mhurhangee/patent-ind-claim-en huggingface dataset:
A method for training a machine for automatizing lighting control actions, wherein the method comprises the steps of: - controlling one or more lighting devices (110a-d) to render a first light effect based on a first set of control parameters; - controlling the one or more lighting devices to render a second light effect based on a second set of control parameters by transitioning over a transitioning time period from the first light effect to the second light effect; - receiving a feedback from a user during a feedback time period; characterised in that wherein if the feedback has been received within a predetermined time period during the feedback time period; - associating the feedback with the transition; and wherein if the feedback has been received after the predetermined time period during the feedback time period; - associating the feedback with the second light effect; and wherein the method further comprises: - training the machine based on the associated feedback; wherein the transition is characterized by transition characteristics, and wherein the machine training comprises determining the second set of control parameters and/or the transition characteristics. - controlling one or more lighting devices (110a-d) to render a first light effect based on a first set of control parameters; - controlling the one or more lighting devices to render a second light effect based on a second set of control parameters by transitioning over a transitioning time period from the first light effect to the second light effect; - receiving a feedback from a user during a feedback time period; characterised in that wherein if the feedback has been received within a predetermined time period during the feedback time period; - associating the feedback with the transition; and - associating the feedback with the transition; and wherein if the feedback has been received after the predetermined time period during the feedback time period; - associating the feedback with the second light effect; and - associating the feedback with the second light effect; and wherein the method further comprises: - training the machine based on the associated feedback; wherein the transition is characterized by transition characteristics, and wherein the machine training comprises determining the second set of control parameters and/or the transition characteristics. - training the machine based on the associated feedback; wherein the transition is characterized by transition characteristics, and wherein the machine training comprises determining the second set of control parameters and/or the transition characteristics.
Door, in particular a quick-action roller door, with a flexible door leaf with a vertical running direction for purposes of closing a door opening bounded by a door frame , with a drive for purposes of opening and closing the door, with a pressure application device with which the door leaf can be pressed against the door frame in its closed position, wherein the pressure application device has a pressure application frame , which covers the door leaf in its closed position, at least on sections of the two vertically extending side regions of the door leaf , characterised in that , the pressure application frame has a rotatably mounted guide roller on its upper side for purposes of deflection of the door leaf , and a door leaf winder is provided above the guide roller such that when the door leaf winder is rotated in the winding direction, a transverse force is exerted on the guide roller in the direction away from the door frame .
A method of receiving an offer from an entrusting device to access one or more interfaces of one or more devices, comprising: storing in a relationship trust model of a first device, one or more relationship groupings of contacts of a user of the first device; storing, in one or more permission setup tables , for each of the one or more devices, an indication of which of the one or more relationship groupings are permitted to access the one or more interfaces of the one or more devices; receiving , at the trust model module of the first device, the offer from the entrusting device to provide the first device with permission to access the one or more interfaces of the one or more devices, the one or more interfaces allowing access to one or more functions of the one or more devices; and determining, by the trust model module of the first device, whether or not to accept the offer from the entrusting device to provide the permission to access the one or more interfaces of the one or more devices, wherein the first device determines whether or not to accept the offer from the entrusting device to provide the permission to access the one or more interfaces of the one or more devices based on a relationship grouping permitted to access the one or more interfaces of the one or more devices matching a relationship between the first device and the entrusting device and/or a relationship between the first device and the one or more devices. storing in a relationship trust model of a first device, one or more relationship groupings of contacts of a user of the first device; storing, in one or more permission setup tables , for each of the one or more devices, an indication of which of the one or more relationship groupings are permitted to access the one or more interfaces of the one or more devices; receiving , at the trust model module of the first device, the offer from the entrusting device to provide the first device with permission to access the one or more interfaces of the one or more devices, the one or more interfaces allowing access to one or more functions of the one or more devices; and determining, by the trust model module of the first device, whether or not to accept the offer from the entrusting device to provide the permission to access the one or more interfaces of the one or more devices, wherein the first device determines whether or not to accept the offer from the entrusting device to provide the permission to access the one or more interfaces of the one or more devices based on a relationship grouping permitted to access the one or more interfaces of the one or more devices matching a relationship between the first device and the entrusting device and/or a relationship between the first device and the one or more devices.
