mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a first page and a second page, the first page and the second page being pivotably connected to one another at one end of each of the first page and the second page; a virtual reality viewer for viewing a virtual reality scene on an electronic display, the virtual reality viewer comprising: a display holder configured to hold the electronic display; a lens holder attached to the display holder and configured to hold lenses (114A, 114B) for viewing the virtual reality scene, characterized in that the virtual reality viewer is attached at a first side to the first page and at a second side to the second page, and the display holder and the lens holder each comprising a transverse crease configured to allow the virtual reality viewer to be collapsed around an axis associated with the transverse crease when the first page and the second page are closed. a first page and a second page, the first page and the second page being pivotably connected to one another at one end of each of the first page and the second page; a virtual reality viewer for viewing a virtual reality scene on an electronic display, the virtual reality viewer comprising: a display holder configured to hold the electronic display; a lens holder attached to the display holder and configured to hold lenses (114A, 114B) for viewing the virtual reality scene, a display holder configured to hold the electronic display; a lens holder attached to the display holder and configured to hold lenses (114A, 114B) for viewing the virtual reality scene, characterized in that the virtual reality viewer is attached at a first side to the first page and at a second side to the second page, and the display holder and the lens holder each comprising a transverse crease configured to allow the virtual reality viewer to be collapsed around an axis associated with the transverse crease when the first page and the second page are closed.
An injectable acid soluble collagen composition comprising, a neutralized solution comprising the acid soluble collagen, EDTA and a polyol, wherein said composition is injectable at neutralized pH, and wherein said acid soluble collagen undergoes fibrillogenesis upon exposure to ion-containing fluids to form an opaque collagen fibril matrix.
A method for predicting power-delivery performance for a battery, comprising: retrieving a plurality of battery operating parameters (106, 108, 110, 112) for a selected discharge cycle; calculating an offset indicative of a difference between a modeled internal resistance of the battery and an observed internal resistance generated from a calibration discharge cycle of the battery prior to the selected discharge cycle, wherein the offset is calculated by using a model that describes a relationship between battery internal resistance and charge state; and outputting a battery power-delivery performance prediction based on an offset-corrected internal resistance indicative of a difference between a modeled internal resistance based on the plurality of battery operating parameters (106, 108, 110, 112) and the offset. retrieving a plurality of battery operating parameters (106, 108, 110, 112) for a selected discharge cycle; calculating an offset indicative of a difference between a modeled internal resistance of the battery and an observed internal resistance generated from a calibration discharge cycle of the battery prior to the selected discharge cycle, wherein the offset is calculated by using a model that describes a relationship between battery internal resistance and charge state; and outputting a battery power-delivery performance prediction based on an offset-corrected internal resistance indicative of a difference between a modeled internal resistance based on the plurality of battery operating parameters (106, 108, 110, 112) and the offset.
A power cable comprising: a center conductor layer; an inner semiconducting layer provided on an outer surface of the center conductor layer; an insulating layer provided on an outer surface of the inner semiconducting layer; an outer semiconducting layer provided on an outer surface of the insulating layer; a metal layer provided on an outer surface of the outer semiconducting layer, the metal layer including a plurality of metal wires; a watertight layer provided on an outer surface of the metal layer; an adhesive layer provided on an outer surface of the watertight layer and having a thickness of 1 to 5 mm; and a jacket layer provided on an outer surface of the adhesive layer, characterized in that the adhesive layer has a density of 0.93 g/cm 3 or greater and a degree of crystallinity of greater than 50%. a center conductor layer; an inner semiconducting layer provided on an outer surface of the center conductor layer; an insulating layer provided on an outer surface of the inner semiconducting layer; an outer semiconducting layer provided on an outer surface of the insulating layer; a metal layer provided on an outer surface of the outer semiconducting layer, the metal layer including a plurality of metal wires; a watertight layer provided on an outer surface of the metal layer; an adhesive layer provided on an outer surface of the watertight layer and having a thickness of 1 to 5 mm; and a jacket layer provided on an outer surface of the adhesive layer, characterized in that the adhesive layer has a density of 0.93 g/cm 3 or greater and a degree of crystallinity of greater than 50%.
