mhurhangee/ep-ind-claims huggingface dataset:
An air conditioning system comprising: a heat source apparatus configured to heat or cool a liquid medium; a plurality of indoor heat exchangers, each of which is supplied with the liquid medium from the heat source apparatus and configured to exchange heat between the liquid medium and air; and characterized by a plurality of temperature adjustment apparatuses, each of which is disposed in association with a respective one of the plurality of indoor heat exchangers and configured to adjust the temperature of the liquid medium supplied to a respective one of the plurality of indoor heat exchangers, each of the plurality of temperature adjustment apparatuses being configured to variably adjust the amount of heat exchange between an inflow medium, which is the liquid medium supplied to a corresponding indoor heat exchanger, and an outflow medium, which is the liquid medium discharged from the corresponding indoor heat exchanger, and when, in the plurality of temperature adjustment apparatuses, there is no temperature adjustment apparatus in which the amount of heat exchange between the inflow medium and the outflow medium is set to the minimum in a variable range, the heat source apparatus being configured to reduce the heating capacity or the cooling capacity for changing the temperature of the liquid medium. a heat source apparatus configured to heat or cool a liquid medium; a plurality of indoor heat exchangers, each of which is supplied with the liquid medium from the heat source apparatus and configured to exchange heat between the liquid medium and air; and characterized by a plurality of temperature adjustment apparatuses, each of which is disposed in association with a respective one of the plurality of indoor heat exchangers and configured to adjust the temperature of the liquid medium supplied to a respective one of the plurality of indoor heat exchangers, each of the plurality of temperature adjustment apparatuses being configured to variably adjust the amount of heat exchange between an inflow medium, which is the liquid medium supplied to a corresponding indoor heat exchanger, and an outflow medium, which is the liquid medium discharged from the corresponding indoor heat exchanger, and when, in the plurality of temperature adjustment apparatuses, there is no temperature adjustment apparatus in which the amount of heat exchange between the inflow medium and the outflow medium is set to the minimum in a variable range, the heat source apparatus being configured to reduce the heating capacity or the cooling capacity for changing the temperature of the liquid medium.
Internal combustion engine, designed as a four- or six-cylinder reciprocating piston engine, for a motor vehicle, the engine comprising first cylinders lying next to one another and second cylinders lying next to one another and an exhaust train with a first exhaust manifold and a second exhaust manifold, wherein the first cylinders are assigned to the first exhaust manifold with a first exhaust flow and the second cylinders are assigned to the second exhaust manifold with a second exhaust flow, and further comprising a first turbocharger, wherein the first turbocharger comprises a first turbine located in the exhaust train, and wherein, in a first position of an adjusting valve, the first turbine has a flow through which only exhaust gas from the first exhaust flow of the first cylinders can flow and at least one second flow through which only exhaust gas from the from the second exhaust flow of the second cylinders can flow in the first position of the adjusting valve and the internal combustion engine can be operated in a pulse turbocharging mode, and wherein, in the second position of the adjusting valve, the first exhaust flow and the second exhaust flow can be merged fluidically and the internal combustion engine can be operated in a constant pressure turbocharging mode, characterised in that at least one second turbocharger comprises a second turbine located in the exhaust train, wherein the first turbine and the second turbine can optionally be driven alternatively by at least a part of exhaust gas from the first cylinders and the second cylinders by means of the single adjusting valve, which is switchable between at least three positions and located upstream of the first turbine and the second turbine, and wherein, in the first position, the second turbine can be driven neither by the exhaust gas from the first cylinders nor by that from the second cylinders, and wherein, in the second position of the adjusting valve, the second turbine can be driven neither by the exhaust gas from the first cylinders nor by that from the second cylinders, and wherein, in the third position of the adjusting valve, the first exhaust flow, the second exhaust flow and a third exhaust flow can be merged fluidically, wherein the third exhaust flow is designed for applying exhaust gas to the second turbine and the internal combustion engine can be operated in a register charging mode.
A intraocular implant comprising: an implant body comprising a body material; a mask (4000, 4100, 4200, 4300) with an aperture positioned within the implant body, the mask comprising a plurality of holes that extend between a posterior surface and an anterior surface of the mask; and characterized in that the body material extends through the plurality of holes of the mask (4000, 4100, 4200, 4300), and further wherein the plurality of holes are characterized in that at least one of the hole size, shape, orientation, and spacing of the plurality of holes is varied to reduce the tendency of the holes to produce visible diffraction patterns. an implant body comprising a body material; a mask (4000, 4100, 4200, 4300) with an aperture positioned within the implant body, the mask comprising a plurality of holes that extend between a posterior surface and an anterior surface of the mask; and characterized in that the body material extends through the plurality of holes of the mask (4000, 4100, 4200, 4300), and further wherein the plurality of holes are characterized in that at least one of the hole size, shape, orientation, and spacing of the plurality of holes is varied to reduce the tendency of the holes to produce visible diffraction patterns.
