mhurhangee/ep-ind-claims huggingface dataset:
A charge method, comprising: after an adapter is coupled with a mobile terminal via a charging interface, communicating, by the adapter, with the mobile terminal to determine a charging mode, wherein a power wire in the charging interface is configured to charge a battery, a data wire in the charging interface is used for communication between the adapter and the mobile terminal, the adapter supports two charging modes comprising a quick charging mode and a conventional charging mode, in which a charging speed in the quick charging mode is greater than that in the conventional charging mode; under a situation of determining to charge the battery in the quick charging mode, communicating, by the adapter, with the mobile terminal to determine a charging current corresponding to the quick charging mode; characterized by adopting, by the adapter according to the charging current corresponding to the quick charging mode, a unidirectional pulse output current to perform a quick charge on the battery, wherein the quick charge comprises a current falling process, the current falling process is divided into a plurality of stages comprising a first stage and a second stage adjacent to the first stage, in which the first stage is earlier than the second stage, each stage comprises a plurality of pulses, a waveform of each pulse is same to each other within each stage, and a peak value of waveform of each pulse in the second stage is less than that in the first stage. after an adapter is coupled with a mobile terminal via a charging interface, communicating, by the adapter, with the mobile terminal to determine a charging mode, wherein a power wire in the charging interface is configured to charge a battery, a data wire in the charging interface is used for communication between the adapter and the mobile terminal, the adapter supports two charging modes comprising a quick charging mode and a conventional charging mode, in which a charging speed in the quick charging mode is greater than that in the conventional charging mode; under a situation of determining to charge the battery in the quick charging mode, communicating, by the adapter, with the mobile terminal to determine a charging current corresponding to the quick charging mode; characterized by adopting, by the adapter according to the charging current corresponding to the quick charging mode, a unidirectional pulse output current to perform a quick charge on the battery, wherein the quick charge comprises a current falling process, the current falling process is divided into a plurality of stages comprising a first stage and a second stage adjacent to the first stage, in which the first stage is earlier than the second stage, each stage comprises a plurality of pulses, a waveform of each pulse is same to each other within each stage, and a peak value of waveform of each pulse in the second stage is less than that in the first stage.
Device for printing on a surface of an object comprising - a stationary printing unit for printing on the object, the printing unit comprising an inkjet print head for creating a print on the surface of the object in an operating area of the print head, wherein the printing unit comprises multiple print heads disposed to be spaced apart from one another essentially on a horizontally-oriented circle and essentially in a radial orientation; - a movable holding unit for receiving the object in a receiving area and for the rotary movement of the object from the receiving area to the operating area of the print head on a circular path and for the linear movement of the object in the operating area of the print head during the creation of the print; and - at least one control unit for controlling the movements of the holding unit and the creation of the print, wherein the rotary movement is stopped during the linear movement and wherein the linear movement occurs on at least one section of a path that is a tangent or secant to the circular path. - a stationary printing unit for printing on the object, the printing unit comprising an inkjet print head for creating a print on the surface of the object in an operating area of the print head, wherein the printing unit comprises multiple print heads disposed to be spaced apart from one another essentially on a horizontally-oriented circle and essentially in a radial orientation; - a movable holding unit for receiving the object in a receiving area and for the rotary movement of the object from the receiving area to the operating area of the print head on a circular path and for the linear movement of the object in the operating area of the print head during the creation of the print; and - at least one control unit for controlling the movements of the holding unit and the creation of the print, wherein the rotary movement is stopped during the linear movement and wherein the linear movement occurs on at least one section of a path that is a tangent or secant to the circular path.
