mhurhangee/ep-ind-claims huggingface dataset:
A rotary wing driving apparatus comprising: - a motor; - a rotary wing attached to a shaft of the motor; - an electromagnetic brake attached to the shaft of the motor, - a motor controller which controls the motor such that the motor outputs an actual output that is larger than a target output by a predetermined amount, and - an electromagnetic brake controller configured to control braking torque of the electromagnetic brake, and to control a braking force applied to the shaft of the motor so as to control a propeller output of the rotary wing with a 5% control bandwidth relative to the target output and 5-Hz aircraft-direction control characteristics, the propeller output being a combined output of the actual output of the motor and the braking force. - a motor; - a rotary wing attached to a shaft of the motor; - an electromagnetic brake attached to the shaft of the motor, - a motor controller which controls the motor such that the motor outputs an actual output that is larger than a target output by a predetermined amount, and - an electromagnetic brake controller configured to control braking torque of the electromagnetic brake, and to control a braking force applied to the shaft of the motor so as to control a propeller output of the rotary wing with a 5% control bandwidth relative to the target output and 5-Hz aircraft-direction control characteristics, the propeller output being a combined output of the actual output of the motor and the braking force.
A method of mounting a camera module for a motor vehicle, said camera module comprising a lens objective, a lens holder holding said lens objective, and a back plate connected to said lens holder and holding an image sensor in or close to an image plane of the lens objective, wherein the alignment of the lens holder relative to the back plate is fixed by a glue joint between the lens holder and the back plate, said method comprising the steps of providing a mounted lens holder unit comprising said lens objective mounted to said lens holder, applying glue to the lens holder unit and/or to the back plate, positioning the lens holder unit and the back plate relative to each other, taking reference images, changing the position and/or orientation of the lens holder unit relative to the back plate until the relative position and/or orientation becomes optimal, and hardening the glue while holding the lens holder unit and the back plate in the optimal relative position and orientation, characterized by moving the lens holder unit relative to the back plate in the x and y directions perpendicular to the optical z-axis of the lens objective, and considering the x-y-position of the back plate optimal when the bore sight error becomes minimal.
A process for the preparation of a shaped body containing a metal-organic framework material comprising the steps of - measuring the surface area of a MOF containing powder in order to determine the surface area per volume of the powder, - molding the MOF containing powder into shaped bodies by varying pressure followed by measuring the surface areas of the shaped body in order to identify the surface area per volume of the shaped body, - identifying a ratio of the surface area per volume of the shaped body to the surface area per volume of the powder in order to identify a ratio which is greater than 1.6, and - molding the MOF containing powder into the shaped body, wherein the ratio of the surface area per volume of the shaped body to the surface area per volume of the powder is at least 1.6: 1, wherein the surface area is determined by the BET method. - measuring the surface area of a MOF containing powder in order to determine the surface area per volume of the powder, - molding the MOF containing powder into shaped bodies by varying pressure followed by measuring the surface areas of the shaped body in order to identify the surface area per volume of the shaped body, - identifying a ratio of the surface area per volume of the shaped body to the surface area per volume of the powder in order to identify a ratio which is greater than 1.6, and - molding the MOF containing powder into the shaped body, wherein the ratio of the surface area per volume of the shaped body to the surface area per volume of the powder is at least 1.6: 1,
Method of operating a virtual reality headset in a vehicle, in which - vehicle localisation data that at least partly characterises a pose and/or movement of the vehicle with respect to a fixed world reference frame is captured and provided, - instantaneous orientation of the virtual reality headset with respect to a vehicle interior of the vehicle is continuously determined based on an inertial measurement carried out by an inertial measurement unit arranged on the virtual reality headset and the vehicle localisation data, and based thereon a virtual perspective on a virtual environment displayed by means of the virtual reality headset is simulated; characterized in that - at predetermined time intervals an optical tracking is carried out by means of an optical capture device arranged on the virtual reality headset which determines an arrangement of the virtual reality headset relative to the vehicle interior of the vehicle; - after which at least an orientation of the virtual reality headset relative to the vehicle interior is determined by means of fusion of the determined instantaneous orientation and the optical tracking, and, based thereon, the virtual perspective on the virtual environment displayed by means of the virtual reality headset is simulated. wherein the fusion counteracts a drift of the inertial measurement unit overtime. - vehicle localisation data that at least partly characterises a pose and/or movement of the vehicle with respect to a fixed world reference frame is captured and provided, - instantaneous orientation of the virtual reality headset with respect to a vehicle interior of the vehicle is continuously determined based on an inertial measurement carried out by an inertial measurement unit arranged on the virtual reality headset and the vehicle localisation data, and based thereon a virtual perspective on a virtual environment displayed by means of the virtual reality headset is simulated; - at predetermined time intervals an optical tracking is carried out by means of an optical capture device arranged on the virtual reality headset which determines an arrangement of the virtual reality headset relative to the vehicle interior of the vehicle; - after which at least an orientation of the virtual reality headset relative to the vehicle interior is determined by means of fusion of the determined instantaneous orientation and the optical tracking, and, based thereon, the virtual perspective on the virtual environment displayed by means of the virtual reality headset is simulated. wherein the fusion counteracts a drift of the inertial measurement unit overtime.
