mhurhangee/ep-ind-claims huggingface dataset:
A latching member, comprising: a hard material member, comprising a hard material body, an elastic arm, and a buckle portion, wherein the hard material body has a first side and a second side opposite to each other, one of two ends of the elastic arm is connected to the first side of the hard material body, at least one hollow portion is between the elastic arm and the hard material body, and the buckle portion is connected to the other end of the elastic arm; and characterized in that a soft material member, comprising a first soft material body, wherein the first soft material body is on the first side of the hard material body and covers the hollow portion and the elastic arm. a hard material member, comprising a hard material body, an elastic arm, and a buckle portion, wherein the hard material body has a first side and a second side opposite to each other, one of two ends of the elastic arm is connected to the first side of the hard material body, at least one hollow portion is between the elastic arm and the hard material body, and the buckle portion is connected to the other end of the elastic arm; and characterized in that a soft material member, comprising a first soft material body, wherein the first soft material body is on the first side of the hard material body and covers the hollow portion and the elastic arm.
A method of verifying the intended imaging produced by a printer, using a print monitor, comprising: (a) generating electronic print data for controlling the printer; (b) substantially simultaneously supplying the electronic print data to the printer and to the print monitor; (c) scanning the web or sheet at a location before the printer to sense the content of the pixels prior to imaging; (d) moving a web or sheet in a first direction to and past the printer, (e) imaging the moving web or sheet with the printer as the web or sheet moves past the printer; (f) scanning the web or sheet at a location past the printer to sense the imaging thereof in electronic format; (g) supplying the sensed imaging in electronic format from (c) and (f) to the print monitor and comparing the data from (f) to a combination of the data from (c) and the electronic print data supplied to the print monitor in (b) and (h) in response to (g), identifying a section of the web or sheet that should be inspected or removed. (a) generating electronic print data for controlling the printer; (b) substantially simultaneously supplying the electronic print data to the printer and to the print monitor; (c) scanning the web or sheet at a location before the printer to sense the content of the pixels prior to imaging; (d) moving a web or sheet in a first direction to and past the printer, (e) imaging the moving web or sheet with the printer as the web or sheet moves past the printer; (f) scanning the web or sheet at a location past the printer to sense the imaging thereof in electronic format; (g) supplying the sensed imaging in electronic format from (c) and (f) to the print monitor and comparing the data from (f) to a combination of the data from (c) and the electronic print data supplied to the print monitor in (b) and (h) in response to (g), identifying a section of the web or sheet that should be inspected or removed.
Pneumatic brake booster, with - a booster housing which is subdivided into at least one working chamber and at least one vacuum chamber by means of at least one axially movable wall capable of being acted upon with a pneumatic differential pressure, - an actuable input member comprising a valve piston, - an output member (11; 40) for acting upon a brake master cylinder with an output force, - a control valve which is arranged in a control housing and can be actuated by the valve piston and which controls the differential pressure, and - an elastic reaction element which is arranged in a control housing recess and against which the output member (11; 40) bears, - means being provided, which, with the brake booster assembled, make it possible to set a distance (z) between the valve piston and the reaction element, characterized in that the means for setting the distance (z) are provided on the output member (11; 40). - a booster housing which is subdivided into at least one working chamber and at least one vacuum chamber by means of at least one axially movable wall capable of being acted upon with a pneumatic differential pressure, - an actuable input member comprising a valve piston, - an output member (11; 40) for acting upon a brake master cylinder with an output force, - a control valve which is arranged in a control housing and can be actuated by the valve piston and which controls the differential pressure, and - an elastic reaction element which is arranged in a control housing recess and against which the output member (11; 40) bears, - means being provided, which, with the brake booster assembled, make it possible to set a distance (z) between the valve piston and the reaction element,
Drug delivery device comprising a cap assembly, the cap assembly comprising - a fixing element with a connection feature, wherein the fixing element is a clip element, - an outer part with an opening and with a proximal opening, and - an inner part being located inside of the outer part, the inner part further comprising - a corresponding connection feature, wherein - a section of the fixing element extends through the opening of the outer part such that the fixing element is connected to the inner part by an interaction of the connection feature and the corresponding connection feature, - the distal face of the connection feature and the proximal face of the corresponding connection feature abut, - the fixing element comprises a guiding element and the outer part comprises a corresponding guiding feature, wherein the guiding element and the corresponding guiding feature are configured to cooperate to prevent a radial movement of the fixing element with respect to the outer part, - the corresponding guiding feature extends, originating from the opening, in proximal direction. - a fixing element with a connection feature, wherein the fixing element is a clip element, - an outer part with an opening and with a proximal opening, and - an inner part being located inside of the outer part, the inner part further comprising - a corresponding connection feature, wherein - a section of the fixing element extends through the opening of the outer part such that the fixing element is connected to the inner part by an interaction of the connection feature and the corresponding connection feature, - the distal face of the connection feature and the proximal face of the corresponding connection feature abut, - the fixing element comprises a guiding element and the outer part comprises a corresponding guiding feature, wherein the guiding element and the corresponding guiding feature are configured to cooperate to prevent a radial movement of the fixing element with respect to the outer part, - the corresponding guiding feature extends, originating from the opening, in proximal direction.
