mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor for a hover-capable aircraft , comprising: - a hub rotatable about a first axis (A) and, in turn, comprising a plurality of blades ; - a mast connectable to a drive member of said aircraft and operatively connected to said hub to drive the hub in rotation about said axis (A); and damping means to dampen the transmission of vibrations to said mast , which comprise a mass designed to oscillate, in use, in a plane transversal to said axis (A) so as to contain, in use, the flexural vibrations of said mast generated by rotation of the blades ; said damping means further comprising elastic means possessing a desired stiffness along said axis (A) and operatively connected to said mass to contain, in use, the vibration of said mast along said axis (A); said damping means further comprising a first elastic element supported by said mast and designed to flexurally oscillate in a plane transversal to said axis (A); said first elastic element extending along said axis (A); said elastic means also being interposed between said mass and said first elastic element ; characterized in that said elastic means comprise at least a second elastic element with a serpentine-like shape, having a plurality of first sections extending mainly radially with respect to said axis (A) alternating with a plurality of second sections extending mainly parallel to said axis (A). - a hub rotatable about a first axis (A) and, in turn, comprising a plurality of blades ; - a mast connectable to a drive member of said aircraft and operatively connected to said hub to drive the hub in rotation about said axis (A); and
A medical device comprising: an access port locater configured to locate a subcutaneous access port located beneath a skin surface of a host , the access port locator including at least one annular ring forming an aperture , the annular ring having a longitudinal ring length disposed between first and second opposing ends (124; 128) and a longitudinal axis (LA) extending along the longitudinal ring length , the annular ring positionable on the skin surface of the host with the first end of the annular ring in contact with the skin surface and the longitudinal axis (LA) of the annular ring substantially perpendicular to the skin surface ; at least one stabilizing flange configured to stabilize the access port locater on the skin surface , the stabilizing flange extending laterally from the longitudinal ring length of the annular ring ; at least one needle guard configured to shield a hand of a user of the access port locator when the hand is positioned on the stabilizing flange , characterized in that a first end region at the first end of the annular ring forms an annular protrusion relative to the at least one stabilizing flange which is arranged to provide a pressure concentration ridge to press into the skin surface ; and that the annular protrusion is disposed adjacent the aperture . an access port locater configured to locate a subcutaneous access port located beneath a skin surface of a host , the access port locator including at least one annular ring forming an aperture , the annular ring having a longitudinal ring length disposed between first and second opposing ends (124; 128) and a longitudinal axis (LA) extending along the longitudinal ring length , the annular ring positionable on the skin surface of the host with the first end of the annular ring in contact with the skin surface and the longitudinal axis (LA) of the annular ring substantially perpendicular to the skin surface ; at least one stabilizing flange configured to stabilize the access port locater on the skin surface , the stabilizing flange extending laterally from the longitudinal ring length of the annular ring ; at least one needle guard configured to shield a hand of a user of the access port locator when the hand is positioned on the stabilizing flange , characterized in that a first end region at the first end of the annular ring forms an annular protrusion relative to the at least one stabilizing flange which is arranged to provide a pressure concentration ridge to press into the skin surface ; and that the annular protrusion is disposed adjacent the aperture .
A security chip, comprising: a first dielectric layer ; a second dielectric layer disposed on the first dielectric layer , wherein the first dielectric layer is an optically denser medium relative to the second dielectric layer , and a roughness of an upper surface of the first dielectric layer is greater than or equal to a preset threshold, so that laser light entering the second dielectric layer from the first dielectric layer is able to be totally reflected and/or scattered; and a semiconductor chip disposed on the second dielectric layer . a first dielectric layer ; a second dielectric layer disposed on the first dielectric layer , wherein the first dielectric layer is an optically denser medium relative to the second dielectric layer , and a roughness of an upper surface of the first dielectric layer is greater than or equal to a preset threshold, so that laser light entering the second dielectric layer from the first dielectric layer is able to be totally reflected and/or scattered; and a semiconductor chip disposed on the second dielectric layer .
