mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a first provider edge, PE, router of a plurality of PE routers included in an Ethernet segment of an Ethernet Virtual Private Network, EVPN, and from a first customer edge, CE, router multi-homed to the plurality of PE routers and the first CE router performing load balancing on the Ethernet segment, a multicast group leave request; and in response to receiving the request to leave the multicast group: determining, by the first PE router, whether a Routing Information Base, RIB, table of the first PE router includes a Border Gateway Protocol, BGP, join synch route used to synchronize a multicast group join request designating one of the plurality of PE routers included in the Ethernet segment; and upon determining that the RIB table of the first PE router contains the BGP join synch route, issuing, by the first PE router and to the others of the plurality of PE routers included in the Ethernet segment, a BGP leave synch route used to synchronize the multicast group leave request. receiving, by a first provider edge, PE, router of a plurality of PE routers included in an Ethernet segment of an Ethernet Virtual Private Network, EVPN, and from a first customer edge, CE, router multi-homed to the plurality of PE routers and the first CE router performing load balancing on the Ethernet segment, a multicast group leave request; and in response to receiving the request to leave the multicast group: determining, by the first PE router, whether a Routing Information Base, RIB, table of the first PE router includes a Border Gateway Protocol, BGP, join synch route used to synchronize a multicast group join request designating one of the plurality of PE routers included in the Ethernet segment; and upon determining that the RIB table of the first PE router contains the BGP join synch route, issuing, by the first PE router and to the others of the plurality of PE routers included in the Ethernet segment, a BGP leave synch route used to synchronize the multicast group leave request. determining, by the first PE router, whether a Routing Information Base, RIB, table of the first PE router includes a Border Gateway Protocol, BGP, join synch route used to synchronize a multicast group join request designating one of the plurality of PE routers included in the Ethernet segment; and upon determining that the RIB table of the first PE router contains the BGP join synch route, issuing, by the first PE router and to the others of the plurality of PE routers included in the Ethernet segment, a BGP leave synch route used to synchronize the multicast group leave request.
A method of controlling an output of a light fixture, the light fixture including a plurality of light sources (110A-G), the method comprising: receiving a first set of input data that is indicative of a desired output of the light fixture; retrieving a second set of data from a memory associated with the present output of the light fixture, the second set of data having been stored prior to receiving the first set of input data; determining a difference between the first set of input data and the second set of data by determining the difference between the desired output of the light fixture and the present output of the light fixture; setting a slew time based on the determined difference between the first set of input data and the second set of data, the slew time corresponding to an amount of time the output of the light fixture is to take to transition from the present output of the light fixture to the desired new output of the light fixture; determining an output intensity value for each of the plurality of light sources (1110A-G) based on the first set of input data associated with the desired output of the light fixture; and independently driving each of the plurality of light sources (110A-G) toward the determined output intensity value for each of the plurality of light sources (110A-G) at a rate of change of the output intensity value for each of the plurality of light sources (110A-G) that is based on the slew time. receiving a first set of input data that is indicative of a desired output of the light fixture; retrieving a second set of data from a memory associated with the present output of the light fixture, the second set of data having been stored prior to receiving the first set of input data; determining a difference between the first set of input data and the second set of data by determining the difference between the desired output of the light fixture and the present output of the light fixture; setting a slew time based on the determined difference between the first set of input data and the second set of data, the slew time corresponding to an amount of time the output of the light fixture is to take to transition from the present output of the light fixture to the desired new output of the light fixture; determining an output intensity value for each of the plurality of light sources (1110A-G) based on the first set of input data associated with the desired output of the light fixture; and independently driving each of the plurality of light sources (110A-G) toward the determined output intensity value for each of the plurality of light sources (110A-G) at a rate of change of the output intensity value for each of the plurality of light sources (110A-G) that is based on the slew time.
Method for reading data, in which the data are stored in an electronic device integrated into a tyre, the device comprising data storage means, the storage means comprising a data storage zone including a field reserved for a serial number of the tyre, stored in bit form, in which method: - the data stored in the field reserved for the tyre serial number are read, and - at least a part of the read data is decoded into the form of at least one letter so as to determine the serial number of the tyre, said method being characterized in that the field reserved for the serial number comprising at least one field (I6-1, I6-2, I6-3, I6-5) of a first type comprising a first number of bits, coding for a first decimal number, and at least one field (I6-4) of a second type comprising a second number of bits, coding for a second decimal number, - the data in each field of the first type are decoded into the form of a first decimal number, and each first decimal number is associated with a letter... - the data stored in the field reserved for the tyre serial number are read, and - at least a part of the read data is decoded into the form of at least one letter so as to determine the serial number of the tyre, said method being characterized in that the field reserved for the serial number comprising at least one field (I6-1, I6-2, I6-3, I6-5) of a first type comprising a first number of bits, coding for a first decimal number, and at least one field (I6-4) of a second type comprising a second number of bits, coding for a second decimal number, - the data in each field of the first type are decoded into the form of a first decimal number, and each first decimal number is associated with a letter...