A radiotherapy device, comprising: a couch top having a first section, a second section to be supported in a cantilevered manner adapted to support a prone patient's upper body, and an opening in the second section or between the second section and the first section, said second section having an upper surface configured to support the prone patient's upper body and a lower surface, said opening being configured to allow at least a portion of the patient's upper body to extend to or below the lower surface in the vicinity of the opening and characterised in that said opening is configured to allow a radiation beam to pass through at an angle that is substantially tangential to a chest wall of the prone patient when supported on the upper surface of the second section in use, and characterized in that said opening is U-shaped. a couch top having a first section, a second section to be supported in a cantilevered manner adapted to support a prone patient's upper body, and an opening in the second section or between the second section and the first section, said second section having an upper surface configured to support the prone patient's upper body and a lower surface, said opening being configured to allow at least a portion of the patient's upper body to extend to or below the lower surface in the vicinity of the opening and characterised in that said opening is configured to allow a radiation beam to pass through at an angle that is substantially tangential to a chest wall of the prone patient when supported on the upper surface of the second section in use, and characterized in that said opening is U-shaped.
A pressure sensor for sensing wind pressure, comprising: - a housing that receives a pressure-sensitive deformable membrane, wherein the housing is divided by the membrane into a first chamber and a second chamber in an air-tight manner; - a first spring; - a second spring; - a magnetic core made of a ferromagnetic material and operatively connected with the membrane to move in response to the deformation of the membrane; - a winding operatively magnetoelectrically connected to the magnetic core to form a variable inductance inductor; and - a disk located on the deformable membrane in the first chamber; - a membrane disk located in the second chamber on a side of the deformable membrane opposite to the disk; and - a tubular pin extending from one side of the disk towards the winding; wherein the pressure sensor is configured with a first air vent through which the first chamber is in fluid communication with a first air pressure P1 in an air flow channel; wherein the pressure sensor is configured with a second air vent to connect the second chamber to atmospheric pressure P0 or to a second air pressure P2 in the air flow channel; wherein the first air vent is disposed in an adjusting screw comprising a cavity; wherein a first end of the cavity is in air communication with the first chamber and a second end of the cavity is in fluid communication with the first air pressure P1 in the air flow channel; wherein an end of the adjusting screw contacts the first spring; wherein the K value of the first spring is K1; wherein the K value of the second spring is K2; wherein the difference value (K1-K2) between K1 and K2 is in a range of 0.001-0.20 N/mm; wherein the magnetic core is located, mounted, attached or fixed on the disk; wherein the magnetic core is sheathed on the tubular pin and axially blocked between the disk and a tubular magnetic core pressing member of the tubular pin; and wherein a bottom end of the first spring abuttingly rests against a shoulder of the tubular magnetic core pressing member. - a housing that receives a pressure-sensitive deformable membrane, wherein the housing is divided by the membrane into a first chamber and a second chamber in an air-tight manner; - a first spring; - a second spring; - a magnetic core made of a ferromagnetic material and operatively connected with the membrane to move in response to the deformation of the membrane; - a winding operatively magnetoelectrically connected to the magnetic core to form a variable inductance inductor; and - a disk located on the deformable membrane in the first chamber; - a membrane disk located in the second chamber on a side of the deformable membrane opposite to the disk; and - a tubular pin extending from one side of the disk towards the winding;
An optical sensor comprising: an emitting system including at least one light emitting device configured to emit light onto an object; and a detecting system configured to detect the light which has been emitted by the emitting system and which has propagated through the object, wherein the light emitting device is capable of emitting a plurality of light beams with different wavelengths onto substantially the same position of the object, wherein the light emitting device includes i) a plurality of light sources which individually emit respective light beams with different wavelengths; ii) a plurality of individual optical elements arranged on optical paths of the light beams with different wavelengths of the plurality of light sources; iii) and a common optical element which is arranged in common on the optical paths of the light beams with different wavelengths via the plurality of the individual optical elements, wherein the optical paths of the plurality of the light beams with different wavelengths via the common optical element are substantially the same, wherein each of the plurality of the light sources includes a plurality of light emitting units arranged in an array manner, wherein position relationships between the plurality of the light emitting units and an optical axis of the corresponding individual optical elements are different between the plurality of light sources, wherein each light source is a surface emitting laser array, and wherein optical axes of the emitted light beams of the light emitting units with different wavelengths are parallel to each other. an emitting system including at least one light emitting device configured to emit light onto an object; and a detecting system configured to detect the light which has been emitted by the emitting system and which has propagated through the object, wherein the light emitting device is capable of emitting a plurality of light beams with different wavelengths onto substantially the same position of the