A system, comprising: a load device coupled to an output of an electronic control unit (ECU) via a coaxial cable; and the ECU , comprising: a power supply configured to provide power for the load device characterized in that the ECU further comprising; a power over coaxial cable (PoC) filter coupled to the output; a high side switch (HSS) coupled to the power supply and to the PoC filter via an HSS output line; a diode disposed in the HSS output line and configured to substantially eliminate current flow from the output towards the HSS , while allowing current to flow from the HSS towards the load device from the HSS ; a diode resistor (RD) disposed in parallel with the diode an configured to allow a current to flow past the diode towards the HSS while the HSS is in an off mode and a short-to-battery scenario is occurring; and a pull down resistor (RPD) disposed between the output line of the HSS and a ground prior to the diode , and configured to pull the voltage at the HSS output down to zero volts while the HSS is in the off mode and an open load scenario has occurred. a load device coupled to an output of an electronic control unit (ECU) via a coaxial cable; and the ECU , comprising: a power supply configured to provide power for the load device characterized in that the ECU further comprising; a power over coaxial cable (PoC) filter coupled to the output; a high side switch (HSS) coupled to the power supply and to the PoC filter via an HSS output line; a diode disposed in the HSS output line and configured to substantially eliminate current flow from the output towards the HSS , while allowing current to flow from the HSS towards the load device from the HSS ; a diode resistor (RD) disposed in parallel with the diode an configured to allow a current to flow past the diode towards the HSS while the HSS is in an off mode and a short-to-battery scenario is occurring; and a pull down resistor (RPD) disposed between the output line of the HSS and a ground prior to the diode , and configured to pull the voltage at the HSS output down to zero volts while the HSS is in the off mode and an open load scenario has occurred. a power supply configured to provide power for the load device characterized in that the ECU further comprising; a power over coaxial cable (PoC) filter coupled to the output; a high side switch (HSS) coupled to the power supply and to the PoC filter via an HSS output line; a diode disposed in the HSS output line and configured to substantially eliminate current flow from the output towards the HSS , while allowing current to flow from the HSS towards the load device from the HSS ; a diode resistor (RD) disposed in parallel with the diode an configured to allow a current to flow past the diode towards the HSS while the HSS is in an off mode and a short-to-battery scenario is occurring; and a pull down resistor (RPD) disposed between the output line of the HSS and a ground prior to the diode , and configured to pull the voltage at the HSS output down to zero volts while the HSS is in the off mode and an open load scenario has occurred.
An electronic device comprising: a housing comprising a first space connected with an outside of the electronic device ; a speaker device disposed inside the housing ; a speaker housing comprising a second space formed to be spatially separated from an inner space of the electronic device by the speaker device inside the housing , and disposed to connect the second space to the first space ; a first atmospheric pressure sensor disposed to be exposed to the first space , and having a waterproof function; a second atmospheric pressure sensor disposed in the inner space ; and a processor , wherein the processor is configured to detect immersion in water or immersion removal of the electronic device based on an atmospheric pressure change identified through the first atmospheric pressure sensor , and to control a water-repellent operation through the speaker device based on a difference value between first atmospheric pressure information obtained from the first atmospheric pressure sensor and second atmospheric pressure information obtained through the second atmospheric pressure sensor . a housing comprising a first space connected with an outside of the electronic device ; a speaker device disposed inside the housing ; a speaker housing comprising a second space formed to be spatially separated from an inner space of the electronic device by the speaker device inside the housing , and disposed to connect the second space to the first space ; a first atmospheric pressure sensor disposed to be exposed to the first space , and having a waterproof function; a second atmospheric pressure sensor disposed in the inner space ; and a processor , wherein the processor is configured to detect immersion in water or immersion removal of the electronic device based on an atmospheric pressure change identified through the first atmospheric pressure sensor , and to control a water-repellent operation through the speaker device based on a difference value between first atmospheric pressure information obtained from the first atmospheric pressure sensor and second atmospheric pressure information obtained through the second atmospheric pressure sensor .