A hearing aid system comprising • an input transducer for converting an input sound signal comprising an information signal part of a known waveform s(t) and a background noise part to an electrical analogue input signal, • an A/D converter for converting the electrical input signal to a digital input signal, • a signal path comprising a signal processing unit for processing the digital input signal - at least for adapting the digital input signal to a user's hearing profile - and for providing a processed output signal, and • an output transducer for converting a digital or analogue electrical output signal to an output sound signal, • a signal generator for generating a predefined source signal, the hearing aid system being adapted to provide that the source signal can be added to the output of the signal processing unit or connected directly to the output transducer, and CHARACTERIZED IN THAT the hearing aid system further comprises • a matched filter receiving said analogue or digital input signal (11, 12) and optimized to improve the identification of the information signal part of a known waveform from the noisy input signal, wherein said information signal part of a known waveform s(t) is generated by said signal generator, • a detection unit for evaluating the signal from the matched filter, and • a control unit for - based on the output of the detection unit - modifying the adaptation of the input signal to a user's hearing profile performed by the signal processing unit. • an input transducer for converting an input sound signal comprising an information signal part of a known waveform s(t) and a background noise part to an electrical analogue input signal, • an A/D converter for converting the electrical input signal to a digital input signal, • a signal path comprising a signal processing unit for processing the digital input signal - at least for adapting the digital input signal to a user's hearing profile - and for providing a processed output signal, and • an output transducer for converting a digital or analogue electrical output signal to an output sound signal, • a signal generator for generating a predefined source signal, • a matched filter receiving said analogue or digital input signal (11, 12) and optimized to improve the identification of the information signal part of a known waveform from the noisy input signal, wherein said information signal part of a known waveform s(t) is generated by said signal generator, • a detection unit for evaluating the signal from the matched filter, and • a control unit for - based on the output of the detection unit - modifying the adaptation of the input signal to a user's hearing profile performed by the signal processing unit.
A method for wireless communications, comprising: determining whether an overload metric has exceeded a corresponding threshold value; characterized by modifying a transmit power of at least one uplink control channel during a first time interval if the overload metric has exceeded the corresponding threshold value, by selectively not transmitting at least a portion of the uplink control channel during an off-cycle period of the first time interval; determining, after expiration of the first time interval, whether the overload metric still exceeds the threshold value; modifying a duration of the off-cycle period based at least in part on the overload metric; and selectively not transmitting at least a portion of the uplink control channel during a second time interval for a duration of the modified off-cycle period. determining whether an overload metric has exceeded a corresponding threshold value; characterized by modifying a transmit power of at least one uplink control channel during a first time interval if the overload metric has exceeded the corresponding threshold value, by selectively not transmitting at least a portion of the uplink control channel during an off-cycle period of the first time interval; determining, after expiration of the first time interval, whether the overload metric still exceeds the threshold value; modifying a duration of the off-cycle period based at least in part on the overload metric; and selectively not transmitting at least a portion of the uplink control channel during a second time interval for a duration of the modified off-cycle period.
Method for producing a fibre composite material, which includes the following steps: a) one or more fibre bundles are drawn over one or more spreading devices into an impregnation chamber, so that at least two physically separated and spread fibre webs located above one another result; b) melt is supplied via horizontally aligned distributor beams, which are each arranged between two fibre webs; c) the individual fibre webs are led together such that they lie above one another and contact one another; d) the fibre webs led together are drawn through a take-off die at the end of the tool, the first shaping being carried out. a) one or more fibre bundles are drawn over one or more spreading devices into an impregnation chamber, so that at least two physically separated and spread fibre webs located above one another result; b) melt is supplied via horizontally aligned distributor beams, which are each arranged between two fibre webs; c) the individual fibre webs are led together such that they lie above one another and contact one another; d) the fibre webs led together are drawn through a take-off die at the end of the tool, the first shaping being carried out.
A crystallizable bio-absorbable scaffold strut structure for implantation into the body, said scaffold strut structure being formed from a crystallizable bio-absorbable polymer composition comprising a base polymer which is poly(L-lactide) and a modifying copolymer comprising poly (L-lactide-co-Trimethylene-carbonate) or poly(L-lactide-co-ε-caprolactone), in the form of a block copolymer or a blocky random copolymer.
A connector comprising: a terminal holder having an inlet on a first side thereof for a member to be connected to the connector, the terminal holder defining a terminal chamber continuous to the inlet and a terminal introduction passage in communication with the terminal chamber and extending from a second side remote from the first side of the terminal holder; at least one terminal attached to the terminal holder so as to be located in the terminal chamber; and a side retainer mounted in the terminal holder in such a manner as to be movable between a first position and a second position spaced apart from the first position in a direction transverse to the terminal introduction passage, wherein the side retainer includes at least one locking protrusion configured such that, when the side retainer is at the first position, the at least one locking protrusion is in alignment with the terminal introduction passage and prevents the at least one terminal from coming off, and that, when the side retainer is at the second position, the at least one locking protrusion is offset from the terminal introduction passage so as to allow the at least one terminal to pass through the terminal introduction passage to be placed in the terminal chamber, and wherein the terminal holder defines an access passage (96, 98) configured to allow a tool to be inserted into the inlet so as to reach a part of the side retainer and move the side retainer between the first and second positions; characterised in that the side retainer has a retainer manipulation portion (92, 94) including an inclined cam surface (92A, 94A), the inclined cam surface (92A, 94A) being configured to convert a displacement of the tool in a direction in which the access passage (96, 98) extends to a movement of the side retainer in a direction traversing the terminal introduction passage, and wherein the access passage (96, 98) extends to provide an access to the inclined cam surface (92A, 94A).
