mhurhangee/ep-ind-claims huggingface dataset:
A keyboard, comprising: a thin film circuit board having a plurality of membrane switches; a plurality of buttons, disposed corresponding to the membrane switches, and each of the buttons comprising: a keycap, for being pressed to cause the corresponding membrane switch to be turned on, wherein the keycap includes a cap body and a resetting member, wherein the cap body is formed with the resetting member as an integral; a scissor foot, coupled between the keycap and the thin film circuit board; wherein no component is disposed between the resetting member and the scissor foot along a pressing direction in which the keycap is intended to be pressed. a thin film circuit board having a plurality of membrane switches; a plurality of buttons, disposed corresponding to the membrane switches, and each of the buttons comprising: a keycap, for being pressed to cause the corresponding membrane switch to be turned on, wherein the keycap includes a cap body and a resetting member, wherein the cap body is formed with the resetting member as an integral; a scissor foot, coupled between the keycap and the thin film circuit board; wherein no component is disposed between the resetting member and the scissor foot along a pressing direction in which the keycap is intended to be pressed. a keycap, for being pressed to cause the corresponding membrane switch to be turned on, wherein the keycap includes a cap body and a resetting member, wherein the cap body is formed with the resetting member as an integral; a scissor foot, coupled between the keycap and the thin film circuit board; wherein no component is disposed between the resetting member and the scissor foot along a pressing direction in which the keycap is intended to be pressed.
A polyamide resin obtainable by solid state polymerization of an aliphatic diamine monomer mixture and polyester resin with an endcapping agent, wherein the aliphatic diamine monomer mixture comprises an aliphatic diamine monomer having 2 to 6 carbon atoms, and an aliphatic diamine monomer having 6 to 12 carbon atoms, with the proviso that and are different and have a different number of carbon atoms; wherein the ester group of the polyester resin reacts with the aliphatic diamine monomer,, or both such that the number of amine ends of the polyamide resin is 30 μ eq/g to 200 μ eq/g measured by completely melting polyamide into hexafluoroisopropanol and using 0.1N HCl solution on the potential difference measurement, and wherein the amount of the endcapping agent is from 0.01 to 10.0 parts by weight, based on 100 parts by weight of polyester resin.
Method of global traffic policing of a flow of packets distributed in several separate packet flows on several links making up a logically aggregated link, the method comprising: - classifying, by a classifier (14, 17), packets incoming in a separate packet flow of the logically aggregated link; - policing, by a policer (15, 18), each of the classified packets received in the separate packet flow, said policer (15, 18) applying to said separate packet flow a traffic policing algorithm, wherein said classifying and policing being performed by separate classifiers and policers for each of the separate packet flows of the logically aggregated link; - exchanging information with the other policers (15, 18); and - adjusting control parameters of the policing algorithm at the policers (15, 18) based on the exchanged information. - classifying, by a classifier (14, 17), packets incoming in a separate packet flow of the logically aggregated link; - policing, by a policer (15, 18), each of the classified packets received in the separate packet flow, said policer (15, 18) applying to said separate packet flow a traffic policing algorithm, wherein said classifying and policing being performed by separate classifiers and policers for each of the separate packet flows of the logically aggregated link; - exchanging information with the other policers (15, 18); and - adjusting control parameters of the policing algorithm at the policers (15, 18) based on the exchanged information.
