mhurhangee/patent-ind-claim-en huggingface dataset:
An attachment structure of an electronic device comprising: a latching claw portion provided on a lower surface of a base of the electronic device; a latching rib of a support rail , the latching rib for being latched by the latching claw portion during a latching state; and an operation receiving portion for receiving a tool to release the latching state; wherein the operation receiving portion comprises an elastic arm elastically deformable by a push-down operation of the operation receiving portion in a direction towards the support rail ; wherein the operation receiving portion is configured to be exposed and visible from an upper surface edge of the base and no portion of the attachment structure resides directly above the exposed receiving portion; wherein the latching claw portion and the operation receiving portion are provided in a leading end of the elastic arm portion extending from the base ; wherein the latching state is releasable by the push-down operation of the operation receiving portion in the direction towards the support rail , wherein the latching claw portion moves downwards before deforming outwards during the push down operation. a latching claw portion provided on a lower surface of a base of the electronic device; a latching rib of a support rail , the latching rib for being latched by the latching claw portion during a latching state; and an operation receiving portion for receiving a tool to release the latching state; wherein the operation receiving portion comprises an elastic arm elastically deformable by a push-down operation of the operation receiving portion in a direction towards the support rail ; wherein the operation receiving portion is configured to be exposed and visible from an upper surface edge of the base and no portion of the attachment structure resides directly above the exposed receiving portion; wherein the latching claw portion and the operation receiving portion are provided in a leading end of the elastic arm portion extending from the base ; wherein the latching state is releasable by the push-down operation of the operation receiving portion in the direction towards the support rail , wherein the latching claw portion moves downwards before deforming outwards during the push down operation.
A compound having the structure of Formula (I): wherein: R 1 is -N(R 3 )(R 5 ) or -NH(R 4 ); each R 2 is independently selected from halogen, C 1-6 alkyl, -CN, C 1-6 haloalkyl, and -OR 6 ; R 3 is -CH 2 CO 2 H, -CH 2 CH 2 CO 2 H, or -CH(CH 3 )CO 2 H; R 4 is -(CH 2 ) m -CO 2 H; R 5 is H or C 1-3 alkyl; each R 6 is independently selected from H, C 1-6 alkyl, and C 1-6 haloalkyl; n is 0, 1, 2, 3, or 4; and m is 3; or a pharmaceutically acceptable salt thereof. R 1 is -N(R 3 )(R 5 ) or -NH(R 4 ); each R 2 is independently selected from halogen, C 1-6 alkyl, -CN, C 1-6 haloalkyl, and -OR 6 ; R 3 is -CH 2 CO 2 H, -CH 2 CH 2 CO 2 H, or -CH(CH 3 )CO 2 H; R 4 is -(CH 2 ) m -CO 2 H; R 5 is H or C 1-3 alkyl; each R 6 is independently selected from H, C 1-6 alkyl, and C 1-6 haloalkyl; n is 0, 1, 2, 3, or 4; and m is 3;
A method comprising: retrieving distance data indicating predicted distances of a heating surface of a heater of an Automated Fiber Placement machine to a surface of a laminate being laid-up by the Automated Fiber Placement machine, for each of multiple locations along a path that the heating surface will travel over the laminate surface during layup ; directing the Automated Fiber Placement machine to lay up the laminate in accordance with a Numerical Control program ; identifying a current location of the heater in the path during layup ; determining a speed at which the heater of the Automated Fiber Placement machine is moving at the current location ; the method being characterized by correlating the current location of the heater with one of the predicted distances ; and adjusting an amount of power for the heater during layup at the current location based on the predicted distance that was correlated with the current location, and the speed at the current location . retrieving distance data indicating predicted distances of a heating surface of a heater of an Automated Fiber Placement machine to a surface of a laminate being laid-up by the Automated Fiber Placement machine, for each of multiple locations along a path that the heating surface will travel over the laminate surface during layup ; directing the Automated Fiber Placement machine to lay up the laminate in accordance with a Numerical Control program ; identifying a current location of the heater in the path during layup ; determining a speed at which the heater of the Automated Fiber Placement machine is moving at the current location ; the method being characterized by correlating the current location of the heater with one of the predicted distances ; and adjusting an amount of power for the heater during layup at the current location based on the predicted distance that was correlated with the current location, and the speed at the current location .