A suturing device , comprising: at least one suturing needle ; a drive mechanism operatively coupled to the suturing needle and configured to advance the suturing needle from a retracted position to an extended position during engagement, and retract the suturing needle from the extended position to the retracted position during disengagement; and an impulse mechanism operatively coupled to the drive mechanism and configured to accumulate energy during engagement of the suturing needle, and instantaneously release the accumulated energy through the drive mechanism during deployment of a suture . at least one suturing needle ; a drive mechanism operatively coupled to the suturing needle and configured to advance the suturing needle from a retracted position to an extended position during engagement, and retract the suturing needle from the extended position to the retracted position during disengagement; and an impulse mechanism operatively coupled to the drive mechanism and configured to accumulate energy during engagement of the suturing needle, and instantaneously release the accumulated energy through the drive mechanism during deployment of a suture .
A method of communication for a base station , comprising: determining a quantity of beams for which channel information is transmitted to the base station , wherein the quantity of beams is based on whether uplink control information, UCI, is transmitted via a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH; sending a beam reference signal, a channel state information reference signal, or any combination thereof, using the determined quantity of beams; sending via a physical downlink control channel, PDCCH, an indication of the quantity of beams for which channel information is transmitted to the base station , wherein bits are reserved in downlink control information, DCI, for the indication of the quantity of beams for which channel information is transmitted to the base station ; and receiving the channel information for the determined quantity of beams ; wherein channel information for a first quantity of beams is received by the base station if the uplink control information is transmitted in the PUSCH; channel information for a second quantity of beams is received by the base station if uplink control information is transmitted in the PUCCH; and the first quantity is larger than the second quantity. determining a quantity of beams for which channel information is transmitted to the base station , wherein the quantity of beams is based on whether uplink control information, UCI, is transmitted via a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH; sending a beam reference signal, a channel state information reference signal, or any combination thereof, using the determined quantity of beams; sending via a physical downlink control channel, PDCCH, an indication of the quantity of beams for which channel information is transmitted to the base station , wherein bits are reserved in downlink control information, DCI, for the indication of the quantity of beams for which channel information is transmitted to the base station ; and receiving the channel information for the determined quantity of beams ; wherein channel information for a first quantity of beams is received by the base station if the uplink control information is transmitted in the PUSCH; channel information for a second quantity of beams is received by the base station if uplink control information is transmitted in the PUCCH; and the first quantity is larger than the second quantity.
Surgical shaver with a tubular inner sleeve which can be rotated about its longitudinal axis and can be connected to a rotation drive, and with a tubular outer sleeve which surrounds the inner sleeve and is rotationally fixed with respect thereto, wherein the free distal ends of the inner sleeve and of the outer sleeve are open in the longitudinal direction, and wherein the outer sleeve has, in the region of its free end, at least one cutting bar extending in the longitudinal direction, projecting in the longitudinal direction and with at least one first cutting edge which has a component in the longitudinal direction and starts from the foot region of the cutting bar , and wherein the inner sleeve has, in the region of its free end, at least one first mating bar extending in the longitudinal direction, projecting in the longitudinal direction and extending substantially up to the free end of the at least one cutting bar , characterized in that the at least one cutting bar of the outer sleeve has at least one further cutting edge in the free end region, which edge has a component that is directed inward in the circumference direction.