A method of controlling a mobile agricultural machine (102; 200), the method comprising: detecting a target value setting input identifying a target metric value for a quality metric representing a performance characteristic of the mobile agricultural machine (102; 200) and having an inverse relationship to machine speed; receiving machine data indicative of operating parameters of the mobile agricultural machine (102; 200); generating, based on the machine data, a current metric value for the quality metric; determining a target machine speed based on the current metric value relative to the target metric value; and outputting a control instruction that controls a propulsion subsystem configured to drive one or more ground engaging traction elements of the mobile agricultural machine (102; 200) based on the target machine speed; characterized by identifying a weighting parameter that defines an extent to which a ride quality parameter representing a desired smoothness of a ride experience by an operator of the agricultural machine and/or a lateral offset parameter representing a difference between a position of the mobile agricultural machine and a predefined path is considered in determining how much to adjust machine speed, given the difference between the current metric value and the target metric value; and by determining a target machine speed based on applying the weighting parameter to the current metric value. detecting a target value setting input identifying a target metric value for a quality metric representing a performance characteristic of the mobile agricultural machine (102; 200) and having an inverse relationship to machine speed; receiving machine data indicative of operating parameters of the mobile agricultural machine (102; 200); generating, based on the machine data, a current metric value for the quality metric; determining a target machine speed based on the current metric value relative to the target metric value; and outputting a control instruction that controls a propulsion subsystem configured to drive one or more ground engaging traction elements of the mobile agricultural machine (102; 200) based on the target machine speed; characterized by identifying a weighting parameter that defines an extent to which a ride quality parameter representing a desired smoothness of a ride experience by an operator of the agricultural machine and/or a lateral offset parameter representing a difference between a position of the mobile agricultural machine and a predefined path is considered in determining how much to adjust machine speed, given the difference between the current metric value and the target metric value; and by determining a target machine speed based on applying the weighting parameter to the current metric value.
A method for a driver assistance system, including i) at least one sensor unit for detecting the surroundings ii) a first control unit with means - for calculating a surroundings model with a high degree of precision based on data from the at least one sensor unit, and - for calculating a control variable for a driver assistance application, and - for outputting a first control signal for an actuator in accordance with the calculated control variable iii) an actuator with an actuator control unit iv) a second control unit for calculating a second control variable for a reduced driver assistance application and a second control signal for the actuator based on data from the at least one sensor unit, wherein the second control unit is arranged in the sensor unit or in the actuator unit, characterized in that - a third control signal is determined for triggering the actuator in the event that the first control signal is not available, wherein - the value of the second control signal is adopted for the third control signal, or - a third control signal for triggering the actuator is calculated based on the last output first control signal(s) and the second control signal, or - the surroundings model calculated by the first control unit is transmitted to the second control unit and a third control signal is calculated based on said model. i) at least one sensor unit for detecting the surroundings ii) a first control unit with means - for calculating a surroundings model with a high degree of precision based on data from the at least one sensor unit, and - for calculating a control variable for a driver assistance application, and - for outputting a first control signal for an actuator in accordance with the calculated control variable - for calculating a surroundings model with a high degree of precision based on data from the at least one sensor unit, and - for calculating a control variable for a driver assistance application, and - for outputting a first control signal for an actuator in accordance with the calculated control variable iii) an actuator with an actuator control unit iv) a second control unit for calculating a second control variable for a reduced driver assistance application and a second control signal for the actuator based on data from the at least one sensor unit, wherein the second control unit is arranged in the sensor unit or in the actuator unit, - a third control signal is determined for triggering the actuator in the event that the first control signal is not available, wherein - the value of the second control signal is adopted for the third control signal, or - a third control signal for triggering the actuator is calculated based on the last output first control signal(s) and the second control signal, or - the surroundings model calculated by the first control unit is transmitted to the second control unit and a third control signal is calculated based on said model.
