mhurhangee/patent-ind-claim-en huggingface dataset:
A selectively operable braking device for an elevator system including a car and a plurality of guiderails , comprising: a safety brake disposed on the car and adapted to be wedged against one of the guiderails when moved from a non-braking state into a braking state; a magnetic brake ; and an electromagnetic component configured to move the magnetic brake from the rail-engaging position to the rail-non-engaging position upon receipt of a resetting signal; characterized by the magnetic brake comprising a magnet; and the braking device further comprising: a rod operably coupled to the safety brake and the magnetic brake , the rod configured to move the safety brake between the non-braking state and braking state; the magnetic brake operably coupled to the rod and disposed adjacent to the guiderail, the magnetic brake configured to move between a rail-engaging position and a rail-non-engaging position, said magnetic brake, when in the rail-engaging position contemporaneously with motion of the car, moving the rod in a direction to thereby move the safety brake from the non-braking state into the braking state. a safety brake disposed on the car and adapted to be wedged against one of the guiderails when moved from a non-braking state into a braking state; a magnetic brake ; and an electromagnetic component configured to move the magnetic brake from the rail-engaging position to the rail-non-engaging position upon receipt of a resetting signal; characterized by the magnetic brake comprising a magnet; and the braking device further comprising: a rod operably coupled to the safety brake and the magnetic brake , the rod configured to move the safety brake between the non-braking state and braking state; the magnetic brake operably coupled to the rod and disposed adjacent to the guiderail, the magnetic brake configured to move between a rail-engaging position and a rail-non-engaging position, said magnetic brake, when in the rail-engaging position contemporaneously with motion of the car, moving the rod in a direction to thereby move the safety brake from the non-braking state into the braking state. a rod operably coupled to the safety brake and the magnetic brake , the rod configured to move the safety brake between the non-braking state and braking state; the magnetic brake operably coupled to the rod and disposed adjacent to the guiderail, the magnetic brake configured to move between a rail-engaging position and a rail-non-engaging position, said magnetic brake, when in the rail-engaging position contemporaneously with motion of the car, moving the rod in a direction to thereby move the safety brake from the non-braking state into the braking state.
A steering control device configured to control a motor, the motor being a generation source of a driving force that is given to a steering mechanism of a vehicle, the steering control device comprising a controller (75; 72; 53a; 62; 63a: 124; 133; 113a), the controller (75; 72; 53a; 62; 63a; 124; 133; 113a) being configured to compute a controlled variable depending on a steering state, the controlled variable being used in the control of the motor, the controller (75; 72; 53a; 62; 63a; 124; 133; 113a) being configured to alter a control parameter for the controller (75; 72; 53a; 62; 63a; 124; 133; 113a), based on a command that is generated by a host control device depending on a purpose of an intervention in a steering control, the host control device being mounted on the vehicle, the steering control device is configured to control the motor including a turning motor that generates a turning force for turning a turning wheel as the driving force that is given to a turning shaft of the steering mechanism, the turning shaft being configured to turn the turning wheel, and/or a reaction motor that generates a steering reaction force as the driving force that is given to a steering shaft of the steering mechanism, the steering shaft being configured to rotate in conjunction with an operation of a steering wheel, the steering reaction force being a torque in an opposite direction of a steering direction, dynamic force transmission between a steering wheel and the turning wheel being isolated, characterized in that the controller (75; 72; 53a; 62; 63a; 124; 133; 113a) is configured to compute the controlled variable by executing a feedback control to cause a detection value of a physical quantity to follow up a target value of the physical quantity, the physical quantity changing depending on a turning action of the turning wheel and/or the operation of the steering wheel. the steering control device is configured to control the motor including a turning motor that generates a turning force for turning a turning wheel as the driving force that is given to a turning shaft of the steering mechanism, the turning shaft being configured to turn the turning wheel, and/or a reaction motor that generates a steering reaction force as the driving force that is given to a steering shaft of the steering mechanism, the steering shaft being configured to rotate in conjunction with an operation of a steering wheel, the steering reaction force being a torque in an opposite direction of a steering direction, dynamic force transmission between a steering wheel and the turning wheel being isolated, characterized in that the controller (75; 72; 53a; 62; 63a; 124; 133; 113a) is configured to compute the controlled variable by executing a feedback control to cause a detection value of a physical quantity to follow up a target value of the physical quantity, the physical quantity changing depending on a turning action of the turning wheel and/or the operation of the steering wheel.
