fast-response current limiter, a current from the power source terminal to the load terminal using an electric field activated in response to a difference in voltage between the power source terminal and the load terminal ; characterized in that the apparatus further comprises a current limit circuit comprising: a switch (225; 425) having a state controlled by a control circuit (220; 420) in response to a voltage across the current limiter (110; 210; 410); and the control circuit (220; 420), wherein the current limit circuit is configured to function as a slow-response current limiter. a switch (225; 425) having a state controlled by a control circuit (220; 420) in response to a voltage across the current limiter (110; 210; 410); and the control circuit (220; 420), wherein the current limit circuit is configured to function as a slow-response current limiter.
Canvas cover of a commercial vehicle (N), in particular a truck, trailer or semitrailer, having at least one side wall canvas and a rear wall , wherein at least one connecting means for fixing the side wall canvas is provided on the rear-facing side of the rear wall and wherein the back end of the side wall canvas is fixed to the rear-facing side of the rear wall on the at least one connecting means of the rear wall , characterised in that the rear wall has at least one swing door opening to the side and in that the at least one connecting means is provided on the rear-facing side of the swing door in the closed position of the swing door .