mhurhangee/ep-ind-claims huggingface dataset:
A rotation angle sensor comprising: a rotary shaft, one or several permanent magnets (12; 12a, 12b, 12c), secured to the rotary shaft and oriented along an axis different from an axis of rotation of the rotary shaft, and one or several electrically conductive turns disposed around the rotary shaft, and wherein each turn (13; 13a, 13b, 13c) corresponds to one of the permanent magnets (12; 12a, 12b, 12c) and intersects a plane (P R) perpendicular to the axis of rotation. a rotary shaft, one or several permanent magnets (12; 12a, 12b, 12c), secured to the rotary shaft and oriented along an axis different from an axis of rotation of the rotary shaft, and one or several electrically conductive turns disposed around the rotary shaft, and wherein each turn (13; 13a, 13b, 13c) corresponds to one of the permanent magnets (12; 12a, 12b, 12c) and intersects a plane (P R) perpendicular to the axis of rotation.
A femtocell (104, 106, 108) configuration method, comprising: receiving information, at a femtocell (104, 106, 108), wherein the information is obtained as a result of a training walk calibration procedure performed for a network of femtocells (104, 106, 180); identifying, at the femtocell (104, 106, 108), a reconfiguration triggering condition based on the received information; and generating, at the femtocell (104, 106, 108), an indication to reconfigure the femtocells (104, 106, 108) as a result of the identification of the reconfiguration triggering condition. receiving information, at a femtocell (104, 106, 108), wherein the information is obtained as a result of a training walk calibration procedure performed for a network of femtocells (104, 106, 180); identifying, at the femtocell (104, 106, 108), a reconfiguration triggering condition based on the received information; and generating, at the femtocell (104, 106, 108), an indication to reconfigure the femtocells (104, 106, 108) as a result of the identification of the reconfiguration triggering condition.
A method comprising: receiving flows of packets at a network device to be routed from the network device in a network, each flow comprising packets to be sent from a source to a connection; storing data for a queue allocation table that maintains a plurality of buckets to which received packets for a flow are assigned and indicating which of a plurality of resource queues are allocated for respective buckets, wherein the resource queues comprise buffers or memory locations that store pointers to the assigned packets; for each packet in a flow, computing a hash function from values in a header of the packet and assigning the packet to one of the plurality of buckets based on the computed hash function; determining a capacity of each of the plurality of resource queues; and allocating, based on the determined capacities of the plurality of resource queues, one of the plurality of resource queues for each bucket to which packets are assigned based on the computed hash function. receiving flows of packets at a network device to be routed from the network device in a network, each flow comprising packets to be sent from a source to a connection; storing data for a queue allocation table that maintains a plurality of buckets to which received packets for a flow are assigned and indicating which of a plurality of resource queues are allocated for respective buckets, wherein the resource queues comprise buffers or memory locations that store pointers to the assigned packets; for each packet in a flow, computing a hash function from values in a header of the packet and assigning the packet to one of the plurality of buckets based on the computed hash function; determining a capacity of each of the plurality of resource queues; and allocating, based on the determined capacities of the plurality of resource queues, one of the plurality of resource queues for each bucket to which packets are assigned based on the computed hash function.
An RF impedance measurement circuit, comprising: a sensing capacitor connectable in series with an RF signal path; a first amplitude detector and a first frequency divider, each coupled, with said measurement circuit in operation, to said RF signal path at a first terminal of said sensing capacitor; a second amplitude detector and a second frequency divider, each coupled, with said measurement circuit in operation, to a second terminal of said sensing capacitor; and a phase detection circuit connected to an output of said first frequency divider and to an output of said second frequency divider. a sensing capacitor connectable in series with an RF signal path; a first amplitude detector and a first frequency divider, each coupled, with said measurement circuit in operation, to said RF signal path at a first terminal of said sensing capacitor; a second amplitude detector and a second frequency divider, each coupled, with said measurement circuit in operation, to a second terminal of said sensing capacitor; and a phase detection circuit connected to an output of said first frequency divider and to an output of said second frequency divider.