A method of performing a quantum calculation, comprising: applying a first random phase factor e 2 πiθ to an ancillary qubit with a phase gate in a first step; with a controlled unitary gate , applying a second random phase factor e 2 πiMφ to a calculational state comprised of multiple qubits in a subsequent second step; measuring a state of the ancillary qubit with a measurement device to obtain phase information related to the second random phase factor; and calculating an estimated phase α of a phase factor e 2 πiα of the calculational state based at least in part on the measured state of the ancillary qubit, by determining a value for the phase α that maximizes a conditional probability distribution function which is given by one plus the cosine of two π times φ k plus θ i , divided by two, where θ i is either zero or half π and where φ k is a real number modulo 1 represented as a unit-length circle: φ k = k t mod 1 , φ k ∈ R / Z , 0 ≤ k < t < 2 m , where m represents the number of bits of accuracy for which φ k is determined, wherein the controlled unitary gate is controlled by the ancillary qubit and is based on an applied unitary operator Y that is equivalent to multiple M applications of a base unitary operator U, Y = U M , wherein M, the multiple applications of the base unitary operator U, has a value that is a positive integer. applying a first random phase factor e 2 πiθ to an ancillary qubit with a phase gate in a first step; with a controlled unitary gate , applying a second random phase factor e 2 πiMφ to a calculational state comprised of multiple qubits in a subsequent second step; measuring a state of the ancillary qubit with a measurement device to obtain phase information related to the second random phase factor; and calculating an estimated phase α of a phase factor e 2 πiα of the calculational state based at least in part on the measured state of the ancillary qubit, by determining a value for the phase α that maximizes a conditional probability distribution function which is given by one plus the cosine of two π times φ k plus θ i , divided by two, where θ i is either zero or half π and where φ k is a real number modulo 1 represented as a unit-length circle: φ k = k t mod 1 , φ k ∈ R / Z , 0 ≤ k < t < 2 m , where m represents the number of bits of accuracy for which φ k is determined, wherein the controlled unitary gate is controlled by the ancillary qubit and is based on an applied unitary operator Y that is equivalent to multiple M applications of a base unitary operator U, Y = U M , wherein M, the multiple applications of the base unitary operator U, has a value that is a positive integer.
A power-over-fiber system comprising: a power sourcing equipment including a semiconductor laser configured to oscillate with electric power to output feed light ; a powered device including a photoelectric conversion element configured to convert the feed light into electric power; an optical fiber cable configured to transmit the feed light from the power sourcing equipment to the powered device ; characterized by a measurer configured to measure a distance from the power sourcing equipment to the powered device ; and a control device configured to control the power sourcing equipment to output the feed light after compensating for an amount of attenuation of the feed light according to a transmission distance on the basis of the distance from the power sourcing equipment to the powered device measured by the measurer . a power sourcing equipment including a semiconductor laser configured to oscillate with electric power to output feed light ; a powered device including a photoelectric conversion element configured to convert the feed light into electric power; an optical fiber cable configured to transmit the feed light from the power sourcing equipment to the powered device ; characterized by a measurer configured to measure a distance from the power sourcing equipment to the powered device ; and a control device configured to control the power sourcing equipment to output the feed light after compensating for an amount of attenuation of the feed light according to a transmission distance on the basis of the distance from the power sourcing equipment to the powered device measured by the measurer .
Infrastructure equipment for use in a telecommunications system, the infrastructure equipment comprising: transceiver circuitry and control circuitry , whereby the transceiver circuitry, under control of the control circuitry, is configured to: transmit first data to a first mobile device and second data to a second mobile device, wherein the transmission period of the second data is shorter than the transmission period of the first data and the second data is transmitted by occupying a subset of the resources allocated to the first data; transmit to the first mobile device re-transmit data that contains information indicating a delay at which retransmission of the first data whose resources were allocated to the second data will take place after the transmission of the first data. transceiver circuitry and control circuitry , whereby the transceiver circuitry, under control of the control circuitry, is configured to: transmit first data to a first mobile device and second data to a second mobile device, wherein the transmission period of the second data is shorter than the transmission period of the first data and the second data is transmitted by occupying a subset of the resources allocated to the first data; transmit to the first mobile device re-transmit data that contains information indicating a delay at which retransmission of the first data whose resources were allocated to the second data will take place after the transmission of the first data.