Apparatus for temporarily holding back a tensioned rope from a pair of bollard pins on a deck of a vessel, the apparatus comprising: a wedge thimble inserted or insertable into an eye at an upper end of the rope; a pair of bollard pins that are aligned with each other on an axis that is transverse to a longitudinal direction of the rope in use; and at least one support part coupled to the pair of bollard pins, wherein the at least one support part comprises a pair of structures cooperable with the pair of bollard pins and joined by a cross-member, and at least one support arm positioned to extend away from one of the bollard pins; and a locking element positionable to act between the wedge thimble and the pair of bollard pins in use, the locking element comprising an elongate rod arranged to be inserted into a bore of the wedge thimble to extend transversely to a longitudinal direction of the rope in use, and to cooperate with the pair of bollard pins via a recessed free end of the support arm of the at least one support part that is shaped to complement the elongate rod of the locking element to transfer tension load from the rope to the bollard pins. a wedge thimble inserted or insertable into an eye at an upper end of the rope; a pair of bollard pins that are aligned with each other on an axis that is transverse to a longitudinal direction of the rope in use; and at least one support part coupled to the pair of bollard pins, wherein the at least one support part comprises a pair of structures cooperable with the pair of bollard pins and joined by a cross-member, and at least one support arm positioned to extend away from one of the bollard pins; and a locking element positionable to act between the wedge thimble and the pair of bollard pins in use, the locking element comprising an elongate rod arranged to be inserted into a bore of the wedge thimble to extend transversely to a longitudinal direction of the rope in use, and to cooperate with the pair of bollard pins via a recessed free end of the support arm of the at least one support part that is shaped to complement the elongate rod of the locking element to transfer tension load from the rope to the bollard pins.
A composition comprising a mussel adhesive protein for use in the treatment or prevention of melanin pigmentation selected from the group: chloasma, freckles, melanosis and chromatosis, wherein the MAP comprises one or more of the subtypes selected from the group mefp-1, mefp-2, mefp-3, mefp-4, mefp-5 and mefp-6.
Method for hydrating a cohesive soil by electro-osmosis, comprising the following steps: - providing a supply of direct electrical voltage connected to a positive electrode and to a negative electrode; - inserting the negative electrode into the soil to be hydrated; - inserting the positive electrode into the soil at a pre-determined distance from the negative electrode; - supplying water to a pre-determined depth of at least 20 cm into a portion of soil between the two electrodes;- applying a direct voltage of predetermined value between the positive electrode and the negative electrode; - drilling the soil to obtain at least one hole of predetermined depth, characterized in that the method comprises the further step of - housing a conduit within the hole, the step of inserting the positive electrode into the soil and the step of supplying water being carried out through said conduit. - providing a supply of direct electrical voltage connected to a positive electrode and to a negative electrode; - inserting the negative electrode into the soil to be hydrated; - inserting the positive electrode into the soil at a pre-determined distance from the negative electrode; - supplying water to a pre-determined depth of at least 20 cm into a portion of soil between the two electrodes;- applying a direct voltage of predetermined value between the positive electrode and the negative electrode; - drilling the soil to obtain at least one hole of predetermined depth, characterized in that the method comprises the further step of - housing a conduit within the hole, the step of inserting the positive electrode into the soil and the step of supplying water being carried out through said conduit.
A method of allocating transmission power in wireless communications, comprising: determining, by a UE, whether data is to be transmitted on an uplink control channel to a network entity in one or more upcoming transmission time intervals, TTIs, based on information received from the network entity; and allocating transmission power to an uplink enhanced dedicated channel in the one or more upcoming TTIs based at least in part on the determining, wherein the determining whether the data is to be transmitted on the uplink control channel comprises determining whether acknowledgement feedback data is to be transmitted in the one or more upcoming TTIs, and wherein determining whether acknowledgement feedback data is to be transmitted in the one or more upcoming TTIs is based at least in part on determining one or more previous TTIs during which one or more data transmissions to be acknowledged are received over a downlink shared channel. determining, by a UE, whether data is to be transmitted on an uplink control channel to a network entity in one or more upcoming transmission time intervals, TTIs, based on information received from the network entity; and allocating transmission power to an uplink enhanced dedicated channel in the one or more upcoming TTIs based at least in part on the determining, wherein the determining whether the data is to be transmitted on the uplink control channel comprises determining whether acknowledgement feedback data is to be transmitted in the one or more upcoming TTIs, and wherein determining whether acknowledgement feedback data is to be transmitted in the one or more upcoming TTIs is based at least in part on determining one or more previous TTIs during which one or more data transmissions to be acknowledged are received over a downlink shared channel.