Method of fault detection and localisation of a fault in a DC-system comprising multiple serially connected DC-sources, which method comprises acts of: a) connecting a test apparatus to at least one terminal of the DC-system and to DC-system ground, and as at least one repetition of: b) applying a test AC-signal to one terminal of the DC-system, c) detecting the response AC-signal to the test AC-signal on either one terminal alone and/or on DC-system ground; d) comparing the response AC signal with the test AC-signal to detect a fault and the location of the fault in the DC-system, wherein the act of comparing involves usage of impedance spectroscopy, wherein the response AC-signal is suitable for the impedance spectroscopy. a) connecting a test apparatus to at least one terminal of the DC-system and to DC-system ground, and as at least one repetition of: b) applying a test AC-signal to one terminal of the DC-system, c) detecting the response AC-signal to the test AC-signal on either one terminal alone and/or on DC-system ground; d) comparing the response AC signal with the test AC-signal to detect a fault and the location of the fault in the DC-system, wherein the act of comparing involves usage of impedance spectroscopy, wherein the response AC-signal is suitable for the impedance spectroscopy.
A bone anchor, comprising: an interconnection portion to slidingly engage a spacer; a fixation portion spaced apart from the interconnection portion to fix the anchor to a bone; and a leg (196, 198) connecting the fixation portion to the interconnection portion, the bone anchor being characterized in that the leg includes a cutting edge on the leading end capable of cutting through bone. an interconnection portion to slidingly engage a spacer; a fixation portion spaced apart from the interconnection portion to fix the anchor to a bone; and a leg (196, 198) connecting the fixation portion to the interconnection portion,
An organic light-emitting display device comprising: a base substrate including a pixel area and a peripheral area that surrounds the pixel area; a pixel array disposed in the pixel area; a first power voltage wiring disposed in the peripheral area and including a first lower power voltage line and a first upper power voltage line, wherein the first upper power voltage line is disposed on the first lower power voltage line and contacts the first lower power voltage line; and a second power voltage wiring disposed in the peripheral area and including a second lower power voltage line and a second upper power voltage line, wherein the second upper power voltage line is disposed on the second lower power voltage line and contacts the second lower power voltage line, wherein the first lower power voltage line and the second lower power voltage line are spaced apart from each other by a gap in a plan view, and wherein a portion of the first upper power voltage line extends across the gap between the first lower power voltage line and second lower power voltage line so as to cover the gap and overlap a portion of the second lower power voltage line in the plan view. a base substrate including a pixel area and a peripheral area that surrounds the pixel area; a pixel array disposed in the pixel area; a first power voltage wiring disposed in the peripheral area and including a first lower power voltage line and a first upper power voltage line, wherein the first upper power voltage line is disposed on the first lower power voltage line and contacts the first lower power voltage line; and a second power voltage wiring disposed in the peripheral area and including a second lower power voltage line and a second upper power voltage line, wherein the second upper power voltage line is disposed on the second lower power voltage line and contacts the second lower power voltage line, wherein the first lower power voltage line and the second lower power voltage line are spaced apart from each other by a gap in a plan view, and wherein a portion of the first upper power voltage line extends across the gap between the first lower power voltage line and second lower power voltage line so as to cover the gap and overlap a portion of the second lower power voltage line in the plan view.
A sensor assembly comprising a substrate, a sensor chip flip-chip mounted to said substrate with a first side of said sensor chip facing said substrate, a sensing area integrated on the first side of said sensor chip in a sensor section of said sensor chip, wherein said sensing area is structured to measure at least one parameter, contact pads integrated on the first side of said sensor chip in a contact section of said sensor chip, wherein said contact pads are electrically connected to said substrate, wherein said sensor chip extends over an edge of said substrate, wherein the edge of said substrate extends between said sensor section and said contact section over said whole sensor chip from a first edge of said sensor chip to a second edge of said sensor chip.
