mhurhangee/patent-ind-claim-en huggingface dataset:
A turning angle detecting device comprising: a position detecting unit configured to detect a turning angle (θt) of a wheel turning mechanism; an actuator configured to drive the wheel turning mechanism; a first storage unit configured to store a turning angle neutral point correction value (Δθt) being a difference between a median of the turning angles at respective limits in right steering and left steering and the turning angle when a vehicle is traveling straight; a second storage unit configured to store an actuator initial position (θm0) being a position of a movable portion of the actuator when the vehicle is traveling straight; an actuator position detecting unit configured to detect the position of the movable portion of the actuator as a first actuator position ; a first turning angle calculating unit configured to calculate, as a first turning angle (θt1), the turning angle of the wheel turning mechanism with respect to the median of the turning angles at the respective limits in the right steering and the left steering on a basis of the first actuator position ; and a second turning angle calculating unit configured to calculate a second turning angle (θt2) with respect to the turning angle of the wheel turning mechanism when the vehicle is traveling straight on a basis of the first actuator position (θm), the turning angle neutral point correction value (Δθt), the actuator initial position (θm0), and the first turning angle (θt1). a position detecting unit configured to detect a turning angle (θt) of a wheel turning mechanism; an actuator configured to drive the wheel turning mechanism; a first storage unit configured to store a turning angle neutral point correction value (Δθt) being a difference between a median of the turning angles at respective limits in right steering and left steering and the turning angle when a vehicle is traveling straight; a second storage unit configured to store an actuator initial position (θm0) being a position of a movable portion of the actuator when the vehicle is traveling straight; an actuator position detecting unit configured to detect the position of the movable portion of the actuator as a first actuator position ; a first turning angle calculating unit configured to calculate, as a first turning angle (θt1), the turning angle of the wheel turning mechanism with respect to the median of the turning angles at the respective limits in the right steering and the left steering on a basis of the first actuator position ; and a second turning angle calculating unit configured to calculate a second turning angle (θt2) with respect to the turning angle of the wheel turning mechanism when the vehicle is traveling straight on a basis of the first actuator position (θm), the turning angle neutral point correction value (Δθt), the actuator initial position (θm0), and the first turning angle (θt1).
A humidifier for humidifying indoor air, comprising: a fog unit for generating droplets (SC1) from water (H2O); a nozzle unit for forming a fog volume (FV1) comprising the droplets (SC1); a first projector for projecting an optical image (IMG1) to the fog volume (FV1); an input for receiving measurement data (HD1) from a humidity sensor (HS1); and a control unit configured to generate a digital image (DIMGa) based on the measurement data (HD1), wherein the first projector is arranged to project the optical image (IMG1) according to the digital image (DIMGa) to the fog volume (FV1). a fog unit for generating droplets (SC1) from water (H2O); a nozzle unit for forming a fog volume (FV1) comprising the droplets (SC1); a first projector for projecting an optical image (IMG1) to the fog volume (FV1); an input for receiving measurement data (HD1) from a humidity sensor (HS1); and a control unit configured to generate a digital image (DIMGa) based on the measurement data (HD1), wherein the first projector is arranged to project the optical image (IMG1) according to the digital image (DIMGa) to the fog volume (FV1).
A method for securely extending cloud service application programming interfaces (APIs) in a cloud service marketplace, the method comprising: deploying, by a connector hub of a marketplace computing device , an API connector instance in a connection factory of the marketplace computing device , wherein the API connector instance comprises source code of an API connector usable to communicate with a remote API associated with a cloud service of a cloud service provider; transmitting, by the connector hub , provider provisioning channel credentials to the API connector instance and a cloud service provider interface of the cloud service provider; transmitting, by the connector hub , broker provisioning channel credentials to the API connector instance and a cloud service broker interface of the cloud service broker; and establishing of, by the connector hub , a provisioning channel between the cloud service provider interface and the cloud service broker interface , wherein establishing the provisioning channel comprises establishing (i) a first communication channel between the API connector instance and the cloud service provider interface using the provider provisioning channel credentials to perform a first authentication operation, and (ii) a second communication channel between the API connector instance and the cloud service broker interface using the broker provisioning channel credentials to perform a second authentication operation. deploying, by a connector hub of a marketplace computing device , an API connector instance in a connection factory of the marketplace computing device , wherein the API connector instance comprises source code of an API connector usable to communicate with a remote API associated with a cloud service of a cloud service provider; transmitting, by the connector hub , provider provisioning channel credentials to the API connector instance and a cloud service provider interface of the cloud service provider; transmitting, by the connector hub , broker provisioning channel credentials to the API connector instance and a cloud service broker interface of the cloud service broker; and establishing of, by the connector hub , a provisioning channel between the cloud service provider interface and the cloud service broker interface , wherein establishing the provisioning channel comprises establishing (i) a first communication channel between the API connector instance and the cloud service provider interface using the provider provisioning channel credentials to perform a first authentication operation, and (ii) a second communication channel between the API connector instance and the cloud service broker interface using the broker provisioning channel credentials to perform a second authentication operation.
