mhurhangee/ep-ind-claims huggingface dataset:
A drive shaft connecting device with pieces of drive shaft connecting equipment at each of both the vehicle end and the attachment end, wherein the pieces of drive shaft connecting equipment of the drive shaft connecting device are respectively provided for on a device for coupling a vehicle and an attachment device, such as a trailer, an additional axle or an attachment, and wherein the pieces of the drive shaft connecting equipment are connected with the coupling devices, fastened axially in such a way that, when the vehicle is mechanically connected with an additional axle or a trailer or attachment, the pieces of drive shaft connecting equipment are forcibly coupled with one another, characterised in that the drive shaft connecting equipment at the vehicle end has a bearing seat and a clutch hub mounted rotatably therein, wherein the clutch hub has a bowl-shaped, hollow cylindrical coupling section with an internal gear for connecting with a coupling piece of drive shaft connecting equipment, and the drive shaft connection at the attachment end has a bowl-shaped bearing seat, a coupling piece and a support shaft, wherein the cylindrical coupling piece has an external gear for coupling with the correspondingly designed internal gear of the clutch hub at the coupling end, and the support shaft has a bowl-shaped, hollow cylindrical coupling piece receptacle at the coupling end, wherein the coupling piece is to be found in a bowl-shaped coupling piece receptacle of the support shaft, and is fixed by means of a screw joint 239. the drive shaft connecting equipment at the vehicle end has a bearing seat and a clutch hub mounted rotatably therein, wherein the clutch hub has a bowl-shaped, hollow cylindrical coupling section with an internal gear for connecting with a coupling piece of drive shaft connecting equipment, and the drive shaft connection at the attachment end has a bowl-shaped bearing seat, a coupling piece and a support shaft, wherein the cylindrical coupling piece has an external gear for coupling with the correspondingly designed internal gear of the clutch hub at the coupling end, and the support shaft has a bowl-shaped, hollow cylindrical coupling piece receptacle at the coupling end, wherein the coupling piece is to be found in a bowl-shaped coupling piece receptacle of the support shaft, and is fixed by means of a screw joint 239.
A tranilast cocrystal selected from a 1:1 tranilast nicotinamide cocrystal, a 1:1 tranilast saccharin cocrystal, a 1:1 tranilast gentisic acid cocrystal, a 1:1 tranilast salicylic acid cocrystal, a 1:1 tranilast urea cocrystal, a 1:1 tranilast 4-aminobenzoic acid cocrystal and a 1:1 tranilast 2,4-dihydroxybenzoic acid cocrystal.
A pump for a bottle intended to contain a cosmetic product, said pump comprising a variable volume metering chamber defined at least in part by a deformable element, the pump operating by varying the volume of the chamber by elastic deformation of a membrane of the deformable element between an initial state in which the chamber has a maximum volume and a deformed state in which the volume of the chamber is minimal, the chamber being provided with an inlet orifice and an outlet orifice for the product, the pump comprising means for deforming the membrane configured to exert pressure on the membrane, the pump further comprising a guide rod passing through the deformable element, the deformable element sliding along the rod when the membrane undergoes said deformation, characterised in that the deformable element comprises an outlet lip delimiting said outlet orifice and surrounding a section of the rod, said outlet lip coming in sealing contact against the rod or moving away from the rod as a function of the pressure in the chamber, and in that said rod comprises means for maintaining the outlet lip in sealing contact with the rod when the membrane is in its initial state, whatever the pressure in the chamber and whatever the pressure around the pump.
A method of wireless communication, the method being executed by an apparatus and comprising: determining a first bandwidth and a second bandwidth of a cell, wherein a reference signal is present in the second bandwidth and is not present outside the second bandwidth; receiving a physical channel with at least one resource block in a subframe from the cell, the subframe comprising one or more symbols; determining at least one energy per resource element, EPRE ratio for the received physical channel based at least in part on the first bandwidth and the second bandwidth; determining how to apply the at least one EPRE ratio on the received at least one resource block in the subframe based on an implicit derivation; and processing the physical channel based on the determined at least one EPRE ratio. determining a first bandwidth and a second bandwidth of a cell, wherein a reference signal is present in the second bandwidth and is not present outside the second bandwidth; receiving a physical channel with at least one resource block in a subframe from the cell, the subframe comprising one or more symbols; determining at least one energy per resource element, EPRE ratio for the received physical channel based at least in part on the first bandwidth and the second bandwidth; determining how to apply the at least one EPRE ratio on the received at least one resource block in the subframe based on an implicit derivation; and processing the physical channel based on the determined at least one EPRE ratio.