A sliding door system comprising: a support onto which a sliding door mechanism of the sliding door system is mounted; and at least one inner and outer sliding doors (30, 32) slidably coupled to corresponding guide rails (26, 28) of the sliding door system, the guide rail that is coupled to the outer sliding door being selectively moveable by the sliding door mechanism between a first and a second position, wherein the first position enables a user to slide outer and inner sliding doors along said guide rails, and wherein in said second position a surface of said outer sliding door is substantially flush with a surface of said inner sliding door, characterized in that said sliding door mechanism comprises: a) at least one bearing having an inner ring and an outer ring, wherein said outer ring is affixed to said support; b) a first rod suitably coupled to a displacement drive and rotatably connected to said inner ring; and c) a second rod mechanically coupled to said outer guide rail and rotatably connected to said inner ring; wherein operating said displacement drive enables the rotation of said inner ring to selectively move said outer sliding door into said first and said second positions. a support onto which a sliding door mechanism of the sliding door system is mounted; and at least one inner and outer sliding doors (30, 32) slidably coupled to corresponding guide rails (26, 28) of the sliding door system, the guide rail that is coupled to the outer sliding door being selectively moveable by the sliding door mechanism between a first and a second position, wherein the first position enables a user to slide outer and inner sliding doors along said guide rails, and wherein in said second position a surface of said outer sliding door is substantially flush with a surface of said inner sliding door, a) at least one bearing having an inner ring and an outer ring, wherein said outer ring is affixed to said support; b) a first rod suitably coupled to a displacement drive and rotatably connected to said inner ring; and c) a second rod mechanically coupled to said outer guide rail and rotatably connected to said inner ring;
A branch circuit body (100, 100A, 100B, 100C, 100D) comprising: a first electric wire; a first shield tube that covers the first electric wire and has an opening; a second electric wire that is electrically connected to the first electric wire and is a branch line branched from the first electric wire through the opening; a second shield tube that covers the second electric wire and has an end portion inserted into the opening; and an engaging member that is provided on the first electric wire and configured to engage with the end portion of the second shield tube inserted from the opening, the second electric wire extends in a direction orthogonal to the first electric wire. a first electric wire; a first shield tube that covers the first electric wire and has an opening; a second electric wire that is electrically connected to the first electric wire and is a branch line branched from the first electric wire through the opening; a second shield tube that covers the second electric wire and has an end portion inserted into the opening; and an engaging member that is provided on the first electric wire and configured to engage with the end portion of the second shield tube inserted from the opening, the second electric wire extends in a direction orthogonal to the first electric wire.
An apparatus, comprising: a wideband receiver configured to receive a wideband signal comprising both a wanted signal and narrowband interference; and an interference detection unit configured to detect the presence of the narrowband interference in time domain, wherein the interference detection unit comprises a set of sub-band rejection filters configured to process the received signal to detect a sub-band including the narrowband interference, wherein the interference detection unit is configured to compare output energies of the sub-band rejection filters to detect presence of the narrowband interference based on detected difference in the output energies of the sub-band rejection filters, wherein the interference detection unit is configured to select an output of a sub-band rejection filter having minimum energy level based on the comparison of output energies of the sub-band rejection filters, and to determine whether a difference between the energy level of the selected output and an energy level of the wideband signal exceeds a threshold; and an interference cancellation unit configured to reject the frequency band of the narrowband interference using the set of sub-band rejection filters, to estimate one or more fine interference parameters for one or more time domain cancellation algorithms and to carry out the one or more algorithms to cancel or mitigate interference. a wideband receiver configured to receive a wideband signal comprising both a wanted signal and narrowband interference; and an interference detection unit configured to detect the presence of the narrowband interference in time domain, wherein the interference detection unit comprises a set of sub-band rejection filters configured to process the received signal to detect a sub-band including the narrowband interference, wherein the interference detection unit is configured to compare output energies of the sub-band rejection filters to detect presence of the narrowband interference based on detected difference in the output energies of the sub-band rejection filters, wherein the interference detection unit is configured to select an output of a sub-band rejection filter having minimum energy level based on the comparison of output energies of the sub-band rejection filters, and to determine whether a difference between the energy level of the selected output and an energy level of the wideband signal exceeds a threshold; and an interference cancellation unit configured to reject the frequency band of the narrowband interference using the set of sub-band rejection filters, to estimate one or more fine interference parameters for one or more time domain cancellation algorithms and to carry out the one or more algorithms to cancel or mitigate interference.
Method of detecting cancer or of predicting a patient developing cancer, wherein said cancer is breast cancer, comprising determining RANKL activity and the amount of the RANKL ligand osteoprotegerin in a sample of said patient.
Pneumomechanical container trolley comprising a base frame, a platform for direct interaction with a load, pneumatic shock absorbers, air valves, and a compressed air tank characterized in that the container trolley further comprises guides for guiding motion of the platform upwards and downwards relatively to the base frame and for guiding motion of resilient elements, where the resilient elements are configured for pushing the platform outwards from the base frame and expanding the shock absorbers, the container trolley comprises at least one primary compressed air tank, at least one secondary compressed air tank, at least one pneumatic device, where each shock absorber is fluidly connected with the primary compressed air tank and the secondary compressed air tank for compressed air supply to the primary compressed air supply tank and to the secondary compressed air supply tank via the primary compressed air supply tank, where each pneumatic device is fluidly connected with the primary compressed air tank and the secondary compressed air tank for compressed air supply. the container trolley comprises at least one primary compressed air tank, at least one secondary compressed air tank, at least one pneumatic device, where each shock absorber is fluidly connected with the primary compressed air tank and the secondary compressed air tank for compressed air supply to the primary compressed air supply tank and to the secondary compressed air supply tank via the primary compressed air supply tank, where each pneumatic device is fluidly connected with the primary compressed air tank and the secondary compressed air tank for compressed air supply.