A power control device for a hybrid construction machine including an engine, an electric storage device, at least one actuator ( 8, 9, 10, 14) to be operated by at least one of a power of the engine and an electric power of the electric storage device, and a generator for generating an electric power by a power of the engine, the power control device comprising: a controller configured to perform a regular control of controlling charge and discharge of the electric storage device in order to keep the output of the engine within an engine output control range defined by an upper limit value and a lower limit value, the control range allowing a driving efficiency of the engine to fall within a predetermined efficiency range, by using an electric power of the electric storage device to assist the engine when the necessary power for the engine is greater than the upper limit value and driving the generator to charge the electric storage device when the necessary power is less than the lower limit value, characterised by when the necessary power is greater than the upper limit value and either the integral power value or the duration time of an assist provided to the engine by the electric storage device during the continuous assist by the electric storage device exceeds a predetermined first threshold value, the controller is configured to perform a first control of reducing the assist power by the electric storage device to a value smaller than the assist power for the regular control and greater than zero, and when the necessary power is greater than the upper limit value and either the integral power value or the duration time exceeds a predetermined second threshold value greater than the first threshold value, the controller is configured to perform a second control of setting the assist power to zero.
A control device for an internal combustion engine, characterized by comprising: in-cylinder pressure acquisition means (40, 50) for acquiring an in-cylinder pressure for each time period or for each crank angle; in-cylinder pressure change rate calculation means (S100, 50) for calculating an in-cylinder pressure change rate that is an amount of increase in an in-cylinder pressure per unit time or unit crank angle based on each in-cylinder pressure that is acquired by the in-cylinder pressure acquisition means (40, 50) in a combustion period during one cycle; integrated value calculation means (S110-S130, 50) for calculating an integrated value by integrating in-cylinder pressure change rates that are equal to or greater than a noise threshold value that is equal to or greater than 0 or is a negative value close to 0 with respect to each in-cylinder pressure change rate that is calculated by the in-cylinder pressure change rate calculation means (S100, 50); and combustion noise suppression control means for executing control that suppresses combustion noise based on an integrated value that is calculated by the integrated value calculation means (S110-S130, 50). in-cylinder pressure acquisition means (40, 50) for acquiring an in-cylinder pressure for each time period or for each crank angle; in-cylinder pressure change rate calculation means (S100, 50) for calculating an in-cylinder pressure change rate that is an amount of increase in an in-cylinder pressure per unit time or unit crank angle based on each in-cylinder pressure that is acquired by the in-cylinder pressure acquisition means (40, 50) in a combustion period during one cycle; integrated value calculation means (S110-S130, 50) for calculating an integrated value by integrating in-cylinder pressure change rates that are equal to or greater than a noise threshold value that is equal to or greater than 0 or is a negative value close to 0 with respect to each in-cylinder pressure change rate that is calculated by the in-cylinder pressure change rate calculation means (S100, 50); and combustion noise suppression control means for executing control that suppresses combustion noise based on an integrated value that is calculated by the integrated value calculation means (S110-S130, 50).
A supplementary isolating device for remote operation of a circuit breaker with interlocking functionality, wherein the supplementary isolating device comprises: an electrical disconnection switch manoeuvrable between a mechanically lockable first position and a mechanically lockable second position, which electrical disconnection switch is configured to be connected in the control circuit of a circuit breaker for an electrical drive system, characterised in that the supplementary isolating device is configured to send a first control voltage to the circuit breaker to provide an electrical disconnect and interlocking the operation of the circuit breaker, when the electrical disconnection switch is in the first position, and the supplementary isolating device further comprises: an electric terminal configured to be connected to an auxiliary contact of the circuit breaker to obtain an operational status of the circuit breaker, and an indicator configured to indicate the operational status of the circuit breaker. an electrical disconnection switch manoeuvrable between a mechanically lockable first position and a mechanically lockable second position, which electrical disconnection switch is configured to be connected in the control circuit of a circuit breaker for an electrical drive system, characterised in that the supplementary isolating device is configured to send a first control voltage to the circuit breaker to provide an electrical disconnect and interlocking the operation of the circuit breaker, when the electrical disconnection switch is in the first position, and the supplementary isolating device further comprises: an electric terminal configured to be connected to an auxiliary contact of the circuit breaker to obtain an operational status of the circuit breaker, and an indicator configured to indicate the operational status of the circuit breaker. an electric terminal configured to be connected to an auxiliary contact of the circuit breaker to obtain an operational status of the circuit breaker, and an indicator configured to indicate the operational status of the circuit breaker.
