mhurhangee/ep-ind-claims huggingface dataset:
A vehicle including a frame, body or chassis defining left and right sides and comprising at least one source of motive power; at least two driven, ground-engaging members supported on each said side of the vehicle so as to be moveable relative to the vehicle during motion of the vehicle; at least one driven member drive train for connecting the or each said source so as to cause movement of at least one of the driven, ground-engaging members and hence of the vehicle; a respective brake (10, 11), for each driven, ground-engaging member, that is operable under the control of driven member brake commands generated in a controller so as to provide a respective braking effort for each of the driven, ground-engaging members; at least one ground-engaging, steerable member that defines a steering angle, relative to the vehicle, that is adjustable on the operation of one or more control members; at least one sensor for generating a steering angle signal that is indicative of the steering angle; at least one sensor for generating a vehicle speed signal (23, 24; 30) that is indicative of the vehicle speed relative to the ground; and at least one sensor (28, 29) for generating a respective driven member speed signal that is indicative of the movement speed relative to the vehicle of each driven, ground-engaging member, characterised in that the controller is capable of generating the driven member brake commands based on the steering angle and vehicle speed signals (23, 24; 30) together with a driven member slip estimation signal that is generated from the driven member speed signals; and wherein the controller is programmable and generates the driven member brake commands so as to brake the driven members in order to permit no more than a chosen, maximum degree of slip of the driven members or to cause the slip value to track a time-varying reference slip value; wherein the chosen maximum degree of slip of the driven members is adjustable.
A video image processing pipeline controller configured to control an available bandwidth at which processing functions of a video image processing pipeline is allowed to communicate, over one or more memory access channels, with a system memory, wherein the video image processing pipeline controller is configured to reduce the available bandwidth while securing that the current frame rate does not drop below a target frame rate, at which the video image processing pipeline produces a video stream, thereby inducing a shift in an active time and/or prolonging the active time, within a frame time, of the processing functions such that a peak power consumption of the video image processing pipeline is reduced, wherein the video image processing pipeline controller is configured to reduce the available bandwidth while securing that the current frame rate does not drop below a target frame rate by decreasing the available bandwidth in steps until a current frame rate drops below the target frame rate, and, in response to the current frame rate drops below the target frame rate, increasing the available bandwidth to a bandwidth at which the current frame rate does not drop below the target frame rate. wherein the video image processing pipeline controller is configured to reduce the available bandwidth while securing that the current frame rate does not drop below a target frame rate, at which the video image processing pipeline produces a video stream, thereby inducing a shift in an active time and/or prolonging the active time, within a frame time, of the processing functions such that a peak power consumption of the video image processing pipeline is reduced, wherein the video image processing pipeline controller is configured to reduce the available bandwidth while securing that the current frame rate does not drop below a target frame rate by decreasing the available bandwidth in steps until a current frame rate drops below the target frame rate, and, in response to the current frame rate drops below the target frame rate, increasing the available bandwidth to a bandwidth at which the current frame rate does not drop below the target frame rate.
