mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a wearable device configured for automatic and continuous or intermittent capture of images comprising a data processing unit , a camera unit , and at least one motion sensor , the method comprising: operating the wearable device in a ready state , wherein the camera unit is active and the data processing unit is in a low power mode, operating the wearable device in a take photo state , wherein a photo is captured by means of the camera unit , and operating the wearable device in a sleep state , wherein the camera unit and the data processing unit are in a low power mode, and wherein the wearable device is caused to transition from the ready state to the take photo state in response to a signal from the motion sensor representing a predetermined motion pattern, and wherein the wearable device is caused to transition from the take photo state to the ready state in response to a signal from the motion sensor being above a first threshold level and/or a signal from the camera unit representing a light level being higher than a predetermined second threshold value, and wherein the wearable device is caused to transition from the take photo state to the sleep state in response to a signal from the motion sensor being below the first threshold level and/or a signal from the camera unit representing a light level being lower than the predetermined second threshold value, and wherein the wearable device is caused to transition from the sleep state to the take photo state in response to a signal from the motion sensor representing the predetermined motion pattern. operating the wearable device in a ready state , wherein the camera unit is active and the data processing unit is in a low power mode, operating the wearable device in a take photo state , wherein a photo is captured by means of the camera unit , and operating the wearable device in a sleep state , wherein the camera unit and the data processing unit are in a low power mode, and wherein the wearable device is caused to transition from the ready state to the take photo state in response to a signal from the motion sensor representing a predetermined motion pattern, and wherein the wearable device is caused to transition from the take photo state to the ready state in response to a signal from the motion sensor being above a first threshold level and/or a signal from the camera unit representing a light level being higher than a predetermined second threshold value, and wherein the wearable device is caused to transition from the take photo state to the sleep state in response to a signal from the motion sensor being below the first threshold level and/or a signal from the camera unit representing a light level being lower than the predetermined second threshold value, and wherein the wearable device is caused to transition from the sleep state to the take photo state in response to a signal from the motion sensor representing the predetermined motion pattern.
A security system, comprising: a security panel operable to communicate with a support site via a lightweight binary-based protocol to echo a security panel user interface at the support site in order that support personnel at the support site see exactly what is shown on the security panel user interface , this binary protocol facilitates screen IDs, Event IDs, UI control IDs, sensor State IDs, events, and other information to be displayed in the client software that is a replica of that of the actual security panel , wherein the data being exchanged between the panel and the client software is controlled to a compact size by the binary protocol that deals mainly with IDs instead of entire screen data wherein, the security panel is operable to provide two-way voice communication between the security panel and the support site .
A palletless packaging of a product stack consisting of a top layer , a bottom layer and film layers enclosing the product stack , wherein the film layers fix the top layer and the bottom layer to the product stack , wherein the bottom layer consists of a flexible material and the bottom layer encloses the edges of the product stack with an excess length , characterized in that the bottom layer consists of a flexible composite of a film with a tape fabric and is placed on the product stack in such a way that the film side faces the product stack and the side with the tape fabric faces outwards.