A remote operating lever unit for operating a brake unit mounted to a wheeled vehicle, comprising: - a lever for operation by a user; - a main body holding the lever in a displaceable manner; - a holder holding the main body; and - a connecting portion (245, 265) detachably engaging the main body and the holder at an arbitrary angle around an axis perpendicular to a plane in which the lever displaces, characterised in that the remote operating lever unit is configured to operate the brake unit via only a wireless or wired signal transmission, wherein the main body includes a control unit for transmitting a signal to the brake unit based on a displacement amount of the lever from a neutral position thereof, wherein the remote operating lever unit further comprises a calibration means for calibrating the signal to be generated based on the displacement amount of the lever from the neutral position, taking a change in a movable range of the lever from the neutral position to a full brake position as a result of adjustment of the neutral position of the lever with respect to and via the connecting portion, into account. - a lever for operation by a user; - a main body holding the lever in a displaceable manner; - a holder holding the main body; and - a connecting portion (245, 265) detachably engaging the main body and the holder at an arbitrary angle around an axis perpendicular to a plane in which the lever displaces, the remote operating lever unit is configured to operate the brake unit via only a wireless or wired signal transmission, wherein the main body includes a control unit for transmitting a signal to the brake unit based on a displacement amount of the lever from a neutral position thereof, wherein the remote operating lever unit further comprises a calibration means for calibrating the signal to be generated based on the displacement amount of the lever from the neutral position, taking a change in a movable range of the lever from the neutral position to a full brake position as a result of adjustment of the neutral position of the lever with respect to and via the connecting portion, into account.
A bicycle frame, comprising: a front frame assembly including: a bottom bracket shell; and a forward shock attachment point statically located relative to the bottom bracket shell; and a rear frame assembly pivotably connected to the front frame assembly, the rear frame assembly including: a rear wheel forkend; and a rearward shock attachment point statically located relative to the rear wheel forkend; wherein the bicycle frame further comprises: a top linkage pivotably connected to the front frame assembly and pivotably connected to the rear frame assembly; and a bottom linkage pivotably connected to the rear frame assembly and pivotably connected to the front frame assembly forward of the bottom bracket shell, wherein the bottom linkage passes under the bottom bracket shell; and wherein the forward shock attachment point and the rearward shock attachment point cooperate to position a suspension shock absorber and damper between the front frame assembly and the rear frame assembly. a front frame assembly including: a bottom bracket shell; and a forward shock attachment point statically located relative to the bottom bracket shell; and a bottom bracket shell; and a forward shock attachment point statically located relative to the bottom bracket shell; and a rear frame assembly pivotably connected to the front frame assembly, the rear frame assembly including: a rear wheel forkend; and a rearward shock attachment point statically located relative to the rear wheel forkend; a rear wheel forkend; and a rearward shock attachment point statically located relative to the rear wheel forkend; wherein the bicycle frame further comprises: a top linkage pivotably connected to the front frame assembly and pivotably connected to the rear frame assembly; and a bottom linkage pivotably connected to the rear frame assembly and pivotably connected to the front frame assembly forward of the bottom bracket shell, wherein the bottom linkage passes under the bottom bracket shell; and a top linkage pivotably connected to the front frame assembly and pivotably connected to the rear frame assembly; and a bottom linkage pivotably connected to the rear frame assembly and pivotably connected to the front frame assembly forward of the bottom bracket shell, wherein the bottom linkage passes under the bottom bracket shell; and wherein the forward shock attachment point and the rearward shock attachment point cooperate to position a suspension shock absorber and damper between the front frame assembly and the rear frame assembly.
A method for transmitting data, wherein the transmission of the data takes place using power line communication, characterized in that temporally parallel to the transmission channel in which the useful information is transmitted, the frame information of said useful information is transmitted in a further transmission channel and that the frame information is the telegram frame of the useful information.