Hybrid simulator for teaching optics or for training adjustment of an optical device, characterized in that the hybrid simulator comprises: - at least one dummy optical component (10, 11, 12, 13, 14, 15) physically simulating an optical device; - at least one actuator device (24, 25, 26, 30, 34, 35a, 35b) for generating or simulating an adjustment of said dummy optical component (10, 11, 12, 13, 14, 15, 16), said actuator device being equipped with a sensor configured for detecting an adjustment signal representative of operating said actuator device (26, 30, 34, 35a, 35b); - a digital processing system receiving said adjustment signal from said sensor, said digital processing system comprising a numerical model for simulating projection of at least an output numerical optical beam resulting from interaction between an input numerical optical beam and a numerical optical component representing said optical device as a function of said adjustment signal; - a display system (2, 95) for displaying on a physical screen a real image (50, 51, 52) representative of said projection of said output numerical optical beam as a function of said adjustment signal. - at least one dummy optical component (10, 11, 12, 13, 14, 15) physically simulating an optical device; - at least one actuator device (24, 25, 26, 30, 34, 35a, 35b) for generating or simulating an adjustment of said dummy optical component (10, 11, 12, 13, 14, 15, 16), said actuator device being equipped with a sensor configured for detecting an adjustment signal representative of operating said actuator device (26, 30, 34, 35a, 35b); - a digital processing system receiving said adjustment signal from said sensor, said digital processing system comprising a numerical model for simulating projection of at least an output numerical optical beam resulting from interaction between an input numerical optical beam and a numerical optical component representing said optical device as a function of said adjustment signal; - a display system (2, 95) for displaying on a physical screen a real image (50, 51, 52) representative of said projection of said output numerical optical beam as a function of said adjustment signal.
An antimicrobial composition comprising; a) 0.01 to 2% by weight of thymol; b) 0.01 to 2% by weight of terpineol; and c) 0.1 to 2% by weight of a cationic phospholipid complex wherein the cationic phospholipid complex is Linoleamidopropyl PG-Dimonium Chloride Phosphate. a) 0.01 to 2% by weight of thymol; b) 0.01 to 2% by weight of terpineol; and c) 0.1 to 2% by weight of a cationic phospholipid complex
An internally supplied applicator for applying a cosmetic or pharmaceutical, wherein the applicator has a solid finger carrier with molded-on fingers and at least one supply conduit for conducting the substance from the side of the finger carrier facing away from the fingers to the side of the finger carrier covered by the fingers, wherein a film container composed of a film with a wall thickness of at most 0.25 mm containing a supply of the substance to be applied adjoins the side of the finger carrier facing away from the fingers in such a way that a volume of the substance to be applied is dispensed through the supply conduit by pressing on the film container, whose film forms the outer container wall in the finished state, wherein the film container is welded to the outer circumference of the finger-carrying plate that the finger carrier has, and wherein the fingers are bristles that can be laterally deflected in the unstressed state by the amount of at least six times the maximum bristle diameter perpendicular to the position of the longitudinal bristle axis without suffering plastic deformation, wherein the finger carrier transitions into at least two, better at least four, spreading arms in order to keep the film container spread open.
