mhurhangee/patent-ind-claim-en huggingface dataset:
Rechargeable battery inductive charging apparatus for charging a handheld power tool, a household device , a handheld power tool rechargeable battery pack or a household device rechargeable battery pack during the journey of a vehicle (12a; 12b), having a DC/DC converter (14a; 14b; 14c) and having an inductive charging unit (16a, 18a, 20a; 16b, 18b; 16c, 18c, 20c) which is intended to be supplied with energy by the DC/DC converter (14a; 14b; 14c), wherein the inductive charging unit comprises a functional unit which is intended to automatically detect a frequency of an applied supply voltage of the vehicle (12a; 12b) in order to distinguish between a DC voltage and an AC voltage, characterized in that a holding unit positions the handheld power tool, the household device , the handheld power tool rechargeable battery pack or the household device rechargeable battery pack relative to the inductive charging unit for a charging operation, wherein the holding unit has at least one conversion unit which is intended to convert a gravitational force into a positioning force acting substantially perpendicular to the gravitational force.
A D-ring keeper assembly for use with a safety harness , the D-ring keeper assembly comprising: a D-ring having a mid-portion , a first end portion and a second end portion , the mid-portion being configured and arranged to provide a connection point to the D-ring, the D-ring further having at least one post that extends between the first and second end portions; and a base member configured and arranged to be coupled to a webbing of the safety harness, the at least one post of the D-ring pivotally in communication with the base member, characterized in that the base member comprises: a base plate , the base plate having a front edge and opposed back edge as well as a first side edge and an opposed second side edge , the base plate further having at least a pair of spaced slots configured and arranged to couple the base plate to the webbing; a first side wall extending from the first side edge of the base plate; a second side wall extending from the second side edge of the base plate; and a back wall extending from the back edge of the base plate; and the base member further including at least one locking tab configured and arranged to selectively lock the position of the D-ring in at least one of an activated position and a stored position in relation to the base member; and wherein in the stored position, the D-ring is positioned generally parallel with the base plate of the base member and in the activated position, the D-ring is positioned generally perpendicular to the base plate of the base member . a D-ring having a mid-portion , a first end portion and a second end portion , the mid-portion being configured and arranged to provide a connection point to the D-ring, the D-ring further having at least one post that extends between the first and second end portions; and a base member configured and arranged to be coupled to a webbing of the safety harness, the at least one post of the D-ring pivotally in communication with the base member, characterized in that a base plate , the base plate having a front edge and opposed back edge as well as a first side edge and an opposed second side edge , the base plate further having at least a pair of spaced slots configured and arranged to couple the base plate to the webbing; a first side wall extending from the first side edge of the base plate; a second side wall extending from the second side edge of the base plate; and a back wall extending from the back edge of the base plate; and the base member further including at least one locking tab configured and arranged to selectively lock the position of the D-ring in at least one of an activated position and a stored position in relation to the base member; and wherein in the stored position, the D-ring is positioned generally parallel with the base plate of the base member and in the activated position, the D-ring is positioned generally perpendicular to the base plate of the base member .
A closing sequence controller for a double-wing door construction with a fixed leaf and an active leaf , wherein the fixed leaf and the active leaf are each connected with the axis of a floor spring , comprising a housing , in which a cam disc , which can be arranged on the axis of the floor spring , is arranged in a rotatable manner and an activation element , which respectively cooperates with one end with the cam disc and is connectable to a traction means with the other end, is placed in a displaceable manner perpendicularly to the axis of the floor spring , such that a door closing sequence control is provided by means of the adjustability of the cooperation of the respective activation element with the respective cam disc , by means of which closing sequence control at first the fixed leaf and subsequently the active leaf are getting closed, wherein the displacement range of the activation element is adjustable from the outside of the housing with the aid of a screw that is guided through the housing , characterized in that the screw protrudes into the displacement range of the activation element , can be brought with one end into contact with one section of the activation element and is guided through a threaded sleeve , which comprises an inner thread and is arranged in the housing , or through an opening or recess of the housing that comprises a thread.
A method comprising: (a) providing at a first temperature a first lignocellulosic biomass mixture comprising a substance, wherein the substance comprises lignin and wherein the first temperature is above 60 °C; and (b) agitating at least a portion of the first mixture under turbulent conditions at a Reynolds number of greater than 4,000 for a first time period at the first temperature, thereby causing particles comprising the substance having a first average size to of less than 200 microns to collide and form into larger particles having a second average size of greater than 200 microns, thereby forming a second mixture. (a) providing at a first temperature a first lignocellulosic biomass mixture comprising a substance, wherein the substance comprises lignin and wherein the first temperature is above 60 °C; and (b) agitating at least a portion of the first mixture under turbulent conditions at a Reynolds number of greater than 4,000 for a first time period at the first temperature, thereby causing particles comprising the substance having a first average size to of less than 200 microns to collide and form into larger particles having a second average size of greater than 200 microns, thereby forming a second mixture.