A method of controlling a director switch of a voltage source converter wherein the director switch comprises a plurality of series connected director switch units each comprising a semiconductor switching element and an associated clamp capacitor connected across the semiconductor switching element , the method comprising: switching the semiconductor switching elements of the director switch units to transition the director switch between conducting and non-conducting states; wherein the timing of switching of a semiconductor switching element is based on the voltage level of the associated clamp capacitor and the degree of any voltage imbalance between the clamp capacitors of the director switch units ; wherein the method further comprises turning-off the semiconductor switching elements of the director switch units to transition the director switch from a fully conducting state to a fully non-conducting state; characterized in that the director switch is connected in series in a converter arm with a chain-link circuit for voltage wave-shaping and the method comprises modulating a voltage generated by the chain-link circuit during the transition of the director switch from the fully conducting state to the fully non-conducting state; and in that the chain-link voltage is modulated to increase the rate of voltage increase across the director switch after a given semiconductor switching element has been turned off. switching the semiconductor switching elements of the director switch units to transition the director switch between conducting and non-conducting states; wherein the timing of switching of a semiconductor switching element is based on the voltage level of the associated clamp capacitor and the degree of any voltage imbalance between the clamp capacitors of the director switch units ; wherein the method further comprises turning-off the semiconductor switching elements of the director switch units to transition the director switch from a fully conducting state to a fully non-conducting state; characterized in that the director switch is connected in series in a converter arm with a chain-link circuit for voltage wave-shaping and the method comprises modulating a voltage generated by the chain-link circuit during the transition of the director switch from the fully conducting state to the fully non-conducting state; and in that the chain-link voltage is modulated to increase the rate of voltage increase across the director switch after a given semiconductor switching element has been turned off. characterized in that the director switch is connected in series in a converter arm with a chain-link circuit for voltage wave-shaping and the method comprises modulating a voltage generated by the chain-link circuit during the transition of the director switch from the fully conducting state to the fully non-conducting state; and in that the chain-link voltage is modulated to increase the rate of voltage increase across the director switch after a given semiconductor switching element has been turned off.
A composition comprising a poly alpha-1,3-glucan ester compound represented by the structure: wherein (i) n is at least 6; (ii) each R is independently an -H or a first group comprising -CO-C x -COOH, wherein the -C x - portion of said first group comprises a chain of 2 to 6 carbon atoms, and further wherein the -C x - portion comprises (a) at least one double-bond in said chain, and/or (b) at least one branch comprising an organic group; and (iii) the compound has a degree of substitution with the first group of about 0.001 to about 3.0. (i) n is at least 6; (ii) each R is independently an -H or a first group comprising -CO-C x -COOH, wherein the -C x - portion of said first group comprises a chain of 2 to 6 carbon atoms, and further wherein the -C x - portion comprises (a) at least one double-bond in said chain, and/or (b) at least one branch comprising an organic group; and (iii) the compound has a degree of substitution with the first group of about 0.001 to about 3.0.
Rolling bearing, in particular open-centre large rolling bearing, comprising two concentric bearing rings , of which one bearing ring has a groove open towards the other bearing ring and the other bearing ring has a lug ring engaging said groove , wherein the lug ring is supported on the groove by at least two axial bearings and at least one radial bearing , wherein said axial bearings are configured as roller bearings in the form of cylindrical roller and/or tapered bearings and are arranged in two mutually spaced planes extending perpendicularly to the bearing rotation axis , between which planes the at least one radial bearing is arranged, wherein all radial bearings are configured as ball bearings, characterised in that the at least one radial bearing is mounted under radial bias of the ball races and the balls of the ball bearing.
A casing comprising a first substrate support portion and a second substrate support portion in an inside of the casing , wherein the first substrate support portion has a first support portion that can support, at a first substrate support position in the casing , a first substrate having a supported portion at a predetermined location, and wherein the second substrate support portion has a second support portion that can support, at the first substrate support position, a second substrate having a supported portion at a predetermined location different from the predetermined location of the first substrate , wherein the first substrate support portion has a third support portion that can support the first substrate at a second substrate support position, and wherein the second substrate support portion has a fourth support portion that can support the second substrate at the second substrate support position, characterized in that the first substrate is attached with a bracket that can switch a position to be supported, between the first substrate support position and the second substrate support position by reversing the bracket . wherein the first substrate support portion has a first support portion that can support, at a first substrate support position in the casing , a first substrate having a supported portion at a predetermined location, and wherein the second substrate support portion has a second support portion that can support, at the first substrate support position, a second substrate having a supported portion at a predetermined location different from the predetermined location of the first substrate , wherein the first substrate support portion has a third support portion that can support the first substrate at a second substrate support position, and wherein the second substrate support portion has a fourth support portion that can support the second substrate at the second substrate support position, characterized in that the first substrate is attached with a bracket that can switch a position to be supported, between the first substrate support position and the second substrate support position by reversing the bracket .
