mhurhangee/patent-ind-claim-en huggingface dataset:
Protective cage for protection against shellfish predators, configured to be arranged on a shellfish rearing support, such a stake, a rope or a longline, these shellfish being in particular mussels, characterized in it comprises: - a hollow, elongated body with a lattice structure defining openings, such as meshes , the dimensions of which are configured to prevent the predatory action of the said predators, this hollow body being open at its two opposite ends, known respectively as the lower end and the upper end , and - two devices for closing the hollow body , one of the two closing devices being fixed to lower end of the body and the other device to the upper end of the body, each closure device being configured to at least partially close off the end of the hollow body while presenting an opening allowing the passage of the said rearing medium through this closure device and being configured to enable the hollow body to be centered with respect to this support and maintaining this centering, said hollow body and the two closing devices being made of semi-rigid plastic, said cage being characterized in at least one of said closing devices comprises a cover provided with cut-outs extending radially from its center, so as to form a plurality of deformable tongues , these tongues being able to deform to allow the rearing support to pass through and to be able to press against it over at least part of their length, in order to ensure that the hollow body is centered with respect to the said rearing support and that this centering is maintained. - a hollow, elongated body with a lattice structure defining openings, such as meshes , the dimensions of which are configured to prevent the predatory action of the said predators, this hollow body being open at its two opposite ends, known respectively as the lower end and the upper end , and - two devices for closing the hollow body , one of the two closing devices being fixed to lower end of the body and the other device to the upper end of the body, each closure device being configured to at least partially close off the end of the hollow body while presenting an opening allowing the passage of the said rearing medium through this closure device and being configured to enable the hollow body to be centered with respect to this support and maintaining this centering, said hollow body and the two closing devices being made of semi-rigid plastic, said cage being characterized in at least one of said closing devices comprises a cover provided with cut-outs extending radially from its center, so as to form a plurality of deformable tongues , these tongues being able to deform to allow the rearing support to pass through and to be able to press against it over at least part of their length, in order to ensure that the hollow body is centered with respect to the said rearing support and that this centering is maintained.
Hydrostatic machine comprising: - a stator equipped with fixings for a structure and comprising a circumferential cam track ; - a rotor provided with fixings for a rotating drive element and comprising circumferentially distributed pistons suitable for interacting with the cam track ; - a hydraulic distributor suitable for selectively supplying the pistons with hydraulic fluid so that the interaction of the pistons with the cam track corresponds to a relative rotation of the rotor with respect to the stator ; the hydrostatic machine being characterized in that : - the stator comprises an internal cylindrical surface of constant diameter and a cam ring that comprises, on its internal circumference, the cam track , and that is mounted, via its external circumference, in the internal cylindrical surface ; and - it comprises two bearings that allow the rotation of the rotor with respect to the stator , and that are mounted on the internal cylindrical surface of the stator , axially on either side of the cam ring , the cam ring and the two bearings having the same outside diameter. - a stator equipped with fixings for a structure and comprising a circumferential cam track ; - a rotor provided with fixings for a rotating drive element and comprising circumferentially distributed pistons suitable for interacting with the cam track ; - a hydraulic distributor suitable for selectively supplying the pistons with hydraulic fluid so that the interaction of the pistons with the cam track corresponds to a relative rotation of the rotor with respect to the stator ; - the stator comprises an internal cylindrical surface of constant diameter and a cam ring that comprises, on its internal circumference, the cam track , and that is mounted, via its external circumference, in the internal cylindrical surface ; and - it comprises two bearings that allow the rotation of the rotor with respect to the stator , and that are mounted on the internal cylindrical surface of the stator , axially on either side of the cam ring , the cam ring and the two bearings having the same outside diameter.
Manufacturing method for obtaining a high durability, high insulating composite timber member, where said method comprises the following steps: a. selecting the wood to be treated to be as free from knots as possible and introducing said wood to be treated into a treatment unit; b. Increasing the temperature to a first elevated level inside the treatment unit, said first elevated temperature level being in the range of 170°C to 175°C and maintaining said first elevated temperature for a pre-determined period of time, where said pre-determined period of time is between 45 minutes and up to 6 hours; c. Decreasing the temperature to a certain lower level, where said lower level is in the range of approx. 20° C to 60°C for a certain pre-determined period of time; d. Introducing the wood into an autoclave or into the treatment unit, if the treatment unit is suitable as an autoclave, and applying a mixture of linseed oil and mineral oil to the wood and allowing the mixture to penetrate the wood; and e. Retrieving and storing the treated wood. a. selecting the wood to be treated to be as free from knots as possible and introducing said wood to be treated into a treatment unit; b. Increasing the temperature to a first elevated level inside the treatment unit, said first elevated temperature level being in the range of 170°C to 175°C and maintaining said first elevated temperature for a pre-determined period of time, where said pre-determined period of time is between 45 minutes and up to 6 hours; c. Decreasing the temperature to a certain lower level, where said lower level is in the range of approx. 20° C to 60°C for a certain pre-determined period of time; d. Introducing the wood into an autoclave or into the treatment unit, if the treatment unit is suitable as an autoclave, and applying a mixture of linseed oil and mineral oil to the wood and allowing the mixture to penetrate the wood; and e. Retrieving and storing the treated wood.