Method for measuring a chemical composition of a sample in powder, particle or granule form and comprising at least two chemical components, whereby the method comprises the steps of: - illuminating an interior of an integrating cavity by a light source of a wavelength range , the integrating cavity having a white diffusely reflective interior to render light in the integrating cavity diffuse; - detecting an optical signal from the integrating cavity using a sensor , and - indicating the chemical composition of the sample by spectral analysis, characterized in bringing the sample into the integrating cavity as a stream being conveyed through said integrating cavity, whereby the sample forms an optically thin layer of particles in at least one dimension inside the integrating cavity and is exposed to the diffuse light of the integrating cavity . - illuminating an interior of an integrating cavity by a light source of a wavelength range , the integrating cavity having a white diffusely reflective interior to render light in the integrating cavity diffuse; - detecting an optical signal from the integrating cavity using a sensor , and - indicating the chemical composition of the sample by spectral analysis,
An apparatus for controlling a trajectory of a borehole being drilled into the earth, the apparatus comprising: a drilling system including a drill tubular, a disintegrating device , and a steering system coupled to the drill tubular configured to steer the drilling system , and at least one control unit , the drilling system configured to drill the borehole by receiving control outputs from the at least one control unit (40, ... , 804) for controlling parameters of the drilling system , the at least one control unit (40, ... , 804) configured to provide the control outputs to the steering system , and characterized in that : the at least one control unit is configured to provide depth-based control, wherein the control unit receives and uses data indicative of drilled distance to provide the depth-based control, wherein new control outputs are calculated at: (i) predetermined drilled distances; or (ii) predetermined drilled distance intervals; and wherein the control outputs are calculated using an equation that is time-independent. a drilling system including a drill tubular, a disintegrating device , and a steering system coupled to the drill tubular configured to steer the drilling system , and at least one control unit , the drilling system configured to drill the borehole by receiving control outputs from the at least one control unit (40, ... , 804) for controlling parameters of the drilling system , the at least one control unit (40, ... , 804) configured to provide the control outputs to the steering system , and characterized in that : the at least one control unit is configured to provide depth-based control, wherein the control unit receives and uses data indicative of drilled distance to provide the depth-based control, wherein new control outputs are calculated at: (i) predetermined drilled distances; or (ii) predetermined drilled distance intervals; and wherein the control outputs are calculated using an equation that is time-independent. the at least one control unit is configured to provide depth-based control, wherein the control unit receives and uses data indicative of drilled distance to provide the depth-based control, wherein new control outputs are calculated at: (i) predetermined drilled distances; or (ii) predetermined drilled distance intervals; and wherein the control outputs are calculated using an equation that is time-independent.
A transformer radiator including an inlet manifold , an outlet manifold and a heat exchange fin extending between and connected to the inlet and outlet manifolds, wherein the heat exchange fin defines at least one oil flow passage (16.1) to convey transformer oil, which, in use, enters the radiator through the inlet manifold , to the outlet manifold , characterised in that the heat exchange fin is provided by a single component having a continuously undulating profile formed by alternating bends (16.2) and straight, parallel turns (16.3) between the bends (16.2), wherein the manifolds extend transversely to the turns (16.3) of the undulating profile, and wherein the single component of the heat exchange fin comprises a pair of metal sheet portions sealed to one another peripherally and separated from one another at least at one location inside the periphery so as to form the at least one oil flow passage (16.1).
Method for measuring the dielectric properties of a sample with a scanning probe microscope comprising an oscillating cantilever probe, a sample and a source of electromagnetic radiation , which method comprises the steps of a) inducing oscillations of the cantilever by a driving piezo at at least two frequencies f 1 and f 2 , wherein f 1 is within the full width at half maximum of a mechanical oscillation resonance frequency f C1 of the cantilever and f 2 is within the full width at half maximum of another mechanical oscillation resonance frequency f C2 of the cantilever ; b) interacting the probe with the sample ; c) illuminating the probe or a region of the sample including the area of contact with the probe with the electromagnetic radiation at a modulation frequency f m ; and d) measuring a change in any one of the mechanical oscillation resonance frequencies of the cantilever f C1 or f C2 , due to the modulated radiation at the modulation frequency f m , in order to determine dielectric properties of the sample . a) inducing oscillations of the cantilever by a driving piezo at at least two frequencies f 1 and f 2 , wherein f 1 is within the full width at half maximum of a mechanical oscillation resonance frequency f C1 of the cantilever and f 2 is within the full width at half maximum of another mechanical oscillation resonance frequency f C2 of the cantilever ; b) interacting the probe with the sample ; c) illuminating the probe or a region of the sample including the area of contact with the probe with the electromagnetic radiation at a modulation frequency f m ; and d) measuring a change in any one of the mechanical oscillation resonance frequencies of the cantilever f C1 or f C2 , due to the modulated radiation at the modulation frequency f m , in order to determine dielectric properties of the sample .