An image processing apparatus , comprising: an inverse transformation portion configured to obtain inverse-quantized coefficients; and a control portion configured to, in a case where inverse primary transformation as inverse transformation of primary transformation as transformation processing for a predictive residue as a difference between an image and a predictive image of the image and inverse secondary transformation as inverse transformation of secondary transformation as transformation processing for a primary transformation coefficient obtained by subjecting the predictive residue to the primary transformation are caused to be skipped for a 64 x 64 transform block, also cause bandwidth limitation for the inverse quantized coefficients to be skipped, wherein the bandwidth limitation comprises lowpass filter processing. an inverse transformation portion configured to obtain inverse-quantized coefficients; and a control portion configured to, in a case where inverse primary transformation as inverse transformation of primary transformation as transformation processing for a predictive residue as a difference between an image and a predictive image of the image and inverse secondary transformation as inverse transformation of secondary transformation as transformation processing for a primary transformation coefficient obtained by subjecting the predictive residue to the primary transformation are caused to be skipped for a 64 x 64 transform block, also cause bandwidth limitation for the inverse quantized coefficients to be skipped, wherein the bandwidth limitation comprises lowpass filter processing.
A method for aligning a plurality of seismic images associated with a subsurface region of the Earth, comprising: receiving, via a processor , the plurality of seismic images acquired via one or more seismic surveys, wherein the plurality of seismic images represents the subsurface region of the Earth; determining, via the processor , a first respective relative shift volume between a first seismic image of the plurality of seismic images and a second seismic image of the plurality of seismic images, a second respective relative shift volume between the first seismic image and a third seismic image of the plurality of seismic images, and a third respective relative shift volume between the second seismic image of the plurality of seismic images and the third seismic image of the plurality of seismic images; determining a first shift volume associated with the first seismic image and a second shift volume associated with the second seismic image based on the first, second, and third respective relative shift volumes; and applying, via the processor , the first shift volume to the first seismic image and the second shift volume to the second seismic image to generate a first shifted seismic image and a second shifted seismic image, respectively, wherein the first and second shifted seismic images are aligned with each other and indicate one or more properties of hydrocarbon deposits within the subsurface region of the Earth. receiving, via a processor , the plurality of seismic images acquired via one or more seismic surveys, wherein the plurality of seismic images represents the subsurface region of the Earth; determining, via the processor , a first respective relative shift volume between a first seismic image of the plurality of seismic images and a second seismic image of the plurality of seismic images, a second respective relative shift volume between the first seismic image and a third seismic image of the plurality of seismic images, and a third respective relative shift volume between the second seismic image of the plurality of seismic images and the third seismic image of the plurality of seismic images; determining a first shift volume associated with the first seismic image and a second shift volume associated with the second seismic image based on the first, second, and third respective relative shift volumes; and applying, via the processor , the first shift volume to the first seismic image and the second shift volume to the second seismic image to generate a first shifted seismic image and a second shifted seismic image, respectively, wherein the first and second shifted seismic images are aligned with each other and indicate one or more properties of hydrocarbon deposits within the subsurface region of the Earth.
A control device for industrial machines with controlled movement drives for machine components, comprising a man-machine interface with at least one operating element for manually influencing or presetting adjustment movements of at least one of the machine components, wherein at least one operating element is configured as a rotary actuator operating element with an actuation member supported being rotatable about an axis of rotation , which actuation member can be rotated by the application of an actuating torque (M B ) by an operator, wherein the actuation member or its axis of rotation is in mechanical interaction with a controlled variable means generating rotational resistance or is motion-coupled thereto, wherein an electronic evaluation and control device is configured for the variable setting of rotational resistances of the means generating rotational resistance , characterized in that the evaluation and control device is configured to provide at least one toggle switch operating mode, in which the means generating rotational resistance can be controlled by the evaluation and control device in such a way that the means generating rotational resistance builds up or generates a braking or blocking torque (M BR , M BL ) after a predefined angle of rotation (α 1 ) of the actuation member has been covered, which inhibits, increasingly inhibits or prevents further rotatability of the actuation member , wherein a switching state of the rotary actuator operating element is activated or is deemed to be activated, as long as an actuating torque (Mu) of the operator acting against the braking or blocking torque (M BR , M BL ) is equal to the blocking torque (M B ) or corresponds to the blocking torque (M B ) or exceeds a comparatively lower deactivation threshold value (M D ), and that the switching state of the rotary actuator operating element is inactive or is deemed to be deactivated when the actuating torque (Mu) exerted by the operator falls below the deactivation threshold value (M D ) or is zero.