Flexible printed circuit comprising: - first and second ends (48a, 48b); and - a flexible central portion extending between the first and second ends and comprising electrically-conductive tracks, coated with a polymer material, to electrically connect the first and second ends, characterized in that the flexible central portion is at least partly covered with a heat shield made of an electrically conducting material having an emissivity smaller than those of the polymer material and of the electrically-conductive tracks, the material of the heat shield having an emissivity smaller than 0.05 and in that the heat shield has a thickness in the range from 50 to 200 nm. - first and second ends (48a, 48b); and - a flexible central portion extending between the first and second ends and comprising electrically-conductive tracks, coated with a polymer material, to electrically connect the first and second ends,
An air conditioning equipment, comprising: a housing comprising a heat exchanger therein; a water container mounted to, and dismounted from a receiving portion of the housing and to collect a condensate generated by the heat exchanger; a valve configured to selectively open and close a discharge port by being interfered with a portion of the water container according to the mounting and the dismounting of the water container to or from the receiving portion of the housing, characterised in that the valve comprises: a sealing member arranged along an edge of the discharge port; a lid member selectively seated on the sealing member; a cover covering the lid member; and a first elastic member arranged between the lid member and the cover, the first elastic member pressing the lid member downwards, wherein the cover is provided with an opening formed on a portion of the cover at which the cover meets a discharge path guiding the condensate to the discharge port, and when the water container is mounted to the receiving portion of the housing, the lid member is interfered with the portion of the water container and ascends, and the first elastic member is compressed by the lid member. a housing comprising a heat exchanger therein; a water container mounted to, and dismounted from a receiving portion of the housing and to collect a condensate generated by the heat exchanger; a valve configured to selectively open and close a discharge port by being interfered with a portion of the water container according to the mounting and the dismounting of the water container to or from the receiving portion of the housing, characterised in that the valve comprises: a sealing member arranged along an edge of the discharge port; a lid member selectively seated on the sealing member; a cover covering the lid member; and a first elastic member arranged between the lid member and the cover, the first elastic member pressing the lid member downwards, wherein the cover is provided with an opening formed on a portion of the cover at which the cover meets a discharge path guiding the condensate to the discharge port, and when the water container is mounted to the receiving portion of the housing, the lid member is interfered with the portion of the water container and ascends, and the first elastic member is compressed by the lid member. a sealing member arranged along an edge of the discharge port; a lid member selectively seated on the sealing member; a cover covering the lid member; and a first elastic member arranged between the lid member and the cover, the first elastic member pressing the lid member downwards, wherein the cover is provided with an opening formed on a portion of the cover at which the cover meets a discharge path guiding the condensate to the discharge port, and when the water container is mounted to the receiving portion of the housing, the lid member is interfered with the portion of the water container and ascends, and the first elastic member is compressed by the lid member.
Method for locating partial discharges in electrical cables by means of a high-voltage source that is coupled to the cable to be tested, a decoupling unit that is connected to one end of the cable, and a data processing system that is connected to the decoupling unit via a sensor unit and determines a partial discharge or partial discharges, when present, from the sensor signals, characterised - in that events, if present, are identified as pulses from the sensor signals by means of a trigger having a threshold value (11a, 11b) that is dependent on the interference level, - in that the events that are identified as pulses (9, 10, 12) are parameterised, parameters being the instant of the start of the pulse (9, 10, 12), the instant of the end of the pulse (9, 10, 12), the amplitude of the pulse (9, 10, 12), the instant of the amplitude of the pulse (9, 10, 12), the pulse width, the lower cutoff frequency of the pulse (9, 10, 12) and the upper cutoff frequency of the pulse (9, 10, 12), - in that pairs of events that are identified as pulses (9, 10, 12) and parameterised are formed, - in that the event pairs are classified, the pulses (9, 10, 12) that represent the event pairs being classified according to the differential time, the amplitude, the polarity, the amplitude attenuation, the pulse width, the pulse width dispersion, the cutoff frequency or a combination thereof and the cable attenuation as a feature in each case, - in that a partial discharge is assigned from the classification, and - in that the location of the partial discharge/s is determined from the difference in transit times between said partial discharge and the associated reflection thereof. - in that events, if present, are identified as pulses from the sensor signals by means of a trigger having a threshold value (11a, 11b) that is dependent on the interference level, - in that the events that are identified as pulses (9, 10, 12) are parameterised, parameters being the instant of the start of the pulse (9, 10, 12), the instant of the end of the pulse (9, 10, 12), the amplitude of the pulse (9, 10, 12), the instant of the amplitude of the pulse (9, 10, 12), the pulse width, the lower cutoff frequency of the pulse (9, 10, 12) and the upper cutoff frequency of the pulse (9, 10, 12), - in that pairs of events that are identified as pulses (9, 10, 12) and parameterised are formed, - in that the event pairs are classified, the pulses (9, 10, 12) that represent the event pairs being classified according to the differential time, the amplitude, the polarity, the amplitude attenuation, the pulse width, the pulse width dispersion, the cutoff frequency or a combination thereof and the cable attenuation as a feature in each case, - in that a partial discharge is assigned from the classification, and - in that the location of the partial discharge/s is determined from the difference in transit times between said partial discharge and the associated reflection thereof.