An insufflator for minimally invasive surgeries, comprising a) a gas connection with a proportional valve, b) a first trocar, c) a gas supply line for gas from the gas connection with pressure measurement, filter, and connection to the first trocar, d) a suction device with controllable suction capacity, e) a second trocar with suction hose and filter, connected to the suction device with controllable suction capacity, and f) an electronic control unit, the electronic control unit controlling the suction device in dependence of the pressure in the supply line, characterized by that the electronic control unit for controlling the suction device is configured such that the suction rate is decreased, when the pressure in the supply line exceeds a threshold value being between 8.0 kPa (60 mm Hg) and 10.7 kPa (80 mm Hg), and that the suction rate is increased, when the pressure in the supply line falls below a threshold value being between 0 and 6.7 kPa (50 mm Hg). a) a gas connection with a proportional valve, b) a first trocar, c) a gas supply line for gas from the gas connection with pressure measurement, filter, and connection to the first trocar, d) a suction device with controllable suction capacity, e) a second trocar with suction hose and filter, connected to the suction device with controllable suction capacity, and f) an electronic control unit,
A moving robot comprising: a body; a traveler configured to move the body; an ultrasonic sensor module configured to detect a boundary of a cleaning area using a sound wave and to detect an obstacle; and a controller configured to control the traveler based on the boundary of the cleaning area detected by the ultrasonic sensor module, wherein the ultrasonic sensor module includes: an ultrasonic sensor unit configured to emit the sound wave and to receive the sound wave reflected by a target and to output a sound wave signal, and a boundary detector configured to analyze the sound wave signal output from the ultrasonic sensor unit to detect the boundary of the cleaning area; wherein the boundary detector is configured to extract a noise signal generated by an electromagnetic wave generated by a boundary wire defining the cleaning area, from the sound wave signal, and to analyze the noise signal in order to determine the boundary of the cleaning area. a body; a traveler configured to move the body; an ultrasonic sensor module configured to detect a boundary of a cleaning area using a sound wave and to detect an obstacle; and a controller configured to control the traveler based on the boundary of the cleaning area detected by the ultrasonic sensor module, wherein the ultrasonic sensor module includes: an ultrasonic sensor unit configured to emit the sound wave and to receive the sound wave reflected by a target and to output a sound wave signal, and a boundary detector configured to analyze the sound wave signal output from the ultrasonic sensor unit to detect the boundary of the cleaning area; wherein the boundary detector is configured to extract a noise signal generated by an electromagnetic wave generated by a boundary wire defining the cleaning area, from the sound wave signal, and to analyze the noise signal in order to determine the boundary of the cleaning area. an ultrasonic sensor unit configured to emit the sound wave and to receive the sound wave reflected by a target and to output a sound wave signal, and a boundary detector configured to analyze the sound wave signal output from the ultrasonic sensor unit to detect the boundary of the cleaning area; wherein the boundary detector is configured to extract a noise signal generated by an electromagnetic wave generated by a boundary wire defining the cleaning area, from the sound wave signal, and to analyze the noise signal in order to determine the boundary of the cleaning area.
A time-to-digital converter (300, 400) comprising: an input (302, 402) for receiving a time-domain input signal (Tin); an output (306, 406) for providing a digital output signal (Dout); a time register (305, 405) coupled to the input (302, 403) and to a first node (308, 408); a time quantizer (307, 407) coupled to the time register (305, 405) for providing the digital output signal (Dout) at the output (306, 406); and a digital-to-time converter (309, 409) coupled to the output (306, 406) for providing a feed-back signal (E, Q err) at the first node (308, 408), characterised in that the feedback signal is a quantization error signal (Q err). an input (302, 402) for receiving a time-domain input signal (Tin); an output (306, 406) for providing a digital output signal (Dout); a time register (305, 405) coupled to the input (302, 403) and to a first node (308, 408); a time quantizer (307, 407) coupled to the time register (305, 405) for providing the digital output signal (Dout) at the output (306, 406); and a digital-to-time converter (309, 409) coupled to the output (306, 406) for providing a feed-back signal (E, Q err) at the first node (308, 408), characterised in that the feedback signal is a quantization error signal (Q err).
An unmanned aerial device (1, 1A, 1B) comprising: an aerial device body (10, 10A, 10B) capable of flying in an unmanned manner; and a load-lowering device (20, 20A, 20B) mounted to the aerial device body (10, 10A, 10B) and configured to lower a load from the aerial device body (10, 10A, 10B), wherein the load-lowering device (20, 20A, 20B) has a linear member having one end portion connectable to the load, a linear member holder (21, 21B) configured to hold at least an other end portion of the linear member, a speed limiting mechanism (22, 22A, 22B) configured to limit a speed at which the linear member is pulled out of the linear member holder (21, 21B), under a weight of the load, wherein the linear member holder has a reel having the linear member wound therearound and a rotary shaft to which the reel is attached, the speed limiting mechanism (22, 22A) is configured to provide rotational resistance to the rotary shaft or the reel, and the speed limiting mechanism has a rotor that is configured to be rotatable together with the rotary shaft, a stator that is configured not to be rotatable, and a spring configured to generate a frictional force by bringing the rotor and the stator into pressure contact with each other. an aerial device body (10, 10A, 10B) capable of flying in an unmanned manner; and a load-lowering device (20, 20A, 20B) mounted to the aerial device body (10, 10A, 10B) and configured to lower a load from the aerial device body (10, 10A, 10B), wherein the load-lowering device (20, 20A, 20B) has a linear member having one end portion connectable to the load, a linear member holder (21, 21B) configured to hold at least an other end portion of the linear member, a speed limiting mechanism (22, 22A, 22B) configured to limit a speed at which the linear member is pulled out of the linear member holder (21, 21B), under a weight of the load, wherein the linear member holder has a reel having the linear member wound therearound and a rotary shaft to which the reel is attached, the speed limiting mechanism (22, 22A) is configured to provide rotational resistance to the rotary shaft or the reel, and the speed limiting mechanism has a rotor that is configured to be rotatable together with the rotary shaft, a stator that is configured not to be rotatable, and a spring configured to generate a frictional force by bringing the rotor and the stator into pressure contact with each other.