A control system for a power machine (100, 200), the control system comprising: an input device operatively connected to a power source (120, 222) of the power machine (100, 200); a control device that is configured to: enable operation of the power source (120, 222) of the power machine (100, 200) based upon receiving a signal from the input device; and after receiving the signal of the input device, restrict operation of one or more power machine (100, 200) functions for the power machine (100, 200) until a wireless connection is established between the control device and a mobile device, the mobile device corresponding to an operator profile for the power machine (100, 200). an input device operatively connected to a power source (120, 222) of the power machine (100, 200); a control device that is configured to: enable operation of the power source (120, 222) of the power machine (100, 200) based upon receiving a signal from the input device; and after receiving the signal of the input device, restrict operation of one or more power machine (100, 200) functions for the power machine (100, 200) until a wireless connection is established between the control device and a mobile device, the mobile device corresponding to an operator profile for the power machine (100, 200). enable operation of the power source (120, 222) of the power machine (100, 200) based upon receiving a signal from the input device; and after receiving the signal of the input device, restrict operation of one or more power machine (100, 200) functions for the power machine (100, 200) until a wireless connection is established between the control device and a mobile device, the mobile device corresponding to an operator profile for the power machine (100, 200).
A network node adapted to configure resources for a short Physical Downlink Control Channel, sPDCCH, the network node comprising: processing circuitry configured to: determine time resources for the sPDCCH based on at least one characteristic associated with transmission; said determination including determining a number of symbols of the sPDCCH in a subslot; wherein the at least one characteristic associated with transmission includes a subslot transmission duration; wherein the sPDCCH is a two symbol sPDCCH that corresponds to a two symbol subslot transmission duration, and, the sPDCCH is a three symbol sPDCCH that corresponds to a three symbol subslot transmission duration, and configure a wireless device using the time resources for the sPDCCH. processing circuitry configured to: determine time resources for the sPDCCH based on at least one characteristic associated with transmission; said determination including determining a number of symbols of the sPDCCH in a subslot; wherein the at least one characteristic associated with transmission includes a subslot transmission duration; wherein the sPDCCH is a two symbol sPDCCH that corresponds to a two symbol subslot transmission duration, and, the sPDCCH is a three symbol sPDCCH that corresponds to a three symbol subslot transmission duration, and configure a wireless device using the time resources for the sPDCCH.
A method executed by a network device, comprising: determining a paging occasion corresponding to a communications device, wherein the paging occasion comprises M monitoring occasions, the M monitoring occasions do not conflict with an uplink symbol, and M represents a total quantity of transmitted beams from the network device; determining based on first information about a beam and a correspondence between at least one beam and at least one monitoring occasion, a monitoring occasion corresponding to the beam in the M monitoring occasions; and sending downlink control information in the monitoring occasion corresponding to the beam. determining a paging occasion corresponding to a communications device, wherein the paging occasion comprises M monitoring occasions, the M monitoring occasions do not conflict with an uplink symbol, and M represents a total quantity of transmitted beams from the network device; determining based on first information about a beam and a correspondence between at least one beam and at least one monitoring occasion, a monitoring occasion corresponding to the beam in the M monitoring occasions; and sending downlink control information in the monitoring occasion corresponding to the beam.