A method for generating a frequency sweep for a seismic survey that uses a seismic source, the method comprising: receiving specification data about the seismic source; receiving environmental data which includes measurements indicative of ground motion affecting an infrastructure, the ground motion being generated during the seismic survey by the seismic source; receiving guideline data about the infrastructure, wherein the guideline data limits seismic energy to be applied to the infrastructure; characterized in that the method further comprises: setting a target energy spectrum density to be emitted by the seismic source during the seismic survey, wherein the target energy spectrum density is proportional with a square of an amplitude of the frequency sweep and a factor that is a function of the sweep length; and calculating, in a processor, the frequency sweep based on the specification data, environmental data, guideline data and the target energy spectrum density. receiving specification data about the seismic source; receiving environmental data which includes measurements indicative of ground motion affecting an infrastructure, the ground motion being generated during the seismic survey by the seismic source; receiving guideline data about the infrastructure, wherein the guideline data limits seismic energy to be applied to the infrastructure; setting a target energy spectrum density to be emitted by the seismic source during the seismic survey, wherein the target energy spectrum density is proportional with a square of an amplitude of the frequency sweep and a factor that is a function of the sweep length; and calculating, in a processor, the frequency sweep based on the specification data, environmental data, guideline data and the target energy spectrum density.
A method executed by a master base station in a wireless communication system, the method comprising: receiving (435, 515) measurement information from a terminal, transmitting (450, 525), to a secondary base station, a first message for establishing a secondary cell group, SCG, of the secondary base station based on the measurement information, the first message including a measurement result for instructing the secondary base station to choose and configure at least one cell for the SCG; receiving (465, 540), from the secondary base station, a second message including information on a SCG configuration, the information on the SCG configuration including information on a primary secondary cell, PSCell, of the SCG; and transmitting (470, 540), to the terminal, a third message including the information on the SCG configuration, wherein the information on the PSCell includes a physical cell identity of the PSCell, configuration information on a physical uplink control channel, PUCCH, of the PSCell and an SCell index of the PSCell, and wherein the information on the PSCell is used for configuring the PSCell supporting a transmission of the PUCCH to the terminal. receiving (435, 515) measurement information from a terminal, transmitting (450, 525), to a secondary base station, a first message for establishing a secondary cell group, SCG, of the secondary base station based on the measurement information, the first message including a measurement result for instructing the secondary base station to choose and configure at least one cell for the SCG; receiving (465, 540), from the secondary base station, a second message including information on a SCG configuration, the information on the SCG configuration including information on a primary secondary cell, PSCell, of the SCG; and transmitting (470, 540), to the terminal, a third message including the information on the SCG configuration, wherein the information on the PSCell includes a physical cell identity of the PSCell, configuration information on a physical uplink control channel, PUCCH, of the PSCell and an SCell index of the PSCell, and wherein the information on the PSCell is used for configuring the PSCell supporting a transmission of the PUCCH to the terminal.
A camera head, comprising: a housing, including: a front housing element including a section having a rounded shape; and a rear housing element coupled to the front housing element, the rear housing element including a substantially cylindrical longitudinal section; a plurality of imaging modules disposed on or within the front element; a plurality of illumination modules disposed on or within the front element between ones of the imaging modules; and a processing element programmed to: generate composite video output data from ones of outputs of the plurality of imaging modules; characterised in that the processing element is further programmed to selectively control the light output of the plurality of illumination modules in conjunction with an imaging operation of one or more of the imaging modules, such that the plurality of illumination modules provides a first level light output during periodic imaging time intervals and a second level light output during non-imaging time intervals, wherein the second level light output provides lower brightness than the first level light output or no brightness. a housing, including: a front housing element including a section having a rounded shape; and a rear housing element coupled to the front housing element, the rear housing element including a substantially cylindrical longitudinal section; a front housing element including a section having a rounded shape; and a rear housing element coupled to the front housing element, the rear housing element including a substantially cylindrical longitudinal section; a plurality of imaging modules disposed on or within the front element; a plurality of illumination modules disposed on or within the front element between ones of the imaging modules; and a processing element programmed to: generate composite video output data from ones of outputs of the plurality of imaging modules; characterised in that the processing element is further programmed to selectively control the light output of the plurality of illumination modules in conjunction with an imaging operation of one or more of the imaging modules, such that the plurality of illumination modules provides a first level light output during periodic imaging time intervals and a second level light output during non-imaging time intervals, wherein the second level light output provides lower brightness than the first level light output or no brightness.