object, wherein the light emitting device includes i) a plurality of light sources which individually emit respective light beams with different wavelengths; ii) a plurality of individual optical elements arranged on optical paths of the light beams with different wavelengths of the plurality of light sources; iii) and a common optical element which is arranged in common on the optical paths of the light beams with different wavelengths via the plurality of the individual optical elements, wherein the optical paths of the plurality of the light beams with different wavelengths via the common optical element are substantially the same, wherein each of the plurality of the light sources includes a plurality of light emitting units arranged in an array manner, wherein position relationships between the plurality of the light emitting units and an optical axis of the corresponding individual optical elements are different between the plurality of light sources, wherein each light source is a surface emitting laser array, and wherein optical axes of the emitted light beams of the light emitting units with different wavelengths are parallel to each other.
Drive arrangement for a vehicle which can be driven by motor power and in particular additionally by muscle power, an electric bicycle, eBike or pedelec, having: - an electric drive for generating a motor torque, - a crankshaft, which is rotatable about an axis of rotation, for receiving at least the motor torque, - a transmission device which is designed for transmitting a torque received by the crankshaft to an output element which is couplable to a drive wheel of the vehicle and for realizing a switchably variable transmission ratio, and - an adjustment apparatus which is coupled to the transmission device and by the actuation of which the transmission ratio of the transmission device is adjustable, in which the electric drive is designed for actuating the adjustment apparatus and, in particular, is couplable to the adjustment apparatus for the purposes of transmitting at least a part of the motor torque, characterized in that an activatable coupling gearing is provided for the coupling of the electric drive to the adjustment apparatus, wherein the coupling gearing has a planetary gearing, wherein the planetary gearing of the coupling gearing has a planet carrier with planets, which planet carrier is couplable or coupled, at the input side in relation to the coupling gearing, directly or indirectly to the electric drive. - an electric drive for generating a motor torque, - a crankshaft, which is rotatable about an axis of rotation, for receiving at least the motor torque, - a transmission device which is designed for transmitting a torque received by the crankshaft to an output element which is couplable to a drive wheel of the vehicle and for realizing a switchably variable transmission ratio, and - an adjustment apparatus which is coupled to the transmission device and by the actuation of which the transmission ratio of the transmission device is adjustable,
Torsionally elastic shaft coupling, having: - a first coupling part and a second coupling part which are mounted so as to be rotatable relative to one another, and - at least one spring arrangement (5, 6), wherein - the shaft coupling has at least one cassette (3, 4) which is detachably connected to the second coupling part and in which a spring arrangement (5, 6) is mounted, wherein the cassette (3, 4), together with the spring arrangement (5, 6) mounted therein, forms an exchangeable module (13, 14), characterised in that the shaft coupling has at least two cassettes (3, 4) which are detachably connected to the second coupling part and in each of which a spring arrangement (5, 6) is mounted, wherein each cassette (3, 4), together with the spring arrangement (5, 6) mounted therein, forms an exchangeable module, 14), and in that a first cassette has a larger outer diameter than a second cassette, wherein the first cassette has a recess into which the second cassette is inserted, and wherein the shaft coupling has at least one driver (7, 8) which is connected to the first coupling part and interacts with the spring arrangement (5, 6). - a first coupling part and a second coupling part which are mounted so as to be rotatable relative to one another, and - at least one spring arrangement (5, 6), wherein - the shaft coupling has at least one cassette (3, 4) which is detachably connected to the second coupling part and in which a spring arrangement (5, 6) is mounted, wherein the cassette (3, 4), together with the spring arrangement (5, 6) mounted therein, forms an exchangeable module (13, 14),
A locking system for securing an attachment to a working arm of a working machine, the locking system comprising: a latch member movable between an engaged position, where the attachment is secured to said working arm, and a disengaged position, where the attachment can be removed from said working arm; and a hydraulic circuit configured to lock the latch member in the engaged position; wherein the hydraulic circuit comprises a lock configured to open when the circuit reaches a predetermined pressure such that the latch member is released from the engaged position; characterised by a relief valve configured to activate below the predetermined pressure, such that the lock remains closed in normal operation; and an isolation arrangement configured to selectively isolate the relief valve from the circuit upon an operator input, to enable the circuit to reach the predetermined pressure such that the latch member is released. a latch member movable between an engaged position, where the attachment is secured to said working arm, and a disengaged position, where the attachment can be removed from said working arm; and a hydraulic circuit configured to lock the latch member in the engaged position; wherein the hydraulic circuit comprises a lock configured to open when the circuit reaches a predetermined pressure such that the latch member is released from the engaged position; characterised by a relief valve configured to activate below the predetermined pressure, such that the lock remains closed in normal operation; and an isolation arrangement configured to selectively isolate the relief valve from the circuit upon an operator input, to enable the circuit to reach the predetermined pressure such that the latch member is released.