Device for producing three-dimensional structures of a material to be consolidated, in particular from an organopolysiloxane-containing material, by locally-selective consolidation of the latter as a result of light-induced organic crosslinking, comprising: a laser source , a movable focusing optics for the formation of one or a plurality of laser foci and a material container for the material to be consolidated, the laser source and the focusing optics being adapted to generate laser pulses or laser pulse sequences, respectively, which produce a two- or multi-photon polymerization of the material to be consolidated at their focal point, and wherein the focusing optics has a numerical aperture of >0.25, wherein the material container consists at least partially of a material which is transparent to the laser radiation used and is arranged or arrangeable in the beam path in such a way that the laser beam can be introduced into the material to be solidified through the material, wherein the material container remains stationary and acts as an optically defined boundary surface, and wherein a carrier unit is arranged in the material container and can be positioned in relation to the latter, and an optical detection system for in-situ measuring of a structure already introduced into the material and/or of the carrier unit acting as substrate. a laser source , a movable focusing optics for the formation of one or a plurality of laser foci and a material container for the material to be consolidated, the laser source and the focusing optics being adapted to generate laser pulses or laser pulse sequences, respectively, which produce a two- or multi-photon polymerization of the material to be consolidated at their focal point, and wherein the focusing optics has a numerical aperture of >0.25, wherein the material container consists at least partially of a material which is transparent to the laser radiation used and is arranged or arrangeable in the beam path in such a way that the laser beam can be introduced into the material to be solidified through the material, wherein the material container remains stationary and acts as an optically defined boundary surface, and wherein a carrier unit is arranged in the material container and can be positioned in relation to the latter, and an optical detection system for in-situ measuring of a structure already introduced into the material and/or of the carrier unit acting as substrate.
An agent for acylating a chromosome protein, the agent comprising a combination of the following compound (a) and the following compound (b): (a) a compound having a chromosome-localizable activity and a nucleophilic catalytic activity, wherein the compound has a structure in which five or more molecules of 4-dimethylaminopyridine are linked with linkers and in which the carbon of a methyl group or position 3 or 5 of the pyridine in each 4-dimethylaminopyridine is linked to the linker; and (b) a compound having a chromosome-localizable activity and a lysine acylating activity, wherein the compound has a structure in which an acylating agent and a cationic compound are linked, wherein said acylating agent is N-methoxydiacetamide or 4-malonyloxybenzamide and said cationic compound is a cationic polymer which is polyarginine. (a) a compound having a chromosome-localizable activity and a nucleophilic catalytic activity, wherein the compound has a structure in which five or more molecules of 4-dimethylaminopyridine are linked with linkers and in which the carbon of a methyl group or position 3 or 5 of the pyridine in each 4-dimethylaminopyridine is linked to the linker; and (b) a compound having a chromosome-localizable activity and a lysine acylating activity, wherein the compound has a structure in which an acylating agent and a cationic compound are linked, wherein said acylating agent is N-methoxydiacetamide or 4-malonyloxybenzamide and said cationic compound is a cationic polymer which is polyarginine.
Installation for filling containers , the installation comprising a linearly-movable conveyor on which the containers are to stand via their bottoms, characterized in that the installation includes a support extending at least in part over the conveyor, the support carrying at least one vertically-extending dispenser spout and a weighing device having suspended therefrom a vertical guide extending in the vicinity of the dispenser spout, a container grasper member being mounted on the support to present an opening of a container under the dispenser spout and to be movable between a low position in which the grasper member can grasp a container standing on the conveyor or can put a grasped container back onto the conveyor, and a high position in which the container is separated from the conveyor and its opening is close to the dispenser spout, and means for controlling the grasper member.
A battery pack provided in a vehicle , comprising: at least one battery module having at least one battery cell ; a relay unit configured to connect the at least one battery module to a motor unit of the vehicle ; and a control unit connected to the relay unit and the motor unit to control the relay unit and the motor unit , characterized in that the control unit is configured to, when a temperature of the at least one battery cell of the at least one battery module rises over a predetermined temperature, shift a gear of the motor unit to a neutral mode and to operate the relay unit in such a way that a switch of the relay unit is closed so that the motor unit idles so that the energy level of the battery cells of the at least one battery module is lowered to prevent a thermal runaway. at least one battery module having at least one battery cell ; a relay unit configured to connect the at least one battery module to a motor unit of the vehicle ; and a control unit connected to the relay unit and the motor unit to control the relay unit and the motor unit , characterized in that the control unit is configured to, when a temperature of the at least one battery cell of the at least one battery module rises over a predetermined temperature, shift a gear of the motor unit to a neutral mode and to operate the relay unit in such a way that a switch of the relay unit is closed so that the motor unit idles so that the energy level of the battery cells of the at least one battery module is lowered to prevent a thermal runaway.