An elastically deformable sports equipment item (100; 200; 250; 300; 500), comprising: at least one deformable loop antenna (104; 204; 254; 304; 504) arranged around a curved surface (106; 206; 256; 306; 506) within the item, wherein the at least one deformable loop antenna has an elongation reserve corresponding to a maximum elastic deformation of the item, wherein the item comprises means for fixing a position of the at least one loop antenna (104; 204; 254; 304; 504) on the curved surface underneath a cover (102; 202; 252; 302; 502) of the item, wherein the means for fixing comprises seams of the cover or fixation straps arranged around the curved surface in regular distances. at least one deformable loop antenna (104; 204; 254; 304; 504) arranged around a curved surface (106; 206; 256; 306; 506) within the item, wherein the at least one deformable loop antenna has an elongation reserve corresponding to a maximum elastic deformation of the item, wherein the item comprises means for fixing a position of the at least one loop antenna (104; 204; 254; 304; 504) on the curved surface underneath a cover (102; 202; 252; 302; 502) of the item, wherein the means for fixing comprises seams of the cover or fixation straps arranged around the curved surface in regular distances.
A spark gap for a surge arrester or as part of a surge arrester comprising at least three electrodes (4, 5, 6) spaced from each other by one gap (2, 3) each, thus forming a spark gap, and annular insulator elements respectively disposed between two adjacent electrodes (4, 5; 5, 6), characterized by that a second electrode disposed between a first electrode and a third electrode encloses at least one cavity that is in open communication via at least one channel with the gap between first electrode and second electrode and/or via at least one channel with the gap between second electrode and third electrode.
Adjustment fitting (100; 200; 300; 400) for a vehicle seat, in particular for adjusting an inclination of a backrest of the vehicle seat, comprising a first fitting part (110; 210; 310; 410), in particular connectable to a seat substructure of the vehicle seat, and a second fitting part (120; 220; 320; 420) which is pivotable about a central axis of rotation relative to the first fitting part (110; 210; 310; 410) and is in particular connectable to the backrest of the vehicle seat, characterized in that the first fitting part (110; 210; 310; 410) and the second fitting part (120; 220; 320; 420) are components both of a gear unit of the adjustment fitting (100; 200; 300; 400) and of a locking device of the adjustment fitting (100; 200; 300; 400), wherein the gear unit has a planetary gear system or is a planetary gear system, and the first fitting part (110; 210; 310; 410) acts as a ring gear of the planetary gear system, and the second fitting part (120; 220; 320; 420) acts as a web of the planetary gear system.
A mounting adapter configured for mounting an add-on device to an injection device, the mounting adapter comprises: - a carrier, - a first mount connected to the carrier and configured to connect to a housing of the injection device, - a second mount connected to the carrier and configured to connect to the add-on device, characterized by - an electrical conductor arranged in or on the carrier, wherein the electrical conductor is configured to exchange at least one type of electrical signals with the add-on device, and - at least a first electrical contact (121, 122) connected to the electrical conductor, wherein the at least first electrical contact (121, 122) is arranged on at least one of: - the second mount, - an upper side of the carrier, - an upper side of an electric layer arranged on the upper side of the carrier and - an upper side of a cover layer extending over a major portion of the upper side of the carrier. - a carrier, - a first mount connected to the carrier and configured to connect to a housing of the injection device, - a second mount connected to the carrier and configured to connect to the add-on device, characterized by - an electrical conductor arranged in or on the carrier, wherein the electrical conductor is configured to exchange at least one type of electrical signals with the add-on device, and - at least a first electrical contact (121, 122) connected to the electrical conductor, wherein the at least first electrical contact (121, 122) is arranged on at least one of: - the second mount, - an upper side of the carrier, - an upper side of an electric layer arranged on the upper side of the carrier and - an upper side of a cover layer extending over a major portion of the upper side of the carrier. - the second mount, - an upper side of the carrier, - an upper side of an electric layer arranged on the upper side of the carrier and - an upper side of a cover layer extending over a major portion of the upper side of the carrier.