Spinning mill comprising • a plurality of textile machines and auxiliary spinning mill devices; • a spinning mill platform connected to the plurality of textile machines, said spinning mill platform compiling data of the plurality of textile machines and transmitting settings to said plurality of textile machines, characterised in that the textile machines and the spinning mill platform are equipped with application programming interfaces connected to databases (30, 50) of the textile machines and the spinning mill platform, wherein the spinning mill platform is further equipped with application programming interfaces connectable to application programming interfaces of a spinning mill application and/or a third party application equipped with databases (80, 90) connected to the application programming interfaces of the spinning mill application and/or the third party application, thereby enabling to exchange information and/or data directly between the databases (30, 50, 80, 90) and/or between the databases (30, 50, 80, 90) and applications (3, 5, 8, 9) of the textile machines, the spinning mill platform, the spinning mill application and/or the third party application. • a plurality of textile machines and auxiliary spinning mill devices; • a spinning mill platform connected to the plurality of textile machines, said spinning mill platform compiling data of the plurality of textile machines and transmitting settings to said plurality of textile machines,
A vapor compression system (20; 400; 420) comprising: a compressor having a suction port and a discharge port, wherein the compressor comprises an electric motor, and the electric motor comprises bearings; a heat rejection heat exchanger coupled to the discharge port to receive compressed refrigerant; a heat absorption heat exchanger; a first lubricant flowpath (120, 126) extending to the bearings of the motor from the heat rejection heat exchanger; a second lubricant flowpath (121, 126) extending to the bearings of the motor from the heat absorption heat exchanger; a first valve along the first lubricant flowpath; a second valve along the second lubricant flowpath; a lubricant pump shared by the first lubricant flowpath and the second lubricant flowpath; a sensor (192, 193, 194) positioned to measure at least one of an outlet pressure, vibration, and motor current of the lubricant pump; and a controller configured to selectively open and close the first valve and the second valve to control lubricant flow along the first lubricant flowpath and the second lubricant flowpath based on a sensed fluctuation in the at least one of an outlet pressure, vibration, and motor current of the lubricant pump. a compressor having a suction port and a discharge port, wherein the compressor comprises an electric motor, and the electric motor comprises bearings; a heat rejection heat exchanger coupled to the discharge port to receive compressed refrigerant; a heat absorption heat exchanger; a first lubricant flowpath (120, 126) extending to the bearings of the motor from the heat rejection heat exchanger; a second lubricant flowpath (121, 126) extending to the bearings of the motor from the heat absorption heat exchanger; a first valve along the first lubricant flowpath; a second valve along the second lubricant flowpath; a lubricant pump shared by the first lubricant flowpath and the second lubricant flowpath; a sensor (192, 193, 194) positioned to measure at least one of an outlet pressure, vibration, and motor current of the lubricant pump; and a controller configured to selectively open and close the first valve and the second valve to control lubricant flow along the first lubricant flowpath and the second lubricant flowpath based on a sensed fluctuation in the at least one of an outlet pressure, vibration, and motor current of the lubricant pump.
A polypeptide having at least 95% or 100% sequence identity with SEQ ID NO: 9 or SEQ ID NO: 78, wherein the polypeptide comprises at least one immunoglobulin single variable domain (ISVD) specifically binding human CD40L and an ISVD binding serum albumin, wherein said ISVD specifically binding CD40L is SEQ ID NO: 8.
An implant for use as a hemostat comprising: a porous foam substrate having pores over at least a portion thereof; a first hydrogel precursor applied to a first portion of the porous substrate; and a second hydrogel precursor applied to a second portion of the porous substrate, the first portion of the porous substrate being spatially separated from the second portion of the porous substrate. a porous foam substrate having pores over at least a portion thereof; a first hydrogel precursor applied to a first portion of the porous substrate; and a second hydrogel precursor applied to a second portion of the porous substrate, the first portion of the porous substrate being spatially separated from the second portion of the porous substrate.
A middle frame of a mobile terminal comprises a first side plate, a second side plate and a metallic baffle, and the first side plate comprises a first metallic portion and a first non-metallic portion, the second side plate comprises a second metallic portion and a second non-metallic portion; a long side of the first metallic portion and a first long side of the metallic baffle are connected to each other, a side in the first metallic portion opposite the long side of the first metallic portion is provided with the first non-metallic portion, a long side of the second metallic portion and a second long side of the metallic baffle are connected to each other, and a side of the second metallic portion opposite the long side of the second metallic portion is provided with the second non-metallic portion; wherein the first metallic portion comprises at least one groove structure, the first non-metallic portion comprises at least one protrusion structure, and the at least one protrusion structure of the first non-metallic portion is imbedded in the at least one groove structure of the first metallic portion, characterized in that each of the at least one groove structures of the first metallic portion has an opening positioned corresponding to the position of a touch sensor of the mobile terminal, the touch sensor is positioned relatively distant from the metallic portion so as to decrease the shielding to the touch control signal.
Gathering device for a harvesting machine which is equipped with a drum that is arranged transversely to the gathering direction and rotates during the gathering of forage, said drum being fitted, in recesses in its lateral surface, with several rows of non-controllable gathering tines which are provided with legs, and being equipped with a comb-like stripper for taking the harvested material off the drum and being set up to gather harvested material lying on the ground in order to transfer it to a downstream device, for example the pressing device of a forage wagon, wherein the lateral surface of the drum is equipped with pockets (3; 38) which are let into the interior of the drum and are closed off therefrom in a dust-tight manner, characterized in that in each case one pocket (3; 38) accommodates in each case one gathering tine.