A solar heat collection adsorption composite tube, characterized in that the solar heat collection adsorption composite tube (1.2) comprises a solar vacuum tube (1.2.1) having two open ends; an outer metal tube (1.2.2) and an inner metal tube (1.2.3) are coaxially disposed inside the solar vacuum tube (1.2.1); a water path is formed between the outer metal tube (1.2.2) and the solar vacuum tube (1.2.1); a solid adsorbent (1.2.4) is disposed between the outer metal tube (1.2.2) and the inner metal tube (1.2.3) for exchanging heat with water outside the outer metal tube (1.2.2); a plurality of through holes are disposed on the inner metal tube (1.2.3); an adsorbate is disposed in the inner metal tube (1.2.3); and the adsorbate and the adsorbent (1.2.4) form a working pair for adsorption and desorption for accomplishing heat release and heat adsorption.
A method of wireless communication performed by a user equipment, UE, the method comprising: establishing , using a first frequency band, a first communication connection on a first subscriber identity module, SIM; establishing , using a second frequency band, a second communication connection on a second SIM in a multi-SIM dual receive mode that includes the first SIM and the second SIM having concurrent activity; switching from a first antenna to a second antenna for the first SIM in accordance with an antenna switching capability that is based at least in part on whether the first communication connection and the second communication connection are time division duplex, TDD, synchronized; and transmitting one or more communications associated with the first SIM using the second antenna. establishing , using a first frequency band, a first communication connection on a first subscriber identity module, SIM; establishing , using a second frequency band, a second communication connection on a second SIM in a multi-SIM dual receive mode that includes the first SIM and the second SIM having concurrent activity; switching from a first antenna to a second antenna for the first SIM in accordance with an antenna switching capability that is based at least in part on whether the first communication connection and the second communication connection are time division duplex, TDD, synchronized; and transmitting one or more communications associated with the first SIM using the second antenna.
A jaw crusher for use with a construction machine , said jaw crusher comprising a fixed jaw fixed in a bucket , and a moving jaw opposed to the fixed jaw and pivotally supported on the top of the bucket by an eccentric shaft and supported on the bottom of the bucket by a toggle mechanism , the fixed jaw and the moving jaw being arranged such that a space on a scooping side of the bucket is opened wide as an inlet and is gradually narrowed toward the depth and continues to an outlet of the bucket , for use in crushing slag and other materials to be crushed by swing of the moving jaw , said jaw crusher further comprises a hydraulic motor located in the bucket for rotating the eccentric shaft forward and reverse; characterized in that said jaw crusher further comprises a crushing control means configured to, in response to the operation of a pedal for crushing work provided in the construction machine , automatically rotate the eccentric shaft in reverse by reversing the hydraulic motor and then rotate the shaft forward when crushing the material to be crushed. a hydraulic motor located in the bucket for rotating the eccentric shaft forward and reverse; characterized in that said jaw crusher further comprises a crushing control means configured to, in response to the operation of a pedal for crushing work provided in the construction machine , automatically rotate the eccentric shaft in reverse by reversing the hydraulic motor and then rotate the shaft forward when crushing the material to be crushed.