Method for constructing and viewing the image of a computerised model, comprising steps consisting of: - defining and applying display attributes for objects constituting the model, - storing said attributes in a memory space, - displaying the image on a viewing screen forming a screen plane, and wherein the following actions are carried out: - selecting at least one two-dimensional zone of the image, said zone being located in the screen plane, - displaying the portion of the image located outside of the selected zone , with current display attributes, - determining the list of objects to be displayed by selecting objects of the model being projected in the selected zone , - defining specific display attributes for objects to be displayed in the selected zone , - displaying the portion of image located in the selected zone , with the specific display attributes, and characterised in that : the specific display attributes are locked and it is followed, with the selected zone , the objects for which the specific display attributes have been locked when the positioning of the camera is modified. - defining and applying display attributes for objects constituting the model, - storing said attributes in a memory space, - displaying the image on a viewing screen forming a screen plane, - selecting at least one two-dimensional zone of the image, said zone being located in the screen plane, - displaying the portion of the image located outside of the selected zone , with current display attributes, - determining the list of objects to be displayed by selecting objects of the model being projected in the selected zone , - defining specific display attributes for objects to be displayed in the selected zone , - displaying the portion of image located in the selected zone , with the specific display attributes,
An extruded resin plate in which a layer containing a methacrylic resin is laminated on at least one surface of a layer containing a polycarbonate, wherein when an angle of an axis parallel to the extruding direction is defined as 0°, the absolute value of an angle of a slow axis or a fast axis of in-plane retardation is 5 to 45°, the glass transition temperature of the layer containing the methacrylic resin is 110°C or higher; when the extruded resin plate is heated at a constant temperature within a range of 75 to 100°C for 5 hours, the in-plane retardation value of at least a part of the extruded resin plate in a width direction is 50 to 330 nm both before and after the heating, the decreasing rate of the retardation value of the extruded resin plate after the heating to the retardation value thereof before the heating is lower than 30%, the ratio ((S2-S1)/S1) which is composed of the difference (S2-S1) between the linear expansion rate (S1) of the layer containing the polycarbonate and the linear expansion rate (S2) of the layer containing the methacrylic resin, and the linear expansion rate (S1) of the layer containing the polycarbonate is between -10% and +10%, and the angle of a slow axis or a fast axis of in-plane retardation, the glass transition temperature, the in-plane retardation value, the linear expansion rate, as well as the decreasing rate of the retardation value are determined as indicated in the description. the glass transition temperature of the layer containing the methacrylic resin is 110°C or higher; when the extruded resin plate is heated at a constant temperature within a range of 75 to 100°C for 5 hours, the in-plane retardation value of at least a part of the extruded resin plate in a width direction is 50 to 330 nm both before and after the heating, the decreasing rate of the retardation value of the extruded resin plate after the heating to the retardation value thereof before the heating is lower than 30%, the ratio ((S2-S1)/S1) which is composed of the difference (S2-S1) between the linear expansion rate (S1) of the layer containing the polycarbonate and the linear expansion rate (S2) of the layer containing the methacrylic resin, and the linear expansion rate (S1) of the layer containing the polycarbonate is between -10% and +10%, and the angle of a slow axis or a fast axis of in-plane retardation, the glass transition temperature, the in-plane retardation value, the linear expansion rate, as well as the decreasing rate of the retardation value are determined as indicated in the description.
A fluid dispensing system comprising: a clamp adapted to secure a hose to the fluid dispensing system, the clamp comprising: a first clamping portion configured to detachably connect with an elongated member of the fluid dispensing system , and a second clamping portion disposed adjacent to the first clamping portion , the second clamping portion is configured to hold the hose of the fluid dispensing system ; characterized in that: the fluid dispensing system comprises a fluid regulator valve and a further clamp comprising a pair of first clamping portions and an elongated second clamping portion , wherein the inner surface of the pair of first clamping portions is configured to conform to an outer surface of the elongated member and wherein the inner surface of the elongated second clamping portion is configured to conform to an outer surface of the fluid regulator valve . a clamp adapted to secure a hose to the fluid dispensing system, the clamp comprising: a first clamping portion configured to detachably connect with an elongated member of the fluid dispensing system , and a second clamping portion disposed adjacent to the first clamping portion , the second clamping portion is configured to hold the hose of the fluid dispensing system ; a first clamping portion configured to detachably connect with an elongated member of the fluid dispensing system , and a second clamping portion disposed adjacent to the first clamping portion , the second clamping portion is configured to hold the hose of the fluid dispensing system ; characterized in that: the fluid dispensing system comprises a fluid regulator valve and a further clamp comprising a pair of first clamping portions and an elongated second clamping portion , wherein the inner surface of the pair of first clamping portions is configured to conform to an outer surface of the elongated member and wherein the inner surface of the elongated second clamping portion is configured to conform to an outer surface of the fluid regulator valve . comprising a pair of first clamping portions and an elongated second clamping portion , wherein the inner surface of the pair of first clamping portions is configured to conform to an outer surface of the elongated member and wherein the inner surface of the elongated second clamping portion is configured to conform to an outer surface of the fluid regulator valve .