A door assembly comprising a door frame , a door leaf , and at least one door hinge , which has a frame part and at least one hinge arm , which is rotatably received at the frame part and by means of which the door leaf is pivotably fastened to the door frame via the at least one hinge arm , wherein, in a closed position of the door leaf , the door frame has a face portion , which is aligned parallel to the door leaf , and a soffit , which runs perpendicular thereto and connects laterally to the door leaf , and wherein the door hinge is inserted with the frame part into an opening of the soffit and is arranged at least partially concealed behind the face portion , wherein, at the height of the frame part , the face portion has a lateral recess , which starts at the soffit and into which the hinge arm pivots in response to a movement between the closed position and a maximum open position of the door leaf , characterized in that the door leaf is unrebated and that the edges of the door leaf are surrounded by the soffit in such a way that the door leaf is located completely adjacent to the face portion and that the door hinge has a cover , which covers the recess at the face section in the closed position.
Vertical flow-wrapper with a housing , at which a form-fill-tube , a longitudinal-sealing means and a cross-sealing means and a cutting means are provided, wherein the cross- sealing means is provided at a part which is moveable relative to the housing from an operation- into an inspection position and vice versa, characterized in that movable part is part of the housing of the vertical flow-wrapper and wherein the cross-sealing means are provided on one side of the part and its drive on the opposite side.
An ultrasonic inspection machine for performing non-destructive testing on wind turbine blades comprising a movable base , a robotic handling device arranged on the movable base , a robot head mounted to the handling device , an ultrasonic inspection system comprising a scanning head comprising at least one ultrasonic testing sensor , the scanning head arranged on the robot head capable of slidingly contacting an outer blade surface of a wind turbine blade , a first power supply system for providing electric power to the robotic handling device , the robot head and the ultrasonic inspection system, characterized in that the inspection machine further comprises a blade marking device for marking positioning marks (PM, PM') on the outer blade surface ; a machine vision camera and an illumination device for identifying a working window (WW) on the outer blade surface each working window (WW) being delimited by a positioning mark (PM) marked by the blade marking device ; a distance sensor for detecting the distance between the outer blade surface and the inspection machine ; and in that the blade marking system , the machine vision camera , the illumination device , and the distance sensor are arranged on the robot head ; the robotic handling device comprises a driving system for displacing the robot head vertically and horizontally with respect to each working window (WW). a movable base , a robotic handling device arranged on the movable base , a robot head mounted to the handling device , an ultrasonic inspection system comprising a scanning head comprising at least one ultrasonic testing sensor , the scanning head arranged on the robot head capable of slidingly contacting an outer blade surface of a wind turbine blade , a first power supply system for providing electric power to the robotic handling device , the robot head and the ultrasonic inspection system, characterized in that the inspection machine further comprises a blade marking device for marking positioning marks (PM, PM') on the outer blade surface ; a machine vision camera and an illumination device for identifying a working window (WW) on the outer blade surface each working window (WW) being delimited by a positioning mark (PM) marked by the blade marking device ; a distance sensor for detecting the distance between the outer blade surface and the inspection machine ; and in that the blade marking system , the machine vision camera , the illumination device , and the distance sensor are arranged on the robot head ; the robotic handling device comprises a driving system for displacing the robot head vertically and horizontally with respect to each working window (WW).