A sensor arrangement method comprising: identifying, in response to detecting occurrence of an event for arranging a first sensor, in addition to a second sensor pre-arranged in a preset service area, sensing coverage and network coverage of the second sensor based on position information of the second sensor, state information of the second sensor and network information supported by the second sensor; determining an arrangement position of the first sensor based on the sensing coverage and the network coverage of the second sensor, and sensing coverage and network coverage of the first sensor; wherein the state information comprises operation state information including a sensing function currently activated in the second sensor from among a plurality of sensing functions supported by the second sensor, and wherein the determining of a position of the first sensor further comprises: determining a changed arrangement position of the second sensor based on the determined arrangement position of the first sensor. identifying, in response to detecting occurrence of an event for arranging a first sensor, in addition to a second sensor pre-arranged in a preset service area, sensing coverage and network coverage of the second sensor based on position information of the second sensor, state information of the second sensor and network information supported by the second sensor; determining an arrangement position of the first sensor based on the sensing coverage and the network coverage of the second sensor, and sensing coverage and network coverage of the first sensor; wherein the state information comprises operation state information including a sensing function currently activated in the second sensor from among a plurality of sensing functions supported by the second sensor, and wherein the determining of a position of the first sensor further comprises: determining a changed arrangement position of the second sensor based on the determined arrangement position of the first sensor.
A vacuum device , in particular a vacuum pump, comprising a first component , a second component , and a device for connecting the first and the second component , wherein one of the components is an electrical component, in particular a fan, wherein the other of the components is a housing part or a removable cover, wherein the device comprises at least one plug-in element formed at the first component and at least one receiver which is formed at the second component and which has a reception opening for the plug-in element , wherein the plug-in element and the receiver are configured such that a clamping connection between the two components can be established by inserting the plug-in element into the receiver , wherein the plug-in element is conical, and wherein the reception opening is cylindrical or annular or conical, or wherein the plug-in element is cylindrical and wherein the reception opening is conical, and wherein the receiver has an edged transition , in particular a sharpedged transition , into the reception opening that, when the clamping connection is being established, brings about an interlocking, in particular a micro-interlocking, of the receiver and the surface structure of the plug-in element , characterized in that the plug-in element is formed from fiber-reinforced plastic. the plug-in element and the receiver are configured such that a clamping connection between the two components can be established by inserting the plug-in element into the receiver , wherein the plug-in element is conical, and wherein the reception opening is cylindrical or annular or conical, or wherein the plug-in element is cylindrical and wherein the reception opening is conical, and wherein the receiver has an edged transition , in particular a sharpedged transition , into the reception opening that, when the clamping connection is being established, brings about an interlocking, in particular a micro-interlocking, of the receiver and the surface structure of the plug-in element , characterized in that the plug-in element is formed from fiber-reinforced plastic.
A grate bar for mounting in arrays of adjacent grate bars in a pallet car of a sintering or pelletizing machine, said grate bar comprising an elongate crossbeam extending in a longitudinal direction of a horizontal plane, with a middle section between two opposite end sections , wherein said crossbeam has a generally rectangular cross-section with an upper surface for receiving bulk material thereon, an opposite lower surface , and peripheral surfaces for facing adjacent grate bars; wherein said crossbeam comprises two legs to vertically secure said grate bar to said pallet car; and wherein said end sections of said crossbeam comprise first interlocking means , said first interlocking means being shaped and arranged such that they cooperate with first interlocking means of grate bars of a neighbouring row of grate bars; thereby limiting relative translations of two neighbouring grate bars in at least a vertical and a horizontal orientation, wherein said first interlocking means have a triangular cross-section in a horizontal plane. wherein said crossbeam has a generally rectangular cross-section with an upper surface for receiving bulk material thereon, an opposite lower surface , and peripheral surfaces for facing adjacent grate bars; wherein said crossbeam comprises two legs to vertically secure said grate bar to said pallet car; and wherein said end sections of said crossbeam comprise first interlocking means , said first interlocking means being shaped and arranged such that they cooperate with first interlocking means of grate bars of a neighbouring row of grate bars; thereby limiting relative translations of two neighbouring grate bars in at least a vertical and a horizontal orientation, wherein said first interlocking means have a triangular cross-section in a horizontal plane.