A system for sensing vibrations comprising: at least two coherent light sources with known phase relations between them configured to illuminate a target with at least two corresponding spots, a sensor having one or more pixels and configured to detect interfered scattered illumination from the spots on the target, an optical unit comprising an aperture upon which scattered radiation interferes to form an interference pattern and a mask, the optical unit configured to focus, onto the sensor, the interfered scattered illumination from the spots on the target, passing through the aperture and the mask, to yield a signal denoting the interference pattern, at least one shifter configured to shift a frequency of at least one of the coherent light sources with respect to the other coherent light sources according to predetermined shifting characteristics to provide a carrier frequency in the signal, and a processing unit configured to derive a vibration frequency of the target from a relation between the signal and the predetermined shifting characteristics. at least two coherent light sources with known phase relations between them configured to illuminate a target with at least two corresponding spots, a sensor having one or more pixels and configured to detect interfered scattered illumination from the spots on the target, an optical unit comprising an aperture upon which scattered radiation interferes to form an interference pattern and a mask, the optical unit configured to focus, onto the sensor, the interfered scattered illumination from the spots on the target, passing through the aperture and the mask, to yield a signal denoting the interference pattern, at least one shifter configured to shift a frequency of at least one of the coherent light sources with respect to the other coherent light sources according to predetermined shifting characteristics to provide a carrier frequency in the signal, and a processing unit configured to derive a vibration frequency of the target from a relation between the signal and the predetermined shifting characteristics.
A method for determining annual energy production of a proposed wind farm, the method comprising: receiving a definition of the wind farm, the definition including at least a layout of a plurality of wind turbines of the wind farm at a predetermined site and rotor size of each of the plurality of wind turbines; modelling the wind field of the wind farm for each of a plurality of freestream wind speeds in each of a plurality of wind directions; defining locations for a plurality of virtual measurement masts upstream of upstream turbines in each of the plurality of wind directions, wherein the upstream turbines are defined relative to the wind direction and the locations are defined at a clearance from each upstream turbine for identifying wind farm blockage effects; determining a wind farm blockage factor for each of the plurality of freestream wind speeds in each of the plurality of wind directions, the wind farm blockage factor being based on wind speed data from the virtual measurement masts located in the modelled wind field at the locations defined for the wind direction; receiving a plurality of measurements indicating wind speed and wind direction from at least one physical measurement mast located at the site of the wind farm; and determining an annual energy production for the wind farm based on one or more adjusted wind speeds obtained by applying one or more determined wind farm blockage factors to one or more measurements from the at least one physical measurement mast. receiving a definition of the wind farm, the definition including at least a layout of a plurality of wind turbines of the wind farm at a predetermined site and rotor size of each of the plurality of wind turbines; modelling the wind field of the wind farm for each of a plurality of freestream wind speeds in each of a plurality of wind directions; defining locations for a plurality of virtual measurement masts upstream of upstream turbines in each of the plurality of wind directions, wherein the upstream turbines are defined relative to the wind direction and the locations are defined at a clearance from each upstream turbine for identifying wind farm blockage effects; determining a wind farm blockage factor for each of the plurality of freestream wind speeds in each of the plurality of wind directions, the wind farm blockage factor being based on wind speed data from the virtual measurement masts located in the modelled wind field at the locations defined for the wind direction; receiving a plurality of measurements indicating wind speed and wind direction from at least one physical measurement mast located at the site of the wind farm; and determining an annual energy production for the wind farm based on one or more adjusted wind speeds obtained by applying one or more determined wind farm blockage factors to one or more measurements from the at least one physical measurement mast.
A method of determining the position of the axis of rotation of a rotatable portion of a machine as a function of displacement along a translational axis of the machine, the machine comprising a first feature, a measurement probe and a rotatable portion, the rotatable portion comprising a first rotatable portion having the first feature associated therewith or a second rotatable portion holding the measurement probe, characterised by the method comprising the steps of: determining a position of the axis of rotation of the rotatable portion by; (i) using a measurement probe to determine a position of the first feature, (ii) rotating the rotatable portion through an angle, (iii) using said measurement probe to determine a new position of the first feature, and (iv) calculating a position of the axis of rotation of the rotatable portion using the position measurements determined in steps (i) and (iii); translating at least one of the measurement probe and the rotatable portion along said translational axis; and repeating step to determine a further position of the axis of rotation of the rotatable portion. determining a position of the axis of rotation of the rotatable portion by; (i) using a measurement probe to determine a position of the first feature, (ii) rotating the rotatable portion through an angle, (iii) using said measurement probe to determine a new position of the first feature, and (iv) calculating a position of the axis of rotation of the rotatable portion using the position measurements determined in steps (i) and (iii); (i) using a measurement probe to determine a position of the first feature, (ii) rotating the rotatable portion through an angle, (iii) using said measurement probe to determine a new position of the first feature, and (iv) calculating a position of the axis of rotation of the rotatable portion using the position measurements determined in steps (i) and (iii); translating at least one of the measurement probe and the rotatable portion along said translational axis; and repeating step to determine a further position of the axis of rotation of the rotatable portion.