Cache controller (120, 420, 520, 620) for use in a system (180, 480, 580, 680), the system comprising an image client (100, 400, 500, 600) and an image server (140, 440, 540, 640), the image client enabling a user to navigate through image data having at least three spatial dimensions by displaying views of the image data that are obtained from the image server in dependence on navigation requests of the user, and the cache controller comprising: - a processor configured for obtaining content data indicative of a content shown in a current view of the image client, the current view representing a first viewpoint in the three spatial dimensions of the image data; - the processor being further configured for predicting a view request of the image client in dependence on the content data, the view request corresponding to a view representing a second viewpoint in the three spatial dimensions of the image data; and - a communication means configured to obtain the view from the image server in dependence on the view request, and to cache the view in a cache (130, 430, 530, 630); wherein the processor is configured for: a) obtaining the content data for performing an image analysis of the current view for obtaining an object within the current view and an orientation of the object within the current view; and b) predicting a view request of the image client associated with an adjacent view, adjacent to the current view along the orientation of the object, wherein the object is partially shown in the current view, and wherein the processor is configuring to use geometrical extrapolation of the orientation of the object to determine in which adjacent views other parts of the object will be visible. - a processor configured for obtaining content data indicative of a content shown in a current view of the image client, the current view representing a first viewpoint in the three spatial dimensions of the image data; - the processor being further configured for predicting a view request of the image client in dependence on the content data, the view request corresponding to a view representing a second viewpoint in the three spatial dimensions of the image data; and - a communication means configured to obtain the view from the image server in dependence on the view request, and to cache the view in a cache (130, 430, 530, 630); a) obtaining the content data for performing an image analysis of the current view for obtaining an object within the current view and an orientation of the object within the current view; and b) predicting a view request of the image client associated with an adjacent view, adjacent to the current view along the orientation of the object, wherein the object is partially shown in the current view, and wherein the processor is configuring to use geometrical extrapolation of the orientation of the object to determine in which adjacent views other parts of the object will be visible.
An apparatus comprising: means for initialising trainable parameters of a receiver (40, 72) of a transmission system, wherein the receiver comprises a demodulation module (42, 73) for demodulating received symbols, a quantization module (44, 74) for generating quantized versions of the demodulated symbols and a decoder (46, 75) for generating a decoded output derived from the quantized versions of the demodulated symbols, wherein the demodulation module has at least some trainable weights and the quantization module has at least some trainable weights; means for receiving a first training sequence of messages at the receiver; means (52, 78) for obtaining or generating a loss function; and means (54, 79) for updating at least some of the trainable parameters of the receiver based on the loss function, wherein said means for updating at least some of the trainable parameters of the receiver comprises means for updating at least some of the trainable weights of the demodulation module and means for updating at least some of the trainable weights of the quantization module. means for initialising trainable parameters of a receiver (40, 72) of a transmission system, wherein the receiver comprises a demodulation module (42, 73) for demodulating received symbols, a quantization module (44, 74) for generating quantized versions of the demodulated symbols and a decoder (46, 75) for generating a decoded output derived from the quantized versions of the demodulated symbols, wherein the demodulation module has at least some trainable weights and the quantization module has at least some trainable weights; means for receiving a first training sequence of messages at the receiver; means (52, 78) for obtaining or generating a loss function; and means (54, 79) for updating at least some of the trainable parameters of the receiver based on the loss function, wherein said means for updating at least some of the trainable parameters of the receiver comprises means for updating at least some of the trainable weights of the demodulation module and means for updating at least some of the trainable weights of the quantization module.