Electrodic apparatus for electrodeposition of non-ferrous metals, comprising: - an electrode suitable for oxygen evolution; - at least one ion-permeable screen arranged parallel to said electrode; wherein said screen comprises at least one structure of non-electrically conductive material provided with a multiplicity of spaced apart electrically conductive segments capable of conducting electrical current along a predefined direction. - an electrode suitable for oxygen evolution; - at least one ion-permeable screen arranged parallel to said electrode; wherein said screen comprises at least one structure of non-electrically conductive material provided with a multiplicity of spaced apart electrically conductive segments capable of conducting electrical current along a predefined direction.
A demolition robot, comprising; an incoming supply line (P) for hydraulic flow, an outgoing return line (T) for hydraulic flow, and an outgoing load-sensing line (LS) for sensing hydraulic load of a hydraulically energized function, characterised in that it comprises a sensing device for sensing a hydraulic pressure in the load-sensing line (LS), a regulating device comprising a pump with fixed displacement for generating a hydraulic flow, a speed adjustable permanent magnet_drive motor , a so-called PM motor, which is coupled to said pump a motor drive assembly which for revolution speed regulation of the drive motor , comprises a control unit , which is arranged to receive an electronic measurement signal from the sensing device and via control data control the revolution speed of the drive motor included in the regulating device to cause the pump to bring about a pre-determined pressure on the load-sensing line (LS). an incoming supply line (P) for hydraulic flow, an outgoing return line (T) for hydraulic flow, and an outgoing load-sensing line (LS) for sensing hydraulic load of a hydraulically energized function, characterised in that it comprises a sensing device for sensing a hydraulic pressure in the load-sensing line (LS), a regulating device comprising a pump with fixed displacement for generating a hydraulic flow, a speed adjustable permanent magnet_drive motor , a so-called PM motor, which is coupled to said pump a motor drive assembly which for revolution speed regulation of the drive motor , comprises a control unit , which is arranged to receive an electronic measurement signal from the sensing device and via control data control the revolution speed of the drive motor included in the regulating device to cause the pump to bring about a pre-determined pressure on the load-sensing line (LS).
Evaluation device for a trailer coupling provided for a towing vehicle , having a coupling carrier , which comprises, in particular, a coupling arm and at whose free end a coupling body , in particular, a coupling ball is arranged for connecting a trailer , and which coupling carrier is fixedly or movably arranged on a mount which is or can be attached to the towing vehicle , wherein the evaluation device has an input interface for a force signal (fx), which is output by a sensor arrangement which has at least one sensor and has the purpose of sensing a traction force (Fx) and/or thrust force which can be caused by a traction load acting on the coupling element during a traction operation of the trailer and represents the traction force (Fx) and/or thrust force, or has a sensor arrangement of this kind integrally, wherein the evaluation device has evaluation means for determining a trailer mass value (ah) of the trailer on the basis of the force signal (fx), wherein in that the evaluation means are configured for determining the trailer mass value (ah) on the basis of an evaluation of at least one spring parameter representing at least one spring property of the trailer coupling , in particular of the coupling carrier , characterised in that the at least one spring parameter (c) forms a component of an equation evaluated by the evaluation device which maps the trailer as a component of a single-mass sway system.
Tool for smoothing a cord of pasty adhesive material configured for its movement by an automated manipulator , the tool comprising a shim for smoothing the cord mounted on a support , where in a longitudinal direction (L1) of extension of the smoothing tool , the tool comprises successively the support and a body carrying the shim , the shim being removably mounted on the body while being immobilized on the body in the body Euclidean space and the body being removably mounted on the support in being positioned in longitudinal (L1) and transverse (T1) directions, characterized in that said body is held in a vertical direction (V1) via an elastic member which is interposed in joint engagement between the support and the body .