A seed furrow opener , comprising: a seed furrow opener arm , and a pair of cooperating seed discs , whose rotational axes (Ra, Rb) are non-parallel to each other; wherein at least one of the seed discs is axially slidably mounted on a shaft whose proximal end is attached at the furrow opener arm , further comprising a spring arranged to bias the seed disc outwardly from the seed furrow opener arm , and an adjustable abutment , wherein the spring biases the seed disc against the abutment . a seed furrow opener arm , and a pair of cooperating seed discs , whose rotational axes (Ra, Rb) are non-parallel to each other; wherein at least one of the seed discs is axially slidably mounted on a shaft whose proximal end is attached at the furrow opener arm , further comprising a spring arranged to bias the seed disc outwardly from the seed furrow opener arm , and an adjustable abutment , wherein the spring biases the seed disc against the abutment .
A cooking hob comprising a cooking surface (Pc), at least one heating element extending in a heating plane (P) located under said cooking surface (Pc), an circuit board for managing the operation of the cooking hob located under the heating plane (P), and a cooling system comprising air stirring means disposed under said heating plane (P) at the location of a rear edge of said cooking hob , said cooking hob being characterized in that the cooling system further comprises: - a ventilation duct extending from said stirring means and opening into an outlet zone at the location of a front edge of the cooking hob , said ventilation duct extending along a first face of said circuit board and comprising an inlet end at the location of air the stirring means such that an air stream coming from the air stirring means enters said ventilation duct through said inlet end , and an outlet end at the location of said outlet zone , - outlet deflection means located in said outlet zone , opposite said outlet end of said ventilation duct , and being designed to invert the direction of the air stream; and - at least one air evacuation opening disposed at the location of at least one lateral edge of the cooking hob , in an intermediate plane (P3) located between said cooking surface (Pc) and a second face of the circuit board . - a ventilation duct extending from said stirring means and opening into an outlet zone at the location of a front edge of the cooking hob , said ventilation duct extending along a first face of said circuit board and comprising an inlet end at the location of air the stirring means such that an air stream coming from the air stirring means enters said ventilation duct through said inlet end , and an outlet end at the location of said outlet zone , - outlet deflection means located in said outlet zone , opposite said outlet end of said ventilation duct , and being designed to invert the direction of the air stream; and - at least one air evacuation opening disposed at the location of at least one lateral edge of the cooking hob , in an intermediate plane (P3) located between said cooking surface (Pc) and a second face of the circuit board .
A lock, in particular anti-panic lock , comprising: • a latch-bolt , • a dead-bolt , which, for blocking the lock , is displaceable along a dead-bolt axis , • a terminal abutment , in particular integral with the dead-bolt, • a rotatable catch or a reception for the catch for displacing the dead-bolt along the dead-bolt axis , and • a change element actuatable by the catch for retracting the latch-bolt , • wherein the change element is rotatable about a change axis of rotation , which in particular is vertical to the dead-bolt axis , in the one direction of rotation rests at a terminal abutment and in the opposite direction of rotation is rotatable against the force of a change spring , characterized in that the change spring is supported at the change element and at the dead-bolt . • a latch-bolt , • a dead-bolt , which, for blocking the lock , is displaceable along a dead-bolt axis , • a terminal abutment , in particular integral with the dead-bolt, • a rotatable catch or a reception for the catch for displacing the dead-bolt along the dead-bolt axis , and • a change element actuatable by the catch for retracting the latch-bolt , • wherein the change element is rotatable about a change axis of rotation , which in particular is vertical to the dead-bolt axis , in the one direction of rotation rests at a terminal abutment and in the opposite direction of rotation is rotatable against the force of a change spring ,
A pellicle demounting method, comprising: a step of providing a stack including a photomask , a pellicle frame , and a pellicle film that are arranged in this order; a step of providing an electrode ; and a demounting step including disposing the stack and the electrode such that the pellicle film in the stack and the electrode face each other, and applying a voltage to the electrode to generate an electrostatic attractive force, which attracts the pellicle film in a direction toward the electrode, thereby demounting the pellicle film from the photomask in the stack. a step of providing a stack including a photomask , a pellicle frame , and a pellicle film that are arranged in this order; a step of providing an electrode ; and a demounting step including disposing the stack and the electrode such that the pellicle film in the stack and the electrode face each other, and applying a voltage to the electrode to generate an electrostatic attractive force, which attracts the pellicle film in a direction toward the electrode, thereby demounting the pellicle film from the photomask in the stack.