An automotive equipment control system (400, 1000), comprising: at least one imager (405, 537, 637, 737, 901) comprising at least one image sensor (765, 901) for acquiring an image; a processor configured to analyze the image, the processor being a field-programmable gate array; a main processor (420, 508, 808, 902, 1008) making a control decision in order to automatically perform a vehicle equipment related function based on information communicated from the processor configured to analyse the image; and an interconnection utilizing LVDS to transmit data between the image sensor (765, 901) and the processor for analysing the image, wherein the vehicle equipment related function is at least one of an adaptive cruise control, collision warning or avoidance, exterior light control imaging, blind spot warning and night vision; and characterized in that the at least one imager and the processor each comprise a communication interface having a data and a clock signal line for data exchange through said interconnection and wherein in the interconnection the data signal and the clock signal are encoded onto a same line through Manchester coding. at least one imager (405, 537, 637, 737, 901) comprising at least one image sensor (765, 901) for acquiring an image; a processor configured to analyze the image, the processor being a field-programmable gate array; a main processor (420, 508, 808, 902, 1008) making a control decision in order to automatically perform a vehicle equipment related function based on information communicated from the processor configured to analyse the image; and an interconnection utilizing LVDS to transmit data between the image sensor (765, 901) and the processor for analysing the image, wherein the vehicle equipment related function is at least one of an adaptive cruise control, collision warning or avoidance, exterior light control imaging, blind spot warning and night vision; and characterized in that the at least one imager and the processor each comprise a communication interface having a data and a clock signal line for data exchange through said interconnection and wherein in the interconnection the data signal and the clock signal are encoded onto a same line through Manchester coding.
A system for controlling a wind farm when a ramp up or ramp down rate of the wind farm deviates from a grid-code or corresponding criteria, the system comprising: wind condition measuring apparatuses adapted for measuring wind conditions including characteristics of the wind speed and wind direction, an operation unit adapted for receiving information on wind conditions from the wind condition measuring apparatuses, for determining whether or not the ramp up or ramp down rate of the wind farm deviates from the grid-code due to a change in wind speed and whether or not the wind speed is within a range of wind power generation reference speed, for determining the number of wind turbines N WT to be controlled simultaneously if the ramp up or ramp down rate of the wind farm deviates from the grid-code such that a total of the ramp up or ramp down rates of the wind turbines in each group does not exceed a ramp up or ramp down rate of the grid-code when the wind speed deviates from the range of wind power generation reference speed, for grouping the wind turbines into first to N-th groups, and for determining a control start time T Gn, start and a control end time T Gn,end of each group; and a control unit adapted for controlling the wind turbines based on the control start time T Gn, start and the control end time T Gn, end determined by the operation unit, characterised in that the wind condition measuring apparatuses are to be disposed outside the wind farm. wind condition measuring apparatuses adapted for measuring wind conditions including characteristics of the wind speed and wind direction, an operation unit adapted for receiving information on wind conditions from the wind condition measuring apparatuses, for determining whether or not the ramp up or ramp down rate of the wind farm deviates from the grid-code due to a change in wind speed and whether or not the wind speed is within a range of wind power generation reference speed, for determining the number of wind turbines N WT to be controlled simultaneously if the ramp up or ramp down rate of the wind farm deviates from the grid-code such that a total of the ramp up or ramp down rates of the wind turbines in each group does not exceed a ramp up or ramp down rate of the grid-code when the wind speed deviates from the range of wind power generation reference speed, for grouping the wind turbines into first to N-th groups, and for determining a control start time T Gn, start and a control end time T Gn,end of each group; and a control unit adapted for controlling the wind turbines based on the control start time T Gn, start and the control end time T Gn, end determined by the operation unit, characterised in that the wind condition measuring apparatuses are to be disposed outside the wind farm.