Device for forming the gable surfaces of packages with an oblique gable, comprising: - a conveyor device with cells fastened thereto for receiving the packages , - at least one gable folder to fold a fin seam in the gable region of the packages and - at least two lug folders to fold lugs in the gable region of the packages , - wherein both the gable folder and the lug folders are mounted so as to be movable relative to the conveyor device and the packages transported thereby, characterised in that the gable folder is mounted so as to be movable in one plane and has at least two-dimensional mobility. - a conveyor device with cells fastened thereto for receiving the packages , - at least one gable folder to fold a fin seam in the gable region of the packages and - at least two lug folders to fold lugs in the gable region of the packages , - wherein both the gable folder and the lug folders are mounted so as to be movable relative to the conveyor device and the packages transported thereby, characterised in that the gable folder is mounted so as to be movable in one plane and has at least two-dimensional mobility.
A biological fiber membrane formed by culturing bacteria of the genus Gluconacetobacter in a culture medium having mannitol, peptone, yeast extract and agar, comprising: a first surface layer and an opposing second surface layer; and a three-dimensional reticular structure bound between the first surface layer and the second surface layer, wherein the density of the three-dimensional reticular structure is lower than the density of the first surface layer and the second surface layer, wherein the three-dimensional reticular structure has a plurality of backbone fibers parallel to each other and a plurality of inter-layer fibers interwoven at any two of adjacent backbone fibers, and the diameter of each of the plurality of backbone fibers is greater than or equal to the diameter of each of the plurality of inter-layer fibers, and wherein the plurality of backbone fibers extend along a longitudinal direction or a width direction of the biological fiber membrane, and wherein the water content per unit area of the biological fiber membrane is from 0.06 to 0.14 g/cm 2 . a first surface layer and an opposing second surface layer; and a three-dimensional reticular structure bound between the first surface layer and the second surface layer, wherein the density of the three-dimensional reticular structure is lower than the density of the first surface layer and the second surface layer, wherein the three-dimensional reticular structure has a plurality of backbone fibers parallel to each other and a plurality of inter-layer fibers interwoven at any two of adjacent backbone fibers, and the diameter of each of the plurality of backbone fibers is greater than or equal to the diameter of each of the plurality of inter-layer fibers, and wherein the plurality of backbone fibers extend along a longitudinal direction or a width direction of the biological fiber membrane, and wherein the water content per unit area of the biological fiber membrane is from 0.06 to 0.14 g/cm 2 .
An optical scanning device, comprising: a light source for emitting a light beam; a deflector having a plurality of flat reflecting surfaces; a first optical system disposed between the light source and the deflector ; and a second optical system disposed between the deflector and a photoreceptor surface , and configured such that the reflecting surfaces of the deflector and the photoreceptor surface are conjugated in a sub-scanning direction at every deflection angle in a main-scanning range, and the light beam traveling from the first optical system to the deflector has a width greater than a dimension in a main-scanning direction of each reflecting surface of the deflector , characterized in that : the first optical system comprises a collimator lens that is an axisymmetric aspherical surface lens made of glass and a free-form surface lens that is a non-axisymmetric lens made of resin and has a free-form surface on the side closer to the light source, wherein the light beam incident to the free-form surface lens is a parallel bundle of rays, such that the light beam passes through different portions of the first optical system depending on whether the light beam is to be deflected by the deflector to be directed to an edge portion of the main-scanning range or to be directed to a center portion of the main-scanning range such that the light beam traveling to the deflector has a smaller average wavefront curvature in a sub-scanning direction when the light beam is to be deflected by the deflector to be directed to an edge portion of the main-scanning range than when the light beam is to be deflected by the deflector to be directed to the center portion of the main-scanning range.