A golf club head comprising: a face having an outer surface configured for striking a ball; a body connected to the face; a stiffening element contacting an inner surface of the face, the stiffening element including a chamber (144 A-D) containing a first viscous substance, wherein a viscosity of the first viscous substance influences a stiffening effect on an area of the face contacted by the stiffening element; and a retainer connected to the inner surface of the face for holding the stiffening element in contact with the inner surface of the face such that the stiffening element is accessible from behind the inner surface of the face, wherein the stiffening element is removable from and reconnectable to the retainer. a face having an outer surface configured for striking a ball; a body connected to the face; a stiffening element contacting an inner surface of the face, the stiffening element including a chamber (144 A-D) containing a first viscous substance, wherein a viscosity of the first viscous substance influences a stiffening effect on an area of the face contacted by the stiffening element; and a retainer connected to the inner surface of the face for holding the stiffening element in contact with the inner surface of the face such that the stiffening element is accessible from behind the inner surface of the face, wherein the stiffening element is removable from and reconnectable to the retainer.
A method for sending electromagnetic signals received on one or several first frequency bands, characterized in that it comprises steps of: - for first frequency sub-bands forming a first set ({F 1,j,k}) of sub-bands of frequencies of said first frequency band(s), association (202, 212) driven by rules, with each first sub-band of frequencies forming said first set, of one or several second sets ({F 2,m,n}) of sub-bands of frequencies in one or several second frequency bands, by a determination (203, 213) for each sub-band of frequencies, of a frequency translation (Δf), the rules comprising rules for building a second set ({F 2,m,n}) of sub-bands of frequencies, the sub-bands of the second set being next to at least one other sub-band of frequencies of said set, to optimize the filling of the second band(s) of frequencies with the sub-bands of the second set, and transposition of the received signals in the first sub-bands of frequencies into signals sent in the associated second sub-bands of frequencies. - for first frequency sub-bands forming a first set ({F 1,j,k}) of sub-bands of frequencies of said first frequency band(s), association (202, 212) driven by rules, with each first sub-band of frequencies forming said first set, of one or several second sets ({F 2,m,n}) of sub-bands of frequencies in one or several second frequency bands, by a determination (203, 213) for each sub-band of frequencies, of a frequency translation (Δf), the rules comprising rules for building a second set ({F 2,m,n}) of sub-bands of frequencies, the sub-bands of the second set being next to at least one other sub-band of frequencies of said set, to optimize the filling of the second band(s) of frequencies with the sub-bands of the second set,
Vehicle body structure in the heelboard region of a passenger cabin, having a centre tunnel and a side sill (5, 6) distanced therefrom at each side whereby a foot area is formed together with the base region, said foot area is limited towards the rear by a roughly vertically and transversely running heelboard wherein two height-adjusted transverse beams (10, 11) are arranged in the heelboard region, characterised in that the lower transverse beam is divided in two such that a lower left transverse beam part runs between a left side sill region and a left centre tunnel region and a lower right transverse beam part runs between a right side sill region and a right centre tunnel region.
A method for operating a floor treatment device that travels autonomously within an environment, wherein the floor treatment device performs a treatment of a defined and spatially delimited partial surface region of the environment, wherein during the treatment of the partial surface region a detection device of the floor treatment device measures a treatment status of the partial surface region, wherein the treatment status is compared with a defined reference status and a treatment of the partial surface region is continued until such time as the defined reference status is reached, characterized in that a user defines the reference status manually and transmits said status to the floor treatment device and wherein the user defines a geometric shape and/ or size for the partial surface region and selects a treatment mode for the processing of the partial surface region.