Straddle-type vehicle comprising a vehicle body frame that forms a frame of a vehicle body and a helmet storage compartment (100,101,102) capable of storing a helmet, wherein a first protrusion (121,121a,121b,121c) that protrudes upwards in the straddle-type vehicle is provided in a bottom surface (110,110a,110b) of the helmet storage compartment (100,101,102) so as to form a first recess (123,123a, 123b, 123c) that opens downwards in the straddle-type vehicle, and at least a portion (32r, 32ar, 33ar) of the vehicle body frame is disposed inside of the first recess (123,123a,123b,123c) from below the helmet storage compartment (100,101,102), and the first protrusion (121,121a,121b,121c) is adapted to be positioned between opposing side end sections (B1, B2) of the helmet when the helmet is stored in the helmet storage compartment (100,101,102), wherein a vehicle body center line is positioned between opposing side end sections (B1, B2) of the helmet when the helmet is stored in the helmet storage compartment (100,101,102), characterized in that said portion of the vehicle body frame is an offset member (32r, 32ar, 33ar) that is provided at a position that is offset from the vehicle body center line of the straddle-type vehicle in the vehicle width direction, and the offset member (32r,32ar) is inserted into the first recess (123,123a,123b,123c) from below the helmet storage compartment (100,101,102).
Process for the production of load transfer regions strengthened with plastic in a ballast, containing ballast stones and, in parts, plastic, of a superstructure which consists of at least ballast, sleepers and rails, by introducing liquid, curable plastics or plastic reactive mixtures into the load transfer regions from a mixer unit by means of at least two distributing pipes with outlets, and leaving the plastic or plastic reactive mixture to cure in these load transfer regions, characterized in that, to introduce the plastic or plastic reactive mixture, 1) the two distributing pipes with outlets are positioned on the left or right from outside the rails (1,1'), preferably underneath the rails, until they reach the region between the two rails (6,6'), so that the outlets are next to one another and laterally at a distance from the front of the sleeper whose load transfer region is to be strengthened, 2) the two outlets are opened to allow plastic or plastic reactive mixture to flow out in a regulated amount, 3) the outlets of the distributing pipes, each at the side of the front of the sleeper, are guided from the inside to the outside up to the respective end (4,4') of the sleeper and around the respective end (4,4') of the sleeper up to the back of the sleeper, 4) the outlets of the distributing pipes are guided, preferably underneath the rails, laterally along the back of the sleeper until they reach the region between the two rails (9,9'), so that the outlets are next to one another and laterally at a distance from the back of the sleeper whose load transfer region is to be strengthened, 5) the outlets are optionally closed and 6) the outlets of the distributing pipes are guided to another sleeper and the process (steps 2) to 6)) is repeated at this sleeper 1) the two distributing pipes with outlets are positioned on the left or right from outside the rails (1,1'), preferably underneath the rails, until they reach the region between the two rails (6,6'), so that the outlets are next to one another and laterally at a distance from the front of the sleeper whose load transfer region is to be strengthened, 2) the two outlets are opened to allow plastic or plastic reactive mixture to flow out in a regulated amount, 3) the outlets of the distributing pipes, each at the side of the front of the sleeper, are guided from the inside to the outside up to the respective end (4,4') of the sleeper and around the respective end (4,4') of the sleeper up to the back of the sleeper, 4) the outlets of the distributing pipes are guided, preferably underneath the rails, laterally along the back of the sleeper until they reach the region between the two rails (9,9'), so that the outlets are next to one another and laterally at a distance from the back of the sleeper whose load transfer region is to be strengthened, 5) the outlets are optionally closed and 6) the outlets of the distributing pipes are guided to another sleeper and the process (steps 2) to 6)) is repeated at this sleeper
A wireless communication device (200, 300, 400), comprising at least one antenna (202a, 202b, 302a, 302b, 402); means for analyzing (228, 328, 428) receive frame data obtained by demodulating a signal received from a sender communication device through the at least one antenna (202a, 202b, 302a, 302b, 402), and extracting an address of the sender communication device from the receive frame data and determining whether a destination address included in the received frame data matches an address assigned to itself; means for measuring (224, 324, 424) a reception condition of the signal received through the at least one antenna when a destination address included in the receive frame data is addressed to another device other than the wireless communication device for each of a plurality of operation modes of the at least one antenna to generate measuring results for the plurality of operation modes; wherein the at least one antenna includes: a plurality of antennas (202a, 202b, 302a, 302b) wherein in each mode of operation a different one of the plurality of antennas is selected for communication, or a directional antenna capable of operating with a plurality of directional patterns wherein in each mode of operation a different one of the plurality of directional patterns of the directional antenna is selected for communication, the wireless communication device further