A method of preparing a conductive material dispersed liquid, comprising: mixing a conductive material which includes bundle-type carbon nanotubes; a dispersant; and a dispersion medium, and then milling such that a phase angle is in a range of 3° to 18° when measured by a rheometer at a frequency of 1 Hz, wherein the milling is performed using a bead mill having an average diameter of 0.5 to 2 mm for 60 to 120 minutes. mixing a conductive material which includes bundle-type carbon nanotubes; a dispersant; and a dispersion medium, and then milling such that a phase angle is in a range of 3° to 18° when measured by a rheometer at a frequency of 1 Hz, wherein the milling is performed using a bead mill having an average diameter of 0.5 to 2 mm for 60 to 120 minutes.
A method of separating a biological target from a label in a sample comprising: 1) binding the biological target to the label through a linking system comprising either a) linked ligands comprising i) a ligand that binds to the biological target and ii) an anti-polymer ligand that binds reversibly to the label, wherein the label is conjugated with a first polymer, or b) i) a first polymer-conjugated ligand that binds to the biological target and ii) the label, wherein the label is conjugated with an anti-polymer ligand that binds reversibly to the first polymer, and 2) adding a second polymer to the sample to separate the biological target from the label. 1) binding the biological target to the label through a linking system comprising either a) linked ligands comprising i) a ligand that binds to the biological target and ii) an anti-polymer ligand that binds reversibly to the label, wherein the label is conjugated with a first polymer, or b) i) a first polymer-conjugated ligand that binds to the biological target and ii) the label, wherein the label is conjugated with an anti-polymer ligand that binds reversibly to the first polymer, and a) linked ligands comprising i) a ligand that binds to the biological target and ii) an anti-polymer ligand that binds reversibly to the label, wherein the label is conjugated with a first polymer, or b) i) a first polymer-conjugated ligand that binds to the biological target and ii) the label, wherein the label is conjugated with an anti-polymer ligand that binds reversibly to the first polymer, and 2) adding a second polymer to the sample to separate the biological target from the label.
An image reading apparatus comprising: a light source (210; 310) configured to emit at least light in a first wavelength range and light in a second wavelength range different from the first wavelength range; a background member (240; 270) having different light reflectances in the first wavelength range and the second wavelength range; an imaging device (220; 320) configured to: receive reflected light from the background member (240; 270) irradiated with the light in the first wavelength range and generate first read information; and receive reflected light from the background member (240; 270) irradiated with the light in the second wavelength range and generate second read information; and a foreign substance detection unit (411; 412) configured to: detect presence or absence of a first foreign substance based on a difference in reading level of the first read information generated by the imaging device (220; 320); and detect presence or absence of a second foreign substance based on a difference in reading level of the second read information generated by the imaging device (220; 320). a light source (210; 310) configured to emit at least light in a first wavelength range and light in a second wavelength range different from the first wavelength range; a background member (240; 270) having different light reflectances in the first wavelength range and the second wavelength range; an imaging device (220; 320) configured to: receive reflected light from the background member (240; 270) irradiated with the light in the first wavelength range and generate first read information; and receive reflected light from the background member (240; 270) irradiated with the light in the second wavelength range and generate second read information; and receive reflected light from the background member (240; 270) irradiated with the light in the first wavelength range and generate first read information; and receive reflected light from the background member (240; 270) irradiated with the light in the second wavelength range and generate second read information; and a foreign substance detection unit (411; 412) configured to: detect presence or absence of a first foreign substance based on a difference in reading level of the first read information generated by the imaging device (220; 320); and detect presence or absence of a second foreign substance based on a difference in reading level of the second read information generated by the imaging device (220; 320). detect presence or absence of a first foreign substance based on a difference in reading level of the first read information generated by the imaging device (220; 320); and detect presence or absence of a second foreign substance based on a difference in reading level of the second read information generated by the imaging device (220; 320).