A method for determining a speed profile (v p) for a marine vessel, said method comprising: - determining a travel segment along which said marine vessel is expected to travel; - determining a curvature value indicative of a curvature of said travel segment; - on the basis of at least said curvature value, determining a speed profile (v p) for said marine vessel along said travel segment; - determining an expected roll angle of said marine vessel along said travel segment; - determining a desired lateral acceleration (a yd) of said marine vessel along said travel segment on the basis of at least said expected roll angle; and - on the basis of at least said curvature value and said desired lateral acceleration (a yd), determining said speed profile (v p) for said marine vessel along said travel segment - wherein said desired lateral acceleration (a yd) is determined such that an absolute value of the difference between said desired lateral acceleration (a yd) and the gravitational acceleration multiplied by the tangent of said expected roll angle is below a threshold value. - determining a travel segment along which said marine vessel is expected to travel; - determining a curvature value indicative of a curvature of said travel segment; - on the basis of at least said curvature value, determining a speed profile (v p) for said marine vessel along said travel segment; - determining an expected roll angle of said marine vessel along said travel segment; - determining a desired lateral acceleration (a yd) of said marine vessel along said travel segment on the basis of at least said expected roll angle; and - on the basis of at least said curvature value and said desired lateral acceleration (a yd), determining said speed profile (v p) for said marine vessel along said travel segment - wherein said desired lateral acceleration (a yd) is determined such that an absolute value of the difference between said desired lateral acceleration (a yd) and the gravitational acceleration multiplied by the tangent of said expected roll angle is below a threshold value.
Polymer composition comprising, based on the weight of the polymer composition, the following components A, B and C: A. 40.0 to 94.5 wt.-%, preferably 50.0 to 84.0 wt.-%, of at least one acrylic-based polymer comprising at least one alkyl(meth)acrylate; B. 0.5 to 12.0 wt.-%, preferably 1.0 to 10.0 wt.-%, of at least one olefinic copolymer B, comprising at least one olefinic monomer and at least one polar monomer selected from unsaturated carboxylic acids, esters of unsaturated carboxylic acids, and anhydrides of unsaturated carboxylic acids; C. 5.0 to 40.0 wt.-%, preferably 10.0 to 36.0 wt.-%, of at least one particulate multiphase graft copolymer, which comprises a core and at least one shell, comprising at least one alkyl(meth)acrylate. A. 40.0 to 94.5 wt.-%, preferably 50.0 to 84.0 wt.-%, of at least one acrylic-based polymer comprising at least one alkyl(meth)acrylate; B. 0.5 to 12.0 wt.-%, preferably 1.0 to 10.0 wt.-%, of at least one olefinic copolymer B, comprising at least one olefinic monomer and at least one polar monomer selected from unsaturated carboxylic acids, esters of unsaturated carboxylic acids, and anhydrides of unsaturated carboxylic acids; C. 5.0 to 40.0 wt.-%, preferably 10.0 to 36.0 wt.-%, of at least one particulate multiphase graft copolymer, which comprises a core and at least one shell, comprising at least one alkyl(meth)acrylate.
Electrically insulating composite material ( 1 that may be used in high voltage, and formed from: i) a polyepoxide matrix of cycloaliphatic type or of diglycidylether type in a content of less than 40% by mass, ii) from 20 to 75% by mass of one or several micrometric and/or mesometric filler(s), iii) from 0.1 to 20% by mass of at least one ionic liquid, the masses being expressed relative to the total mass of the electrically insulating composite material, and the mesometric fillers being fillers whose largest dimension is comprised between 100 nanometers and 2 micrometers that may be measured as described in the specification. i) a polyepoxide matrix of cycloaliphatic type or of diglycidylether type in a content of less than 40% by mass, ii) from 20 to 75% by mass of one or several micrometric and/or mesometric filler(s), iii) from 0.1 to 20% by mass of at least one ionic liquid, the masses being expressed relative to the total mass of the electrically insulating composite material, and the mesometric fillers being fillers whose largest dimension is comprised between 100 nanometers and 2 micrometers that may be measured as described in the specification.
Apparatus for use in making a glass or a glass-ceramic comprising a body having a configuration suitable for use as a glass forming structure in a fusion downdraw process, said body comprising a phase, referred to as Phase I, which, on an oxide basis, comprises: (i) at least 30 mole percent P 2 O 5; and (ii) at least 30 mole percent Y 2 O 3, Sc 2 O 3, Er 2 O 3, Lu 2 O 3, Yb 2 O 3, Tm 2 O 3, HO 2 O 3, Dy 2 O 3, Tb 2 O 3, Gd 2 O 3, or a combination thereof, wherein the body comprises at least 90 volume percent of Phase I. (i) at least 30 mole percent P 2 O 5; and (ii) at least 30 mole percent Y 2 O 3, Sc 2 O 3, Er 2 O 3, Lu 2 O 3, Yb 2 O 3, Tm 2 O 3, HO 2 O 3, Dy 2 O 3, Tb 2 O 3, Gd 2 O 3, or a combination thereof,