Catheter for directionally conducting a body fluid, in particular blood, comprising: - a line portion having an inner volume; - a pump chamber portion; - a first opening which connects the inner volume to an exterior; - a second opening which is arranged distally from the first opening and connects the inner volume to the exterior; - a third opening, wherein the pump chamber portion comprises a pump chamber, a balloon is arranged in the pump chamber and a line for an auxiliary fluid for inflating the balloon is connected to the balloon, and the line for the auxiliary fluid extends through the third opening outward and can be connected to a pump such that, when the catheter is in operation, the body fluid is directionally conducted in a pulsatile manner in the inner volume between the first and the second opening, the line portion comprises a film tube having a reinforcement extending within the film tube, and wherein the film tube has a foldable portion, a connecting region in which the film tube is connected to the reinforcement, and a stabilized portion having a structure. - a line portion having an inner volume; - a pump chamber portion; - a first opening which connects the inner volume to an exterior; - a second opening which is arranged distally from the first opening and connects the inner volume to the exterior; - a third opening,
A self-propelled combine harvester, comprising a threshing device, a separating device, a cleaning device, which is downstream of a suction fan assembly with at least one housing, a rotor which is rotatably movably disposed about an axis of rotation, at least one inlet opening and at least one outlet opening, a chopping device as well as at least one spreading device for picking up and discharging a flow of material passing through the chopping device, wherein the suction fan assembly comprises a weed seed destruction device, wherein the weed seed destruction device is integrated into the housing of the suction fan assembly, wherein the suction fan assembly comprises a stator disposed concentrically with respect to the rotor, wherein the rotor is configured to carry out a relative movement with respect to the stator, characterized in that the rotor is disposed on a shaft in a torsion-proof manner and the stator is mounted on the shaft in a rotatably movable manner.
Solid-state laser arrangement comprising: a plate-like solid body having a laser-active medium, a heat sink, a layer of adhesive which is applied between a carrier face of the heat sink and the plate-like solid body, and a reflective coating which is applied to the plate-like solid body at a side facing the adhesive layer, characterised in that the adhesive layer is completely shielded from radiation from the plate-like solid body by a radiation-impermeable region (4a, 19a) which is formed between the side of the plate-like solid body facing the adhesive layer and the carrier face of the heat sink, so that there is no direct line-of-sight between the solid body and the adhesive layer and the adhesive layer terminates flush with a peripheral edge of the plate-like solid body, characterized in that the peripheral edge forms with the side of the plate-like solid body facing the adhesive layer an inclination angle (α) which is different from 90°. a plate-like solid body having a laser-active medium, a heat sink, a layer of adhesive which is applied between a carrier face of the heat sink and the plate-like solid body, and a reflective coating which is applied to the plate-like solid body at a side facing the adhesive layer, characterised in that the adhesive layer is completely shielded from radiation from the plate-like solid body by a radiation-impermeable region (4a, 19a) which is formed between the side of the plate-like solid body facing the adhesive layer and the carrier face of the heat sink, so that there is no direct line-of-sight between the solid body and the adhesive layer and the adhesive layer terminates flush with a peripheral edge of the plate-like solid body, characterized in that the peripheral edge forms with the side of the plate-like solid body facing the adhesive layer an inclination angle (α) which is different from 90°.
Circuitry for an implantable medical device, comprising: a non-rechargeable battery outputting a battery voltage (Vbat); boosting circuitry for boosting the battery voltage (Vbat) to a boosted voltage (Vbat+); first circuitry powered either by the battery voltage (Vbat) when the battery voltage (Vbat) is greater than or equal to a threshold voltage (Vt), or the boosted voltage (Vbat+) when the battery voltage (Vbat) is less than the threshold voltage (Vt); second circuitry comprising a DC-DC converter, wherein the second circuitry is only powered by the battery voltage (Vbat); and at least one Digital-to-Analog converter; wherein the DC-DC converter produces a compliance voltage (V+) to power the at least one Digital-to-Analog converter, and wherein the Digital-to-Analog converter is adapted to provide current to at least one electrode of the implantable medical device. a non-rechargeable battery outputting a battery voltage (Vbat); boosting circuitry for boosting the battery voltage (Vbat) to a boosted voltage (Vbat+); first circuitry powered either by the battery voltage (Vbat) when the battery voltage (Vbat) is greater than or equal to a threshold voltage (Vt), or the boosted voltage (Vbat+) when the battery voltage (Vbat) is less than the threshold voltage (Vt); second circuitry comprising a DC-DC converter, wherein the second circuitry is only powered by the battery voltage (Vbat); and at least one Digital-to-Analog converter; wherein the DC-DC converter produces a compliance voltage (V+) to power the at least one Digital-to-Analog converter, and wherein the Digital-to-Analog converter is adapted to provide current to at least one electrode of the implantable medical device.