A rear seat comprising a seat back, a seat frame fabricated of resin and a side airbag device, said side airbag device comprising: a recess portion formed in the seat frame, the seat frame being disposed at an inner side of a side support portion of the seatback of the rear seat, and a seatback forward side of the recess portion being open; a module case that is formed in a box shape, the module case being accommodated in the recess portion; an inflator that is accommodated in the module case and that produces gas when operated; and a side airbag that is accommodated in the module case in a folded state and that is deployed to the seatback forward side when the gas flows into the side airbag, characterized in that said module case is fabricated of metal and is accommodated in the recess portion such that the seatback forward side of the module case is an open side, such that an upper wall portion of the module case is disposed at the inner side of an interior wall upper portion of the recess portion, and such that a lower wall portion of the module case is disposed at the inner side of an interior wall lower portion of the recess portion; and in that the upper wall portion and lower wall portion of the module case are provided standing at positions spaced apart from an upper end and a lower end of the side airbag in the folded state such that a tip edge of the upper wall portion of the module case and a tip edge of the lower wall portion of the module case are spaced apart from a surface of the side airbag in the deployed state. a recess portion formed in the seat frame, the seat frame being disposed at an inner side of a side support portion of the seatback of the rear seat, and a seatback forward side of the recess portion being open; a module case that is formed in a box shape, the module case being accommodated in the recess portion; an inflator that is accommodated in the module case and that produces gas when operated; and a side airbag that is accommodated in the module case in a folded state and that is deployed to the seatback forward side when the gas flows into the side airbag, characterized in that said module case is fabricated of metal and is accommodated in the recess portion such that the seatback forward side of the module case is an open side, such that an upper wall portion of the module case is disposed at the inner side of an interior wall upper portion of the recess portion, and such that a lower wall portion of the module case is disposed at the inner side of an interior wall lower portion of the recess portion; and in that the upper wall portion and lower wall portion of the module case are provided standing at positions spaced apart from an upper end and a lower end of the side airbag in the folded state such that a tip edge of the upper wall portion of the module case and a tip edge of the lower wall portion of the module case are spaced apart from a surface of the side airbag in the deployed state.
A gelled food concentrate comprising: a 20-80wt% water by weight of the total food concentrate; b An effective amount of gelatine wherein the amount of gelatine is effective when the value for in the formula below is in the range of 7.5 - 15wt% by weight of the total water content of the food concentrate, where is defined as: GE = gelatine ⋅ B 2 250, wherein [gelatine] is the concentration of gelatine in the food concentrate by weight based on water and B 2 is the bloom strength of the gelatine in the food concentrate; c 22.5wt% to 35wt% salt by weight of the total water content of the food concentrate; and d 1.5 wt% to 9 wt% by weight of the total water content of the food concentrate of amino acids, or derivatives, dissolved in water, the amino acids or derivatives, being selected from the following two groups: i Amino acids: histidine, arginine, iso-leucine, methionine and valine. ii Derivatives of amino acids: creatinine, creatine and carnosine, or combinations thereof; and wherein the value for plus the amount of (d) above is more than or equal to 12; and wherein the gelatine is type A gelatine, preferably of pork origin, having an average bloom strength of at least 175. a 20-80wt% water by weight of the total food concentrate; b An effective amount of gelatine wherein the amount of gelatine is effective when the value for in the formula below is in the range of 7.5 - 15wt% by weight of the total water content of the food concentrate, where is defined as: GE = gelatine ⋅ B 2 250, wherein [gelatine] is the concentration of gelatine in the food concentrate by weight based on water and B 2 is the bloom strength of the gelatine in the food concentrate; c 22.5wt% to 35wt% salt by weight of the total water content of the food concentrate; and d 1.5 wt% to 9 wt% by weight of the total water content of the food concentrate of amino acids, or derivatives, dissolved in water, the amino acids or derivatives, being selected from the following two groups: i Amino acids: histidine, arginine, iso-leucine, methionine and valine. ii Derivatives of amino acids: creatinine, creatine and carnosine, or combinations thereof; and wherein the value for plus the amount of (d) above is more than or equal to 12; and wherein the gelatine is type A gelatine, preferably of pork origin, having an average bloom strength of at least 175. i Amino acids: histidine, arginine, iso-leucine, methionine and valine. ii Derivatives of amino acids: creatinine, creatine and carnosine,
