mhurhangee/ep-ind-claims huggingface dataset:
A communication method for a wireless local area network, comprising: receiving a communication frame; sensing a receiving power of the communication frame via a CS/CCA state machine for sensing a wake-up frame and a CS/CCA state machine for sensing a non-wake-up frame; and determining the type of the communication frame, according to the receiving power of the communication frame, characterized in that the CS/CCA state machine for sensing the wake-up frame and the CS/CCA state machine for sensing the non-wake-up frame are - physically separated or - logically separated, wherein the two CS/CCA state machines share one physical entity, wherein one physical entity CS/CCA state machine maintains two sets of CCA determination mechanisms, wherein after a receiving state machine receives a communication frame, the CS/CCA state machine senses the receiving power of the communication frame to determine whether the wake-up frame has been received, enters an awake state after receiving the wake-up frame, and data is sent by a sending state machine. receiving a communication frame; sensing a receiving power of the communication frame via a CS/CCA state machine for sensing a wake-up frame and a CS/CCA state machine for sensing a non-wake-up frame; and determining the type of the communication frame, according to the receiving power of the communication frame, characterized in that the CS/CCA state machine for sensing the wake-up frame and the CS/CCA state machine for sensing the non-wake-up frame are - physically separated or - logically separated, wherein the two CS/CCA state machines share one physical entity, wherein one physical entity CS/CCA state machine maintains two sets of CCA determination mechanisms, wherein after a receiving state machine receives a communication frame, the CS/CCA state machine senses the receiving power of the communication frame to determine whether the wake-up frame has been received, enters an awake state after receiving the wake-up frame, and data is sent by a sending state machine. - physically separated or - logically separated, wherein the two CS/CCA state machines share one physical entity, wherein one physical entity CS/CCA state machine maintains two sets of CCA determination mechanisms, wherein after a receiving state machine receives a communication frame, the CS/CCA state machine senses the receiving power of the communication frame to determine whether the wake-up frame has been received, enters an awake state after receiving the wake-up frame, and data is sent by a sending state machine.
A bollard system comprising: an impact receiving post having an outer surface, the impact receiving post being bendable and having a proximal end and a distal end; characterised in that the bollard system further comprises a foundation cage defining a three-dimensional lattice structure, the foundation cage coupled to the proximal end of the impact receiving post and configured for installation in concrete beneath a ground surface, the foundation cage defining a recess that receives a proximal portion of the impact receiving post, the foundation cage including a platform at least partially extending across the recess and supporting the impact receiving post and preventing the impact receiving post from extending further into the foundation cage. an impact receiving post having an outer surface, the impact receiving post being bendable and having a proximal end and a distal end; characterised in that the bollard system further comprises a foundation cage defining a three-dimensional lattice structure, the foundation cage coupled to the proximal end of the impact receiving post and configured for installation in concrete beneath a ground surface, the foundation cage defining a recess that receives a proximal portion of the impact receiving post, the foundation cage including a platform at least partially extending across the recess and supporting the impact receiving post and preventing the impact receiving post from extending further into the foundation cage.