A mask system comprising: a mask component including one or more openings for gas washout, the openings being annularly arranged about the circumference of the mask component; and a vent component provided to the mask component, the vent component being constructed and arranged such that it includes one or more tracks or grooves along the outer surface of the vent component, and said one or more tracks or groves being included between the mask component and the vent component, and said one or more tracks or groves being adapted to guide gas washout, the vent component being further adapted to cover the one or more openings in the mask component so that gas washout escapes along the one or more tracks or grooves between the mask component and the vent component, wherein the one or more tracks or grooves extend from an inner radius of the vent component to an outer radius of the vent component and wherein the tracks or grooves are curved. a mask component including one or more openings for gas washout, the openings being annularly arranged about the circumference of the mask component; and a vent component provided to the mask component, the vent component being constructed and arranged such that it includes one or more tracks or grooves along the outer surface of the vent component, and said one or more tracks or groves being included between the mask component and the vent component, and said one or more tracks or groves being adapted to guide gas washout, the vent component being further adapted to cover the one or more openings in the mask component so that gas washout escapes along the one or more tracks or grooves between the mask component and the vent component, wherein the one or more tracks or grooves extend from an inner radius of the vent component to an outer radius of the vent component and wherein the tracks or grooves are curved.
A wind turbine blade having a lengthwise and a chordwise direction , the wind turbine blade comprising: a first blade element extending in the lengthwise direction and having a first airfoil in the chordwise direction , a second blade element extending in the lengthwise direction and having a second airfoil in the chordwise direction , a root blade element configured for being connected to a hub of a wind turbine , and a pretension cable , wherein: the first and second airfoils are arranged besides each other when seen in the lengthwise direction , the pretension cable is connecting the first blade element and/or the second blade element to the root blade element , and the pretension cable is configured for being connected inside the hub of the wind turbine . a first blade element extending in the lengthwise direction and having a first airfoil in the chordwise direction , a second blade element extending in the lengthwise direction and having a second airfoil in the chordwise direction , a root blade element configured for being connected to a hub of a wind turbine , and a pretension cable , wherein: the first and second airfoils are arranged besides each other when seen in the lengthwise direction , the pretension cable is connecting the first blade element and/or the second blade element to the root blade element , and the pretension cable is configured for being connected inside the hub of the wind turbine . the first and second airfoils are arranged besides each other when seen in the lengthwise direction , the pretension cable is connecting the first blade element and/or the second blade element to the root blade element , and the pretension cable is configured for being connected inside the hub of the wind turbine .
An appliance for loading a suspended transport pocket from above with a transport item , in particular with a piece item, comprising a feed device for feeding the transport item into a transfer region (T) and a suspended conveying device with a guide rail and with transport pockets which are movable along the guide rail , wherein the course of the guide rail is designed such that directly subsequent to the transfer of the transport item the transport pocket is conveyed away upwards in a suspended manner and therefore out of the conveying level of the feed device and the conveying paths of the suspended conveying device and of the feed device run on different levels in a space-saving manner, wherein the guide rail forms a bending section in the transfer region (T) in which the transport pockets are deflected along a curved track from a feed direction into a conveying-away direction, such that the transport pocket is moved out of the transfer region (T) essentially counter to a transfer direction (E) of the transport item over a conveying stretch section.
A system comprising: an exciter configured to generate a variable field current for a synchronous generator , the synchronous generator configured to rotate and output variable electric power in accordance with the variable field current; and a controller configured to control an exciter voltage of the exciter using a voltage input signal to generate the variable field current for the synchronous generator ; characterised in that the controller further configured to selectively include at least one of a DC component or an AC component in the exciter voltage with the voltage input signal, and the controller further configured to include only the AC component in the exciter voltage when the exciter is at a rotational speed of zero, and transition the AC component to the DC component as the rotational speed of the exciter increases by independently varying the level of the AC component and the level of the DC component, to maintain a true RMS value of a current associated with the exciter voltage substantially constant and avoid decoupling of the exciter rotor and the exciter stator such that a decrease in the AC component is offset with a corresponding increase in the DC component, in response to the rotational speed of the exciter and the synchronous generator increasing, as the synchronous generator outputs variable electric power. an exciter configured to generate a variable field current for a synchronous generator , the synchronous generator configured to rotate and output variable electric power in accordance with the variable field current; and a controller configured to control an exciter voltage of the exciter using a voltage input signal to generate the variable field current for the synchronous generator ; characterised in that the controller further configured to selectively include at least one of a DC component or an AC component in the exciter voltage with the voltage input signal, and the controller further configured to include only the AC component in the exciter voltage when the exciter is at a rotational speed of zero, and transition the AC component to the DC component as the rotational speed of the exciter increases by independently varying the level of the AC component and the level of the DC component, to maintain a true RMS value of a current associated with the exciter voltage substantially constant and avoid decoupling of the exciter rotor and the exciter stator such that a decrease in the AC component is offset with a corresponding increase in the DC component, in response to the rotational speed of the exciter and the synchronous generator increasing, as the synchronous generator outputs variable electric power.