comprising: means for selecting (210, 310, 410) one of the plurality of operation modes that is most desirable for communication with the sender communication device based on the measuring results; means for storing (212, 312, 412) the selected operation mode in association with the identification information of the sender communication device as a destination address, when the destination address included in the receive frame data is addressed to the another device other than the wireless communication device; means for analyzing (230, 330, 430) transmit frame data to be transmitted to a destination communication device to obtain identification information of the destination communication device; means for selecting (208, 308, 408) one of the operation modes of the at least one antenna that is stored in association with identification information that matches the identification information of the destination communication device to obtain an operation mode that is most desirable for communication with the destination communication device; and means for causing (204, 304, 404) the at least one antenna to operate in the operation mode selected for communication with the destination communication device. a plurality of antennas (202a, 202b, 302a, 302b) wherein in each mode of operation a different one of the plurality of antennas is selected for communication, or a directional antenna capable of operating with a plurality of directional patterns wherein in each mode of operation a different one of the plurality of directional patterns of the directional antenna is selected for communication, the wireless communication device further comprising:
A method for annotating a three-dimensional model (214, 322, 432), comprising: displaying, by a computing device, a particular view of a 3D model of a facility, the 3D model including a plurality of objects (220, 324, 326, 328, 330), each object (220, 324, 326, 328, 330) associated with a respective annotation (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670); determining a context associated with the 3D model, wherein determining the context associated with the 3D model includes, receiving information from each of one or more subsystems of a building management system associated with the facility, and determining an abnormal status associated with each subsystem based on the received information, and wherein the determined context is associated with a subset of the plurality of objects (220, 324, 326, 328, 330) that are currently associated with an abnormal status; and modifying the display of a subset of the plurality of annotations (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) associated with the subset of the plurality of objects (220, 324, 326, 328, 330) of the determined context, including dimming or making invisible an annotation (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) of the plurality of annotations (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) not included in the subset of the plurality of annotations (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) associated with the respective subset of the plurality of objects (220, 324, 326, 328, 330) of the determined context. displaying, by a computing device, a particular view of a 3D model of a facility, the 3D model including a plurality of objects (220, 324, 326, 328, 330), each object (220, 324, 326, 328, 330) associated with a respective annotation (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670); determining a context associated with the 3D model, wherein determining the context associated with the 3D model includes, receiving information from each of one or more subsystems of a building management system associated with the facility, and determining an abnormal status associated with each subsystem based on the received information, and wherein the determined context is associated with a subset of the plurality of objects (220, 324, 326, 328, 330) that are currently associated with an abnormal status; and modifying the display of a subset of the plurality of annotations (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) associated with the subset of the plurality of objects (220, 324, 326, 328, 330) of the determined context, including dimming or making invisible an annotation (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) of the plurality of annotations (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) not included in the subset of the plurality of annotations (221, 325, 327, 329, 331, 436, 434, 438, 440, 664, 666, 668, 670) associated with the respective subset of the plurality of objects (220, 324, 326, 328, 330) of the determined context.
Inclined lift comprising at least one guide rail for a rope-drawn transport slide which is guided on said guide rail and mounted so as to be repositionable on the inclined lift and on which a container for repositioning the container from an initial position to a loading position is placeable; a first rope and a second rope which, from a winch by way of at least one first rope pulley for the first rope and one second deflection installation for the second rope, lead to the transport slide, and for repositioning the transport slide are disposed in a fixed manner in terms of repositioning on the transport slide so as to be deflectable by way of a first transport slide pulley for the first rope and a second transport slide pulley for the second rope; a compensation beam which is movable about a fulcrum is provided, wherein the first rope by way of a first deflection installation and the second rope by way of a second pulley are guidable from the transport slide to the compensation beam and fastenable to the compensation beam, characterized in that the compensation beam is mounted so as to be movable in a linear guide unit.