Method for outputting recommendations for the energy-efficient operation of a vehicle, wherein the vehicle has at least two operating modes, of which one operating mode is in each case selected by a drive control in dependence on fixed triggers for operating the vehicle, the method comprising the following procedural steps: - the determination of an operating mode change triggered by a trigger actuated by a driving situation or a driving behaviour of the person driving the vehicle, - the incrementation of a frequency of the operating mode change at each determination of the operating mode change triggered by the trigger, - the analysis of the frequency, wherein - the frequency of the operating mode change is compared to a predetermined value; and - a message relating to the operating mode change is generated depending on the type of operating mode change and on the result of the comparison; and - the message is output via at least one output means comprised by the vehicle, characterised in that the frequency of the operating mode change is stored in a user profile in a data array, being allocated to the operating mode last active and/or to the selected operating mode and/or to the trigger causing the change. the vehicle has at least two operating modes, of which one operating mode is in each case selected by a drive control in dependence on fixed triggers for operating the vehicle, the method comprising the following procedural steps: - the determination of an operating mode change triggered by a trigger actuated by a driving situation or a driving behaviour of the person driving the vehicle, - the incrementation of a frequency of the operating mode change at each determination of the operating mode change triggered by the trigger, - the analysis of the frequency, wherein - the frequency of the operating mode change is compared to a predetermined value; and - a message relating to the operating mode change is generated depending on the type of operating mode change and on the result of the comparison; and - the message is output via at least one output means comprised by the vehicle, - the determination of an operating mode change triggered by a trigger actuated by a driving situation or a driving behaviour of the person driving the vehicle, - the incrementation of a frequency of the operating mode change at each determination of the operating mode change triggered by the trigger, - the analysis of the frequency, wherein - the frequency of the operating mode change is compared to a predetermined value; and - a message relating to the operating mode change is generated depending on the type of operating mode change and on the result of the comparison; and - the message is output via at least one output means comprised by the vehicle, characterised in that the frequency of the operating mode change is stored in a user profile in a data array, being allocated to the operating mode last active and/or to the selected operating mode and/or to the trigger causing the change.
Method for emulating a multipath connection, in which the data packets sent or received by a given client device are intercepted by a plurality of hubs situated in at least one network to which said client device is connected, each hub making it possible to aggregate connections utilizing a plurality of paths liable to be used by the client device, characterized in that one of these hubs is designated in a dynamic manner as being the "main hub" and the other hub or hubs as being the "secondary hubs", and in that said main hub or a secondary hub: a) receives a data packet sent by the client device destined for an opposite party, b) removes from the received packet, if relevant, all the multipath options, c) replaces the source address of the packet received with an address of the main hub, and d) dispatches the packet thus modified to said opposite party. a) receives a data packet sent by the client device destined for an opposite party, b) removes from the received packet, if relevant, all the multipath options, c) replaces the source address of the packet received with an address of the main hub, and d) dispatches the packet thus modified to said opposite party.
A wearable device , comprising: a deflector structure configured to be worn on a head of a user, wherein the deflector structure includes: a first connecting section , a second connecting section , and a concave section , the first connecting section , the concave section , and the second connecting section being connected in sequence, the concave section having a downward depression region relative to the deflector structure ; a first microphone configured to collect a sound signal, the first microphone being located at the concave section ; characterized by further comprising: a sound conduction structure configured to transmit external sound, wherein the sound conduction structure is connected to the concave section , the sound conduction structure is an internal through structure, one end of the sound conduction structure is connected to external environment, and the first microphone is located at another end of the sound conduction structure . a first connecting section , a second connecting section , and a concave section , the first connecting section , the concave section , and the second connecting section being connected in sequence, the concave section having a downward depression region relative to the deflector structure ; a first microphone configured to collect a sound signal, the first microphone being located at the concave section ; characterized by further comprising: a sound conduction structure configured to transmit external sound, wherein the sound conduction structure is connected to the concave section , the sound conduction structure is an internal through structure, one end of the sound conduction structure is connected to external environment, and the first microphone is located at another end of the sound conduction structure .
A stent comprising an inner stent and an outer stent wherein the inner stent comprises or is connected with at least one fixation means and the inner stent and the outer stent are not directly connected (PCT p. 20, 1 st para) and the inner stent and the outer stent are essentially mechanically isolated from each other and the number of connecting arms and/or connecting arch of the fixation means is from 2 to 36 (original claim 15), and at least one fixation means is connected with one or more connecting means (original claim 7), and wherein the fixation means and the inner stent are connected to each other by way of connecting means at the atrial end or atrial area.