A hydraulic system for moving an implement of a working machine, - the hydraulic system comprising a hydraulic cylinder (701, 721) with a cylinder and a piston which is adapted to move in the cylinder to thereby move the implement relative to a body structure of the working machine, and an actuator pump (702, 722) arranged to provide hydraulic fluid to the hydraulic cylinder (701, 721), the hydraulic cylinder (701, 721) having a first port (703, 723) and a second port (704, 724) adapted to be in fluid communication with the actuator pump (702, 722), - the hydraulic cylinder (701, 721) and the actuator pump (702, 722) being arranged so that the hydraulic cylinder (701, 721) is directly controlled by the actuator pump (702, 722) so that the rate of movement of the piston of the hydraulic cylinder is purely pump controlled, - the hydraulic system further comprising a hydraulic accumulator for suspension of the implement, - an electronically controlled suspension control valve arranged in fluid communication between the first portion (703, 723) and the hydraulic accumulator, which hydraulic accumulator is arranged to be selectively connectable to the first port by controlling the electronically controlled suspension control valve, - the hydraulic system further comprising a further pump in addition to the actuator pump, the hydraulic accumulator being arranged to be pressurised by the further pump. - the hydraulic system comprising a hydraulic cylinder (701, 721) with a cylinder and a piston which is adapted to move in the cylinder to thereby move the implement relative to a body structure of the working machine, and an actuator pump (702, 722) arranged to provide hydraulic fluid to the hydraulic cylinder (701, 721), the hydraulic cylinder (701, 721) having a first port (703, 723) and a second port (704, 724) adapted to be in fluid communication with the actuator pump (702, 722), - the hydraulic cylinder (701, 721) and the actuator pump (702, 722) being arranged so that the hydraulic cylinder (701, 721) is directly controlled by the actuator pump (702, 722) so that the rate of movement of the piston of the hydraulic cylinder is purely pump controlled, - the hydraulic system further comprising a hydraulic accumulator for suspension of the implement, - an electronically controlled suspension control valve arranged in fluid communication between the first portion (703, 723) and the hydraulic accumulator, which hydraulic accumulator is arranged to be selectively connectable to the first port by controlling the electronically controlled suspension control valve, - the hydraulic system further comprising a further pump in addition to the actuator pump, the hydraulic accumulator being arranged to be pressurised by the further pump.
A method, performed by a network node, of selecting a capillary network gateway, CGW, for linking of a machine device, MD, arranged to operate in a capillary network, to a cellular network, the cellular network being arranged to operate according to a radio access technology different from a radio access technology of the capillary network, the capillary network including a plurality of CGWs, each of which CGWs being adapted to forward traffic between the capillary network and a radio base station, RBS, of the cellular network, the method comprising: - for at least two CGWs of the plurality of CGWs, gathering data related to cells of RBSs having a cellular radio connection to the respective CGW in the capillary network; and - controlling selection of at least one CGW out of the at least two CGWs based on the gathered data, wherein the step of controlling selection of the at least one CGW comprises configuring (S52b) in the MD a set of policies and/or rules governing a CGW selection by the MD. - for at least two CGWs of the plurality of CGWs, gathering data related to cells of RBSs having a cellular radio connection to the respective CGW in the capillary network; and - controlling selection of at least one CGW out of the at least two CGWs based on the gathered data, wherein the step of controlling selection of the at least one CGW comprises configuring (S52b) in the MD a set of policies and/or rules governing a CGW selection by the MD.
A medical robotic system comprising: a first tool; a first robotic arm having a first plurality of joints (210, 220, 245) to move the first tool and having a first plurality of sensors to sense movement of the first plurality of joints (210, 220, 245); a second tool; a second robotic arm having a second plurality of joints (210, 220, 245) to move the second tool and having a second plurality of sensors to sense movement of the second plurality of joints (210, 220, 245); a monitor; a first input device; a second input device; and a processor configured to move the first robotic arm and the first tool in response to operator manipulation of the first input device, and to move the second robotic arm and the second tool in response to operator manipulation of the second input device, and characterized by the processor being configured to determine a distance between the first and second tools (138, 139) using data received from the first and second pluralities of sensors and forward kinematics of the first and second robotic arms (128, 129), and to display information of the determined distance on the monitor. a first tool; a first robotic arm having a first plurality of joints (210, 220, 245) to move the first tool and having a first plurality of sensors to sense movement of the first plurality of joints (210, 220, 245); a second tool; a second robotic arm having a second plurality of joints (210, 220, 245) to move the second tool and having a second plurality of sensors to sense movement of the second plurality of joints (210, 220, 245); a monitor; a first input device; a second input device; and a processor configured to move the first robotic arm and the first tool in response to operator manipulation of the first input device, and to move the second robotic arm and the second tool in response to operator manipulation of the second input device, and characterized by the processor being configured to determine a distance between the first and second tools (138, 139) using data received from the first and second pluralities of sensors and forward kinematics of the first and second robotic arms (128, 129), and to display information of the determined distance on the monitor.