A method performed by at least one processor, comprising: obtaining a block of video data; splitting the block into an L-shaped partition and a second partition, the second partition being a rectangular shaped partition, characterized in that the rectangular shaped partition is located in a left-top direction of the L-shaped partition; and performing intra prediction of the L-shaped partition by using a reference sample chain for the L-shaped partition, comprising a chain of top and left reconstructed samples neighboring the L-shaped partition, as reference samples, wherein the chain comprises both a plurality of horizontal reference lines and a plurality of vertical reference lines from the reconstructed samples, a first one of the plurality of vertical reference lines is directly connected to a first one of the plurality of horizontal reference lines, the first one of the plurality of horizontal reference lines is directly connected to a second one of the plurality of vertical reference lines, the second one of the plurality of vertical reference lines is directly connected to a second one of the plurality of horizontal reference lines, the first one of the plurality of horizontal references lines and the second one of the plurality of vertical reference lines are within the block, and the first one of the plurality of vertical reference lines and the second one of the plurality of horizontal reference lines are outside of the block. obtaining a block of video data; splitting the block into an L-shaped partition and a second partition, the second partition being a rectangular shaped partition, characterized in that the rectangular shaped partition is located in a left-top direction of the L-shaped partition; and performing intra prediction of the L-shaped partition by using a reference sample chain for the L-shaped partition, comprising a chain of top and left reconstructed samples neighboring the L-shaped partition, as reference samples, wherein the chain comprises both a plurality of horizontal reference lines and a plurality of vertical reference lines from the reconstructed samples, a first one of the plurality of vertical reference lines is directly connected to a first one of the plurality of horizontal reference lines, the first one of the plurality of horizontal reference lines is directly connected to a second one of the plurality of vertical reference lines, the second one of the plurality of vertical reference lines is directly connected to a second one of the plurality of horizontal reference lines, the first one of the plurality of horizontal references lines and the second one of the plurality of vertical reference lines are within the block, and the first one of the plurality of vertical reference lines and the second one of the plurality of horizontal reference lines are outside of the block.
Mammography-apparatus for detecting malignant cells in a breast comprising an x-ray source and an x-ray detector that cooperates with the x-ray source for providing an x-ray image of said breast, and further comprising a paddle for flattening the breast by pressing it against an x-ray detector cover, and comprising a contact area measuring device for measuring a contact area between the breast and the paddle, characterized in that the contact area measuring device is embodied with at least a first laminate of an electrically insulating material and an electrically low resistance material (6"), which first laminate is provided on a side of the paddle facing the breast, wherein the electrically low resistance material (6") is sandwiched between the paddle and the insulating material, and that said contact area measuring device is embodied with a measurement circuit and equipped to be connected during use to an alternating current excitation source for measuring the electrical potential between the x-ray detector cover and the electrically low resistance material (6") of the first laminate of the paddle.
Electrohydraulic control system for at least one hydraulically movable material processing tool, in particular of a hydraulic dredger, with a computerized, memory-programmable central control, to which a mechanically adjustable tool actuator is connected, and which is connected via a bus with at least one magnetic actuator of at least one main control valve (V1, V2) of at least one hydraulic cylinder (8, 9) each for moving the tool, wherein tool vibration-function software is stored in the memory programming such that it can be activated as required, by means of which volume flow fluctuations (Q') for the hydraulic cylinder (8, 9) for carrying out a vibration-function of the tool can be controlled directly in the main control valve (V1, V2) by means of the magnet actuator, characterised in that the magnet actuator of the main control valve (V1, V2) is operable for moving or holding the tool with control current signals having a dither frequency between approximately 40 Hz and approximately 100 Hz when the vibration-function is deactivated and with control current pulses having a lower frequency (f) between 1.0 and approximately 30 Hz, preferably around approximately 10 Hz, when the vibration-function is activated.