A computer-implemented method for protecting a machine learning model from copying, the method comprising: providing a neural network architecture having an input layer, a plurality of hidden layers, and an output layer, each of the plurality of hidden layers having a plurality of nodes; providing a neural network application to run on the neural network architecture; providing a first type of activation function; providing a second type of activation function; assigning a combination of one activation function of the first type and one activation function of the second type to the plurality of nodes, each node being assigned either a first type or a second type of activation function; and training the neural network application with a training set to generate a machine learning model; wherein the assigning the combination of activation functions further comprises the first type of activation function being assigned from a set of activation functions comprising tanh(x), rectified linear unit ReLU(x), step(x), Gaussian(x), sigmoid(x), and leaky ReLU, and is characterised in that the second type of the activation functions is being assigned from a set of activation functions comprising sin(x) and sinc(x), wherein x is an input to a node of the plurality of nodes. providing a neural network architecture having an input layer, a plurality of hidden layers, and an output layer, each of the plurality of hidden layers having a plurality of nodes; providing a neural network application to run on the neural network architecture; providing a first type of activation function; providing a second type of activation function; assigning a combination of one activation function of the first type and one activation function of the second type to the plurality of nodes, each node being assigned either a first type or a second type of activation function; and training the neural network application with a training set to generate a machine learning model; wherein the assigning the combination of activation functions further comprises the first type of activation function being assigned from a set of activation functions comprising tanh(x), rectified linear unit ReLU(x), step(x), Gaussian(x), sigmoid(x), and leaky ReLU, and
Method of manufacturing a continuous recess wall (23, 29, 120; 323; 623) lined with bristles (104, 24; 104, 324; 104, 624) for a mouthpiece (20; 320, 400; 620, 700, 710, 720, 730, 804) for simultaneously brushing at a plurality of dental positions, the continuous recess wall (23, 29, 120; 323; 623) having an arch-shaped length axis (L1, L2) and, viewed transverse to the length axis, a U-shaped cross-section configured for encompassing said plurality of dental positions, and the arch-shaped length axis (L1, L2) having a length which spans a distance at least equal to the distance from the left second pre-molar to the right second premolar; wherein the method comprises a providing step, in which an elongate, continuous, bristled sheet part having a first side lined with a plurality of bristles is provided, the elongate, bristled sheet part defining a length axis extending parallel to the bristled sheet part and, viewed transverse to the length axis, a cross-sectional shape, and wherein the elongate, continuous, bristled sheet part obtained in the providing step has an initial condition in which: - the cross-sectional shape has an initial shape, and - the length axis is arch-shaped; wherein the method further comprises a transforming step, in which the elongate, continuous, bristled sheet part obtained in the providing step is transformed to a said continuous recess wall (23, 29, 120; 323; 623) having a final condition; wherein in the final condition: - the cross-sectional shape has a final U-shape, - the length axis is arch shaped, and - the first side is a concave inner side of the final U-shape; and wherein the first side is in the final condition more concave than in the initial condition. wherein the method comprises a providing step, in which an elongate, continuous, bristled sheet part having a first side lined with a plurality of bristles is provided, the elongate, bristled sheet part defining a length axis extending parallel to the bristled sheet part and, viewed transverse to the length axis, a cross-sectional shape, and wherein the elongate, continuous, bristled sheet part obtained in the providing step has an initial condition in which: - the cross-sectional shape has an initial shape, and - the length axis is arch-shaped; - the cross-sectional shape has an initial shape, and - the length axis is arch-shaped; wherein the method further comprises a transforming step, in which the elongate, continuous, bristled sheet part obtained in the providing step is transformed to a said continuous recess wall (23, 29, 120; 323; 623) having a final condition; wherein in the final condition: - the cross-sectional shape has a final U-shape, - the length axis is arch shaped, and - the first side is a concave inner side of the final U-shape; and - the cross-sectional shape has a final U-shape, - the length axis is arch shaped, and - the first side is a concave inner side of the final U-shape; and wherein the first side is in the final condition more concave than in the initial condition.
An engine mount for mounting a case of a gas turbine engine to an aircraft pylon , the engine mount comprising: a clevis ; a lug defining a hole therethrough; a pin joined to the clevis and extending through the hole of the lug , wherein an outer dimension of the pin is less than a dimension of the hole such that a clearance is defined between the outer dimension of the pin and the hole ; and a trigger system disposed on the lug and operatively associated with the pin , characterized in that the trigger system includes a slider block , a channel , a trigger and a spring , and wherein the trigger system when actuated by movement of the pin supports the pin by extending the slider block along the channel into the clearance, which causes a portion of the pin to contact a portion of the hole . a clevis ; a lug defining a hole therethrough; a pin joined to the clevis and extending through the hole of the lug , wherein an outer dimension of the pin is less than a dimension of the hole such that a clearance is defined between the outer dimension of the pin and the hole ; and a trigger system disposed on the lug and operatively associated with the pin , characterized in that the trigger system includes a slider block , a channel , a trigger and a spring , and wherein the trigger system when actuated by movement of the pin supports the pin by extending the slider block along the channel into the clearance, which causes a portion of the pin to contact a portion of the hole .