A method of determining a turbulent condition in an aircraft with a handheld device having a gyroscope, a seismometer, and an accelerometer, the method comprising: receiving at the handheld device an angle output from the gyroscope indicative of a pitch, roll and yaw angle of the aircraft, a motion output from the seismometer, and an acceleration output from the accelerometer while the handheld device is located within the aircraft; executing software on the handheld device to determine at least a motion and a rate of change in motion of the aircraft in the vertical direction from the angle output, the motion output and the acceleration output; comparing on the handheld device the determined motion and the determined rate of change in motion of the aircraft in the vertical direction to respectively a corresponding turbulence motion threshold value and a motion rate of change threshold, the comparing comprising the executing of software on the handheld device; and providing on the handheld device an indication of a turbulent condition when the comparison indicates the received output exceeds the turbulence threshold value. receiving at the handheld device an angle output from the gyroscope indicative of a pitch, roll and yaw angle of the aircraft, a motion output from the seismometer, and an acceleration output from the accelerometer while the handheld device is located within the aircraft; executing software on the handheld device to determine at least a motion and a rate of change in motion of the aircraft in the vertical direction from the angle output, the motion output and the acceleration output; comparing on the handheld device the determined motion and the determined rate of change in motion of the aircraft in the vertical direction to respectively a corresponding turbulence motion threshold value and a motion rate of change threshold, the comparing comprising the executing of software on the handheld device; and providing on the handheld device an indication of a turbulent condition when the comparison indicates the received output exceeds the turbulence threshold value.
Rotor for a comminuting machine, particularly a waste, plastics-material or wood comminuting device, - wherein the rotor has a rotor shaft rotatable in a rotational direction about an axis of rotation, - wherein intermediate elements are fastened on a circumferential surface (2") of the rotor shaft by means of connecting elements, - wherein a respective number of knife holders for rotor knives is secured to the intermediate elements, - wherein the intermediate elements tangentially adjoin one another at abutment surfaces as seen around the axis of rotation so that the intermediate elements in their totality tangentially completely cover the circumferential surface (2") of the rotor shaft as seen around the axis of rotation and - wherein the knife holders form rows, which extend in the direction of the axis of rotation and which are spaced from one another as seen around the axis of rotation, of knife holders, characterised in that - the intermediate elements are constructed as plates which extend tangentially beyond the knife holders as seen around the axis of rotation and which each have a kinked region (8b, 8c) not only in front of, but also behind the knife holders, - wherein the connecting elements are detachably fastened by means of the intermediate elements thereof to the circumferential surface (12") of the rotor shaft and are arranged not only in the kinked region in front of the knife holders, but also in the kinked region behind the knife holders and - wherein the circumferential surface (2") has planar areas against which the intermediate elements inclusive of the kinked regions (8b, 8c) thereof bear. - wherein the rotor has a rotor shaft rotatable in a rotational direction about an axis of rotation, - wherein intermediate elements are fastened on a circumferential surface (2") of the rotor shaft by means of connecting elements, - wherein a respective number of knife holders for rotor knives is secured to the intermediate elements, - wherein the intermediate elements tangentially adjoin one another at abutment surfaces as seen around the axis of rotation so that the intermediate elements in their totality tangentially completely cover the circumferential surface (2") of the rotor shaft as seen around the axis of rotation and - wherein the knife holders form rows, which extend in the direction of the axis of rotation and which are spaced from one another as seen around the axis of rotation, of knife holders, - the intermediate elements are constructed as plates which extend tangentially beyond the knife holders as seen around the axis of rotation and which each have a kinked region (8b, 8c) not only in front of, but also behind the knife holders, - wherein the connecting elements are detachably fastened by means of the intermediate elements thereof to the circumferential surface (12") of the rotor shaft and are arranged not only in the kinked region in front of the knife holders, but also in the kinked region behind the knife holders and - wherein the circumferential surface (2") has planar areas against which the intermediate elements inclusive of the kinked regions (8b, 8c) thereof bear.