Apparatus for the automated detection of trees, comprising a movable platform, a camera unit for capturing two spatially overlapping images (B1, B2), wherein the camera unit is mounted on the platform, a position sensor system for determining the six degrees of freedom (X, Y, Z, α, β, γ) of the camera unit and at least one evaluation unit, wherein the evaluation unit is designed such that a 2D disparity image is produced from the two spatially overlapping images (B1, B2), wherein the background is removed from the 2D disparity image, wherein the evaluation unit is further designed such that segmentation of trees is effected in the 2D disparity image, wherein the segmented trees are stored with the data of the position sensor system as a data record in a world coordinate system, characterized in that the position sensor system has at least one inertial measurement unit, a separate inclination sensor and a receiver of a satellite navigation system, wherein the data of the inertial measurement unit are backed up by the inclination sensor and/or the image data of the camera unit, wherein the evaluation unit is further designed such that, after the removal of the background, image areas that cannot be associated with a tree are removed, to which end a sufficiently high image row in the 2D disparity image is selected, wherein subsequently the disparities in the selected row are compared with the remaining image portions for the respective columns, wherein a tree is suspected if the disparity values are in a relative range around the selected row, wherein otherwise the image region is ignored for the subsequent segmentation, wherein, before the segmentation, the ground area is extracted and filtered out by means of a horizontal median filter, wherein the 2D disparity image filtered in this manner is binarized and subsequently a vertical median filter is used to detect vertical objects, wherein the detected objects are expanded and the binarized mask expanded in this manner is applied to the original 2D disparity image, so that the interim result then obtained is segmented trees having a unique pixel reference that are then converted into the world coordinate system, wherein averaging combines the various coordinates of a single tree from multiple shots to produce a single coordinate.
Control of a motor vehicle for ecological, inner-city operation, comprising a switch element in or on the motor vehicle, which can be operated manually or automatically or by an external transmitter sending an impulse and which operates on all central control systems at the individual functional units, including drive motor, gearbox, tyres, lighting, and adjusts these units to minimal energy requirements.
An imaging device comprising: imaging means (1; 10; 20; 30) for photographing still images repeatedly in continuous photographing to generate continuous image data; an intermediate buffer (2; 22) having a plurality of sheets of memory for alternately storing each still image data in the continuous image data generated by the imaging means in order; image processing means (3; 23) for reading out one still image data from one of the sheets of memory to code the data while the imaging means is storing another still image data into another of the sheets of memory; and a storage buffer (4; 24; 37) for storing the coded image data coded from the image processing means; which is characterized by comprising: control means for controlling an interval of photographing by the imaging means to maintain the interval constant during a time period in which a remaining capacity of the storage buffer is not less than a predetermined threshold value, to increase or decrease the interval continuously with respect to decreasing or increasing of the remaining capacity of the storage buffer, respectively, during a time period in which the remaining capacity of the storage buffer is less than the predetermined threshold value, and to stop the continuous photographing when the remaining capacity of the storage buffer is less than a maximum code amount of one frame of image. imaging means (1; 10; 20; 30) for photographing still images repeatedly in continuous photographing to generate continuous image data; an intermediate buffer (2; 22) having a plurality of sheets of memory for alternately storing each still image data in the continuous image data generated by the imaging means in order; image processing means (3; 23) for reading out one still image data from one of the sheets of memory to code the data while the imaging means is storing another still image data into another of the sheets of memory; and a storage buffer (4; 24; 37) for storing the coded image data coded from the image processing means; control means for controlling an interval of photographing by the imaging means to maintain the interval constant during a time period in which a remaining capacity of the storage buffer is not less than a predetermined threshold value, to increase or decrease the interval continuously with respect to decreasing or increasing of the remaining capacity of the storage buffer, respectively, during a time period in which the remaining capacity of the storage buffer is less than the predetermined threshold value, and to stop the continuous photographing when the remaining capacity of the storage buffer is less than a maximum code amount of one frame of image.