A method for measuring a distance of an object, the method comprising: emitting, by a first light source , a first light (A) toward the object; emitting, by a second light source , a second light (B) toward the object, wherein the first light (A) and second light (B) converge at a first point and diverge at a second point such that the first light (A) and second light (B) completely overlap at the first point , and that the first light (A) and second light (B) completely separate at the second point ; capturing a first image of the object illuminated by the first light (A) by using an optical sensor ; capturing a second image of the object illuminated by the second light (B) by using the optical sensor ; determining an image difference between the first image and the second image of the object; and determining the distance (R1) of the object with respect to the first point based on the image difference and a distance difference (R) between the first point and the second point . emitting, by a first light source , a first light (A) toward the object; emitting, by a second light source , a second light (B) toward the object, wherein the first light (A) and second light (B) converge at a first point and diverge at a second point such that the first light (A) and second light (B) completely overlap at the first point , and that the first light (A) and second light (B) completely separate at the second point ; capturing a first image of the object illuminated by the first light (A) by using an optical sensor ; capturing a second image of the object illuminated by the second light (B) by using the optical sensor ; determining an image difference between the first image and the second image of the object; and determining the distance (R1) of the object with respect to the first point based on the image difference and a distance difference (R) between the first point and the second point .
A non-transitory computer readable storage medium having stored thereon instructions that, when executed, cause a processor of a device to at least: obtain a first motion estimate for a medical instrument based on robotic data regarding physical manipulation of the medical instrument ; obtain a second motion estimate for the medical instrument based on position sensor data received from at least one position sensor; determine a motion estimate disparity based on a comparison of the first motion estimate and the second motion estimate; based on the motion estimate disparity, update (a) a weighting factor for a location derivable from the robotic data , or (b) a weighting factor for a location derivable from the position sensor data ; and determine a position estimate for the medical instrument based on the updated weighting factor. obtain a first motion estimate for a medical instrument based on robotic data regarding physical manipulation of the medical instrument ; obtain a second motion estimate for the medical instrument based on position sensor data received from at least one position sensor; determine a motion estimate disparity based on a comparison of the first motion estimate and the second motion estimate; based on the motion estimate disparity, update (a) a weighting factor for a location derivable from the robotic data , or (b) a weighting factor for a location derivable from the position sensor data ; and determine a position estimate for the medical instrument based on the updated weighting factor.
Differential sensor for the detection of anomalies in electrically conductive materials with: a permanent magnet (PM) composed of at least one piece of a magnetizable material that maintains its static magnetic field without an electrical current flow being required to generate the magnetic field, wherein the permanent magnet has a magnetic axis which runs along the joining line between the magnetic north pole N and the magnetic south pole S of the permanent magnet; a first coil (S1) with one or more first windings which run around the permanent magnet and define a first coil axis (A1), wherein the first coil axis (A1) runs parallel to the magnetic axis, and a second coil (S2) with one or more second windings which run around the permanent magnet and define a second coil axis (A2) which runs transversely to the first coil axis. a permanent magnet (PM) composed of at least one piece of a magnetizable material that maintains its static magnetic field without an electrical current flow being required to generate the magnetic field, wherein the permanent magnet has a magnetic axis which runs along the joining line between the magnetic north pole N and the magnetic south pole S of the permanent magnet; a first coil (S1) with one or more first windings which run around the permanent magnet and define a first coil axis (A1), wherein the first coil axis (A1) runs parallel to the magnetic axis, and a second coil (S2) with one or more second windings which run around the permanent magnet and define a second coil axis (A2) which runs transversely to the first coil axis.
Method for operating a battery storage system , having the following steps: - operating at least one battery with a first load profile having a first number of load cycles per hour with a first power swing, - operating a control unit designed to evaluate the first load profile at the battery, to determine a second load profile on the basis thereof and to generate the second load profile with a second number of load cycles per hour with a second power swing, and designed to apply the second load profile to the battery , - applying the second load profile to the battery , wherein the second load profile is superimposed on the first load profile , and wherein the second number of load cycles per hour is greater than the first number of load cycles per hour and the second power swing is smaller than the first power swing. - operating at least one battery with a first load profile having a first number of load cycles per hour with a first power swing, - operating a control unit designed to evaluate the first load profile at the battery, to determine a second load profile on the basis thereof and to generate the second load profile with a second number of load cycles per hour with a second power swing, and designed to apply the second load profile to the battery , - applying the second load profile to the battery , wherein the second load profile is superimposed on the first load profile , and wherein the second number of load cycles per hour is greater than the first number of load cycles per hour and the second power swing is smaller than the first power swing.