A method for protecting a truncated parameter, wherein the method comprises: determining, by a mobility management network element, whether a terminal uses a control plane cellular internet of things, CloT, 5th generation system, 5GS optimization function; and sending, by the mobility management network element to the terminal when the terminal uses the control plane CloT 5GS optimization function, a downlink non-access stratum, NAS, message on which NAS security protection is performed by using a NAS security context, wherein the downlink NAS message comprises a truncated parameter, and the truncated parameter is used to truncate a 5th generation-system architecture evolution-temporary mobile subscriber identity, 5G-S-TMSI, of the terminal. determining, by a mobility management network element, whether a terminal uses a control plane cellular internet of things, CloT, 5th generation system, 5GS optimization function; and sending, by the mobility management network element to the terminal when the terminal uses the control plane CloT 5GS optimization function, a downlink non-access stratum, NAS, message on which NAS security protection is performed by using a NAS security context, wherein the downlink NAS message comprises a truncated parameter, and the truncated parameter is used to truncate a 5th generation-system architecture evolution-temporary mobile subscriber identity, 5G-S-TMSI, of the terminal.
Method for determining statistical properties of raw measured values from a wanted signal obtained from a filtering process in a filter and formed from a temporal sequence of output values of the filter, wherein, in a first step, raw measured values were obtained by means of a device and the wanted signal was ascertained from the raw measured values by means of the filter, wherein, in a second method step, a filter characteristic of the filter is ascertained by means of an evaluation unit from a temporal sequence of output values obtained under stable measuring conditions and, in a third method step, the ascertained filter characteristic is inverted, raw measured values are reconstructed from the inverse of the filter characteristic and the wanted signal and from the reconstructed raw measured values their statistical properties are ascertained and/or these statistical properties are ascertained directly from the inverse of the filter characteristic and the wanted signal, wherein the statistical properties are a variance, wherein the method comprises making a statement about the measuring conditions only from the wanted signal, and even without exact knowledge of the filter, by means of the variance, wherein an existence of stable measuring conditions is detected (a) from an evaluation of the temporal sequence of the output values and/or (b) from an evaluation of sensor signals of further sensor devices. (a) from an evaluation of the temporal sequence of the output values and/or (b) from an evaluation of sensor signals of further sensor devices.
Split time counter lever intended for use in a split time counter mechanism further comprising a split time counter wheel and a split time counter heart-piece characterised in that said split time counter lever comprises a first lever and a second lever which are each intended to be pivoted on the split time counter wheel and are articulated to one another so that pivoting of the second lever causes pivoting of the first lever, said first lever bearing the active end of the split time counter lever which is intended to cooperate with the split time counter heart-piece of the split time counter mechanism.
A process for manufacturing oxidized graphite, the process comprising: (a) mixing in a reaction vessel a reaction mixture comprising concentrated sulfuric acid, concentrated nitric acid, a first amount of a chlorate salt, and a graphite as starting materials; (b) allowing the reaction mixture to react to form oxidized graphite; and (c) isolating the oxidized graphite from the reaction mixture, wherein the weight ratio of the chlorate salt to the graphite is from greater than 2:1 to less than 8:1 and the presence of the starting materials, nitronium ion, or a nitronium-graphite complex is monitored in the reaction mixture during the reaction by Raman spectroscopy. (a) mixing in a reaction vessel a reaction mixture comprising concentrated sulfuric acid, concentrated nitric acid, a first amount of a chlorate salt, and a graphite as starting materials; (b) allowing the reaction mixture to react to form oxidized graphite; and (c) isolating the oxidized graphite from the reaction mixture, wherein the weight ratio of the chlorate salt to the graphite is from greater than 2:1 to less than 8:1 and the presence of the starting materials, nitronium ion, or a nitronium-graphite complex is monitored in the reaction mixture during the reaction by Raman spectroscopy.
A coatable composition for formation of an ink-receptive layer selected from coatable composition A or coatable composition B, where coatable composition A comprises a mixture of: a) 8.0-60 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 30-80.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 0-10 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers; and coatable composition B comprises a mixture of: a) 1.0-15 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 75-85.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 10-22.0 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers. a) 8.0-60 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 30-80.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 0-10 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers; a) 1.0-15 wt%, based on the total weight of a), b), c), and d), of colloidal silica particles having an average particle size of 2.0-150 nm; b) 75-85.0 wt%, based on the total weight of a), b), c), and d), of one or more polyester polymers; c) 10-22.0 wt%, based on the total weight of a), b), c), and d), of one or more polymers selected from the group consisting of polyurethane polymers and (meth)acrylate polymers; and d) 0.1-10 wt%, based on the total weight of a), b), c), and d), of one or more crosslinkers.