A method of operating by a user equipment, UE, (12, 900) in a wireless communication system (10, 20), the method comprising: receiving, by the UE from a base station (11, 21, 800), a first information element, IE, which includes at least one first channel state information, CSI, reference signal, RS, configuration and information indicating a first usage which is CSI measurement; receiving, by the UE from the base station, a second IE which includes at least one second CSI RS configuration, which is different from the at least first CSI RS configuration, and information indicating a second usage which is interference measurement; measuring, by the UE, CSI based on the at least one first CSI RS configuration; and measuring, by the UE, interference based on the at least one second CSI RS configuration, wherein the first IE is received through at least one first node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station, and wherein the second IE is received through at least one second node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station. receiving, by the UE from a base station (11, 21, 800), a first information element, IE, which includes at least one first channel state information, CSI, reference signal, RS, configuration and information indicating a first usage which is CSI measurement; receiving, by the UE from the base station, a second IE which includes at least one second CSI RS configuration, which is different from the at least first CSI RS configuration, and information indicating a second usage which is interference measurement; measuring, by the UE, CSI based on the at least one first CSI RS configuration; and measuring, by the UE, interference based on the at least one second CSI RS configuration, wherein the first IE is received through at least one first node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station, and wherein the second IE is received through at least one second node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station.
Coffee machine comprising a flow line system having a water supply, a pump, a valve device for controlling the flow paths, a continuous-flow heater and at least one outlet nozzle (21, 22); - a brewing chamber for brewing a predetermined quantity of dry substance fed into the brewing chamber; - at least one storage container for holding a type of dry substance, such as coffee beans; - a control device (18, uC) for activating and deactivating the pump, the valve device and the continuous-flow heater so as to effect the brewing of the dry substance and the production of a beverage, the control device (18, uC) comprising: - a memory for storing specific beverage parameters for a selected or configured beverage; characterised in that the valve device comprises a valve which is controlled by means of the control device (18, uC) and is designed to sequentially connect the flow line for the prepared or brewed beverage liquid to the dispensing nozzle, the control device (18, uC) being designed to control the valve such that the brewed beverage is dispensed in multiple fractions during the brewing process, with some selected fractions of the liquid volume produced in the brewing process reaching the beverage nozzle and the unselected fractions being fed to another container. a flow line system having a water supply, a pump, a valve device for controlling the flow paths, a continuous-flow heater and at least one outlet nozzle (21, 22); - a brewing chamber for brewing a predetermined quantity of dry substance fed into the brewing chamber; - at least one storage container for holding a type of dry substance, such as coffee beans; - a control device (18, uC) for activating and deactivating the pump, the valve device and the continuous-flow heater so as to effect the brewing of the dry substance and the production of a beverage, - a brewing chamber for brewing a predetermined quantity of dry substance fed into the brewing chamber; - at least one storage container for holding a type of dry substance, such as coffee beans; - a control device (18, uC) for activating and deactivating the pump, the valve device and the continuous-flow heater so as to effect the brewing of the dry substance and the production of a beverage, the control device (18, uC) comprising: - a memory for storing specific beverage parameters for a selected or configured beverage; - a memory for storing specific beverage parameters for a selected or configured beverage; characterised in that the valve device comprises a valve which is controlled by means of the control device (18, uC) and is designed to sequentially connect the flow line for the prepared or brewed beverage liquid to the dispensing nozzle, the control device (18, uC) being designed to control the valve such that the brewed beverage is dispensed in multiple fractions during the brewing process, with some selected fractions of the liquid volume produced in the brewing process reaching the beverage nozzle and the unselected fractions being fed to another container.
A portable lighting device adapted to provide an area light, said device comprising a body having a battery housing (12.2) (12.5) to hold batteries to power said device, said device including a light panel functioning as a lens to act as an area light emitter, said light panel being constructed of a substantially flat panel portion, characterized in that said light panel is slidable onto and out of said body, and wherein at least one of the following applies: (a) wherein between said light source and said light panel there is located a system of collimator lenses and to receive light from said light source and to transmit collimated or nearly collimated light to said light panel in such a way as to allow the light to be transmitted around a 90 degree corner if desired, and (b) wherein said light panel having front and rear generally planar surfaces and exterior edge surfaces coupled to one or more flange formations emits light in a 360 degree fashion when the lighting device is switched on and the light panel and light source are aligned.