A putting stroke analysis device for analysing a putting stroke technique of a golfer using a putter; the putting stroke analysis device comprising a planar surfaces with a plurality of infrared emitters and co-operating infrared sensors arranged on the planar surface; wherein, each of the plurality of infrared emitters is capable of emitting an infrared beam, and, each of the plurality of co-operating infrared sensors is capable of detecting a reflected infrared beam; whereby, the reflected infrared beam is reflected by the putter, passing above the plurality of infrared emitters and co-operating infrared sensors on the planar surface, during the execution of the putting stroke technique by the golfer; the putting stroke analysis device further comprising a processor which receives information from at least one of the plurality of co-operating infrared sensors and processes the information to determine putting characteristics of the putting stroke technique, characterized in that the infrared beam emitted by the infrared emitter is modulated; and, the putting stroke analysis tool comprises a band pass filter to attenuate detected infrared beams outside of a band pass filter range, and, the putting stroke analysis tool further comprises a high gain amplifier.
Cutting body that has a flail comprising: a bearing body retaining a bearing hole, and a cutting insert. The cutting insert has a flail head and a cutting head comprising a cutting element made of hard material, wherein the flail head connects to the bearing body via a connection portion. For interchangeably retaining the cutting insert on the bearing body the flail head has a cutting element retainer, by means of which the flail head can be detachably connected to the bearing body. The flail head comprising the cutting element retainer forms a socket into which the bearing body can be interchangeably inserted with a plug-in projection. The socket is designed as a pocket-like recess, wherein the cutting element retainer has a plug-in opening for the plug-in projection, which plugin opening opens the cutting element retainer radially inwards towards the bearing body. The cutting element retainer has two guide retainers (25.1), which are arranged opposite one another. The plug-in projection has guide webs which are on opposite sides and extend in the longitudinal direction of the plug-in projection. The guide webs are arranged on both sides of the plug-in projection and are oriented in or counter to the tool feed direction. The plug-in projection has a lateral widening (33.1) between the guide webs. The invention is characterised in that the guide webs have at least one fastening retainer. a bearing body retaining a bearing hole, and a cutting insert. The cutting insert has a flail head and a cutting head comprising a cutting element made of hard material, wherein the flail head connects to the bearing body via a connection portion. For interchangeably retaining the cutting insert on the bearing body the flail head has a cutting element retainer, by means of which the flail head can be detachably connected to the bearing body. The flail head comprising the cutting element retainer forms a socket into which the bearing body can be interchangeably inserted with a plug-in projection. The socket is designed as a pocket-like recess, wherein the cutting element retainer has a plug-in opening for the plug-in projection, which plugin opening opens the cutting element retainer radially inwards towards the bearing body. The cutting element retainer has two guide retainers (25.1), which are arranged opposite one another. The plug-in projection has guide webs which are on opposite sides and extend in the longitudinal direction of the plug-in projection. The guide webs are arranged on both sides of the plug-in projection and are oriented in or counter to the tool feed direction. The plug-in projection has a lateral widening (33.1) between the guide webs. The invention is characterised in that the guide webs have at least one fastening retainer.
A transfer film for three-dimensional molding which comprises at least a surface protective layer on a transferring base material, the surface protective layer being formed of a cured product of an ionizing radiation curable resin composition containing a polycarbonate (meth) acrylate and an acrylic resin, characterized in that: the acrylic resin is a homopolymer of a (meth)acrylic acid ester, a copolymer of two or more different (meth)acrylic acid ester monomers, or a copolymer of a (meth)acrylic acid ester and another monomer, and a content of the acrylic resin contained in the ionizing radiation curable resin composition is 25 parts by mass or less based on 100 parts by mass of solid components other than the acrylic resin in the ionizing radiation curable resin composition. the acrylic resin is a homopolymer of a (meth)acrylic acid ester, a copolymer of two or more different (meth)acrylic acid ester monomers, or a copolymer of a (meth)acrylic acid ester and another monomer, and a content of the acrylic resin contained in the ionizing radiation curable resin composition is 25 parts by mass or less based on 100 parts by mass of solid components other than the acrylic resin in the ionizing radiation curable resin composition.