A personal care product for receiving a fluid having viscoelastic properties, said personal care product comprising a a backsheet, an absorbent core, an intake layer, a body contact layer, and a treatment agent, wherein the treatment agent is present on at least one of the intake layer and the absorbent core in an amount of from about 3% (by weight of the treated intake layer and/or the treated absorbent core) to about 12% (by weight of the treated intake layer and/or the treated absorbent core) and wherein the treatment agent is selected from the group consisting of polyethylene glycol laurates, and polyethylene glycol lauryl ethers.
An organosilane compound having at least one silicon atom bearing at least one hydrolyzable group, at least one non-hydrolyzable group comprising a hydrophilic group selected from the polyoxyalkylene, polyol, polyether and sulfonate groups, and at least one non-hydrolyzable group comprising a hydrophobic group having at least one fluorine atom, said hydrophilic group and said hydrophobic group not both being included in the main chain of one and the same substituent of the silicon atom.
A controller for controlling inflation and deflation of at least one bladder (13a, 13b, 13c) of a compression garment to provide compression therapy treatment to a wearer of the compression garment, the controller comprising a memory, one or more processors, and a non-transitory, computer-readable storage medium; characterised in that the computer-readable storage medium includes computer-executable instructions for causing the one or more processors to: receive, during a static pressure period, from a pressure sensor, a signal indicative of fluid pressure in the at least one bladder (13a, 13b, 13c) of the compression garment; determine whether the received signal includes a representation of a pulse of the wearer; and based at least in part on the determination of whether the received signal includes a signal indicative of the pulse of the wearer, estimate a blood pressure of the wearer of the compression garment based on the pressure received by the pressure sensor only during the static pressure period. receive, during a static pressure period, from a pressure sensor, a signal indicative of fluid pressure in the at least one bladder (13a, 13b, 13c) of the compression garment; determine whether the received signal includes a representation of a pulse of the wearer; and based at least in part on the determination of whether the received signal includes a signal indicative of the pulse of the wearer, estimate a blood pressure of the wearer of the compression garment based on the pressure received by the pressure sensor only during the static pressure period.
A method for providing service information on a video apparatus, the method characterised by comprising: transmitting from the video apparatus a request message to an external apparatus, which is connected according to the High Definition Multimedia Interface Consumer Electronics Control standard, the request message requesting service information provided by the external apparatus; receiving at the video apparatus a reply message including the service information from the external apparatus as a response to the request message; generating at the video apparatus a list of services based on the reply message; displaying the list of services on the video apparatus; and, transmitting a service execution request message from the video apparatus to the external apparatus to request an execution of a particular service contained in the reply message and selected from the displayed list of services. transmitting from the video apparatus a request message to an external apparatus, which is connected according to the High Definition Multimedia Interface Consumer Electronics Control standard, the request message requesting service information provided by the external apparatus; receiving at the video apparatus a reply message including the service information from the external apparatus as a response to the request message; generating at the video apparatus a list of services based on the reply message; displaying the list of services on the video apparatus; and, transmitting a service execution request message from the video apparatus to the external apparatus to request an execution of a particular service contained in the reply message and selected from the displayed list of services.