Method for carrying out an operating system update for a bus device (G1 - G8) of a bus-oriented programmable electrical installation (GBS1, GBS2), wherein the bus device (G1 - G8) comprises a processor (MK) and a flash memory (SP1 - SP3), the method comprising the following steps: (VS1) providing an update application (UP-A1 - UP-A3), which comprises a communication stack (CS) and a corresponding hardware adaptation for communication and flash access of the device (G1 - G8); loading the update application (UP-A1 - UP-A3) into the flash memory, wherein after loading has taken place, the update application (UP-A1 - UP-A3) takes over control of the bus device (G1 - G8) and the previous operating system (BS) is no longer accessible; initialising the interrupt vectors, such that they refer to the update application (UP-A1 - UP-A3) in the flash memory; carrying out the operating system update, wherein the individual data of the device (G1 - G8) is stored such that the update application (UP-A1 - UP-A3) can access the data while the operating system update is being carried out; and wherein the communication of the bus device (G1 - G8) takes place via the update application (UP-A1 - UP-A3) while the operating system update is being carried out. (VS1) providing an update application (UP-A1 - UP-A3), which comprises a communication stack (CS) and a corresponding hardware adaptation for communication and flash access of the device (G1 - G8); loading the update application (UP-A1 - UP-A3) into the flash memory, wherein after loading has taken place, the update application (UP-A1 - UP-A3) takes over control of the bus device (G1 - G8) and the previous operating system (BS) is no longer accessible; initialising the interrupt vectors, such that they refer to the update application (UP-A1 - UP-A3) in the flash memory; carrying out the operating system update, wherein the individual data of the device (G1 - G8) is stored such that the update application (UP-A1 - UP-A3) can access the data while the operating system update is being carried out; and wherein the communication of the bus device (G1 - G8) takes place via the update application (UP-A1 - UP-A3) while the operating system update is being carried out.
Microfluidic component used for measuring electrical impedance across a biological object, said component comprising: - a microfluidic space comprising a zone referred to as measurement zone , - at least two electrodes arranged facing one another on each side of the measurement zone , - the component being formed by assembling, along a longitudinal junction plane, at least two superposed layers referred to as lower layer and upper layer , - the two layers each having at least one cavity , - the two layers being assembled with one another in such a way as to position the two cavities facing one another in order to form said microfluidic space, - characterized in that : - the two cavities have cross sections of different sizes, forming two clearance surfaces, one on each side of said microfluidic space , - two electrically conducting deposits are applied to said two clearance surfaces so as to form said two electrodes . - a microfluidic space comprising a zone referred to as measurement zone , - at least two electrodes arranged facing one another on each side of the measurement zone , - the component being formed by assembling, along a longitudinal junction plane, at least two superposed layers referred to as lower layer and upper layer , - the two layers each having at least one cavity , - the two layers being assembled with one another in such a way as to position the two cavities facing one another in order to form said microfluidic space, - characterized in that : - the two cavities have cross sections of different sizes, forming two clearance surfaces, one on each side of said microfluidic space , - two electrically conducting deposits are applied to said two clearance surfaces so as to form said two electrodes . - the two cavities have cross sections of different sizes, forming two clearance surfaces, one on each side of said microfluidic space , - two electrically conducting deposits are applied to said two clearance surfaces so as to form said two electrodes .
A method for improving the efficiency of an automatic packaging machine of consumer products, in particular of the tobacco industry, comprising the steps of: - preparing at least one material (M), in particular a raw material, a semi-finished item or a finished article, at a respective feed station of the machine ; said machine comprising at least one work unit designed to operate on said material (M); - detecting, by means of detection means , at least one parameter representing the quality of at least one portion of the material (M) whilst the material (M) is at the feed station ; - if said at least one parameter detected is non-conforming with a predetermined model based on at least one reference parameter, removing at least a non-conforming part of said material (M) in such a way that said non-conforming part does not reach said work unit ; characterized in that the detecting step is carried out while the material (M) is arranged in a loading area located immediately in front of the feed station , where the loading area forms part of a work island containing the automatic packaging machine , or is performed downstream of the loading of the material (M) in the feed station and upstream of a processing actuated by said at least one work unit , namely at an instant in which the material (M), or at least a relative portion, which is an object of the detecting, has not yet been subjected to any processing. - preparing at least one material (M), in particular a raw material, a semi-finished item or a finished article, at a respective feed station of the machine ; said machine comprising at least one work unit designed to operate on said material (M); - detecting, by means of detection means , at least one parameter representing the quality of at least one portion of the material (M) whilst the material (M) is at the feed station ; - if said at least one parameter detected is non-conforming with a predetermined model based on at least one reference parameter, removing at least a non-conforming part of said material (M) in such a way that said non-conforming part does not reach said work unit ;