A coated substrate, comprising: a cellulose-based substrate, preferably paperboard, and an aqueous-based polymer coating on a surface of the cellulose-based substrate, wherein the aqueous-based polymer coating has been surface treated using corona treatment. a cellulose-based substrate, preferably paperboard, and an aqueous-based polymer coating on a surface of the cellulose-based substrate, wherein the aqueous-based polymer coating has been surface treated using corona treatment.
A method for identifying individual structural elements of a structural pattern , which is projected onto a scene , in camera images, wherein a projector is used to project the structural pattern onto the scene and wherein a first camera (M) and at least one second camera (H, V) are used to pick up the structural pattern , which is projected onto the scene , wherein the first camera (M) and the at least one second camera (H; V) are positioned at a distance from one another, and wherein the projector is positioned outside a straight connecting line of the first and at least one second camera (M, H, V) at a distance from the first camera (M) and from the at least one second camera (H, V), wherein, with respect to a structural element that is to be identified in the camera image of the first camera (M), that structural element is determined in the camera image of the at least one second camera (V, H) which can be associated one-to-one with the structural element that is to be identified in the camera image of the first camera (M), by way of calibration data which for the individual structural elements has in each case combinations of first parameters, which correlate the respective structural element with the location and orientation of the first camera (M) and of the projector , and of at least second parameters, which correlate the respective structural element with the location and orientation of the at least one second camera (H, V) and of the projector , which calibration data is obtained using the first and at least one second camera (M, H, V) by way of recording calibration images of the structural pattern that is projected by the projector , characterized in that the first parameters for the individual structural elements comprise gradients (StM) and points of intersection (SPM) with a first reference axis of first illumination epipolar lines related to the first camera (M), and the at least second parameters for the individual structural elements comprise gradients (StH, StV) and points of intersection (SPH, SPV) with a second reference axis of illumination epipolar lines related to the at least one second camera (H, V), wherein the illumination epipolar lines are located in the image plane of the respective camera, and wherein each imaged structural element is always located on the same illumination epipolar line and its site on this illumination epipolar line depends on the distance of the respective projected structural element from the camera.
An electronic device comprising: a housing ; a display disposed on a front surface of the housing ; a rear cover disposed on a rear surface of the housing ; an antenna structure positioned between the display and the rear cover and supporting a frequency band operated in at least a 5th generation, 5G, communication scheme; and a spacer structure interposed between the antenna structure and the rear cover, wherein the spacer structure comprises a plurality of flexible printed circuit boards, FPCBs, (602c-1, 602c-2) and a coupling member interposed between the plurality of FPCBs. a housing ; a display disposed on a front surface of the housing ; a rear cover disposed on a rear surface of the housing ; an antenna structure positioned between the display and the rear cover and supporting a frequency band operated in at least a 5th generation, 5G, communication scheme; and a spacer structure interposed between the antenna structure and the rear cover, wherein the spacer structure comprises a plurality of flexible printed circuit boards, FPCBs, (602c-1, 602c-2) and a coupling member interposed between the plurality of FPCBs.
A method for treating a metal substrate comprising contacting the substrate with a pretreatment composition comprising: (a) a group IIIB and/or IVB metal; (b) an electropositive metal being more electropositive than the metal substrate; (c) free fluorine; (d) a metal fluoride salt formed from a metal which forms a fluoride salt having a pK sp of at least 11; (e) water; wherein the level of free fluorine in the pretreatment composition will increase over time as metal is pretreated therewith; and supplying a metal containing compound to the pretreatment composition, wherein the metal that forms the metal fluoride salt having a pK sp of at least 11 is supplied in an amount sufficient to maintain the level of free fluorine in the composition to no less than 0.1 ppm and no more than 300 ppm. (a) a group IIIB and/or IVB metal; (b) an electropositive metal being more electropositive than the metal substrate; (c) free fluorine; (d) a metal fluoride salt formed from a metal which forms a fluoride salt having a pK sp of at least 11; (e) water;