A method of wireless communications at a first wireless device, comprising: transmitting, to a channel engineering device and one or more other wireless devices, a set of synchronization signals in accordance with a first periodicity associated with synchronization signal burst transmissions; and transmitting a message to configure the channel engineering device with one or more signaling directions and a second periodicity for the channel engineering device to transmit the set of synchronization signals, the second periodicity being different from the first periodicity, wherein the one or more signaling directions and the second periodicity are configured for adjusting a coverage area of the set of synchronization signals after transmission from the first wireless device. transmitting, to a channel engineering device and one or more other wireless devices, a set of synchronization signals in accordance with a first periodicity associated with synchronization signal burst transmissions; and transmitting a message to configure the channel engineering device with one or more signaling directions and a second periodicity for the channel engineering device to transmit the set of synchronization signals, the second periodicity being different from the first periodicity, wherein the one or more signaling directions and the second periodicity are configured for adjusting a coverage area of the set of synchronization signals after transmission from the first wireless device.
A reinforced stent delivery system comprising: • a catheter with a proximal and distal end, the catheter having a reinforced single lumen shaft , the shaft also having a proximal end and a distal end, wherein; • the catheter distal head is not directly affixed to the shaft, enabling the distal head to move freely relative to the distal end of the shaft; • a removably attached mandrel support guidewire anchored to the catheter at its proximal end, wherein • a distal head of the mandrel support guidewire remains free-floating relative to an extreme distal end of the catheter; and • a thermally bonded balloon mechanism; characterised in that : • the reinforced single lumen shaft is sealed with a closed bonded tip , and • the single lumen shaft and the mandrel support guidewire both possess a variable stiffness profile throughout their respective lengths. • a catheter with a proximal and distal end, the catheter having a reinforced single lumen shaft , the shaft also having a proximal end and a distal end, wherein; • the catheter distal head is not directly affixed to the shaft, enabling the distal head to move freely relative to the distal end of the shaft; • the catheter distal head is not directly affixed to the shaft, enabling the distal head to move freely relative to the distal end of the shaft; • a removably attached mandrel support guidewire anchored to the catheter at its proximal end, wherein • a distal head of the mandrel support guidewire remains free-floating relative to an extreme distal end of the catheter; and • a distal head of the mandrel support guidewire remains free-floating relative to an extreme distal end of the catheter; and • a thermally bonded balloon mechanism; • the reinforced single lumen shaft is sealed with a closed bonded tip , and • the single lumen shaft and the mandrel support guidewire both possess a variable stiffness profile throughout their respective lengths.
A washing machine comprising: a drum accommodating laundry and configured to be rotatable; a balancing unit moving along the circumference of the drum and changing the center of gravity of the drum ; a drum motor generating rotary force; a rotational shaft connecting the drum motor and the drum to transfer rotary force of the drum motor to the drum , and a wireless power transmission unit wirelessly supplying power to the balancing unit , characterized in that the wireless power transmission unit comprises: a transmission coil unit generating a magnetic field from power; and a reception coil unit generating power from the magnetic field generated by the transmission coil unit and supplying the generated power to the balancing unit , wherein the reception coil unit is disposed at the circumference of the rotational shaft , and the transmission coil unit is disposed at the circumference of the reception coil unit such that the transmission coil unit is spaced apart from the reception coil unit . a drum accommodating laundry and configured to be rotatable; a balancing unit moving along the circumference of the drum and changing the center of gravity of the drum ; a drum motor generating rotary force; a rotational shaft connecting the drum motor and the drum to transfer rotary force of the drum motor to the drum , and a wireless power transmission unit wirelessly supplying power to the balancing unit , characterized in that the wireless power transmission unit comprises: a transmission coil unit generating a magnetic field from power; and a reception coil unit generating power from the magnetic field generated by the transmission coil unit and supplying the generated power to the balancing unit , wherein the reception coil unit is disposed at the circumference of the rotational shaft , and the transmission coil unit is disposed at the circumference of the reception coil unit such that the transmission coil unit is spaced apart from the reception coil unit . a transmission coil unit generating a magnetic field from power; and a reception coil unit generating power from the magnetic field generated by the transmission coil unit and supplying the generated power to the balancing unit , wherein the reception coil unit is disposed at the circumference of the rotational shaft , and the transmission coil unit is disposed at the circumference of the reception coil unit such that the transmission coil unit is spaced apart from the reception coil unit .
A machine to machine (M2M) gateway (GW), comprising: at least one processor configured to determine registration attributes for a registration service, for a plurality of M2M devices, that comprise an M2M device identification for each of the plurality of M2M devices permitted to register with the M2M GW; the at least one processor configured to receive a registration request from one of the M2M devices to register with the M2M GW; the at least one processor configured to determine, using the registration service, whether to register the requesting M2M device by comparing the registration request to the registration attributes; the at least one processor configured to register the requesting M2M device with the M2M GW; and the at least one processor configured to communicate with the requesting M2M device to provide the requesting M2M device with an M2M service capability. at least one processor configured to determine registration attributes for a registration service, for a plurality of M2M devices, that comprise an M2M device identification for each of the plurality of M2M devices permitted to register with the M2M GW; the at least one processor configured to receive a registration request from one of the M2M devices to register with the M2M GW; the at least one processor configured to determine, using the registration service, whether to register the requesting M2M device by comparing the registration request to the registration attributes; the at least one processor configured to register the requesting M2M device with the M2M GW; and the at least one processor configured to communicate with the requesting M2M device to provide the requesting M2M device with an M2M service capability.
A method of transmitting speech signal, the method comprising: extracting low frequency feature information from an input speech signal by using a first feature extracting network, wherein the first feature extracting network comprises at least one first feature extracting module and at least one second feature extracting module arranged in a cascading manner, and wherein each of the at least one first feature extracting module and the at least one second feature extracting module performs a multiscale convolution operation based on at least two convolution processing parameters; and transmitting a speech signal corresponding to the low frequency feature information to a receiving end. extracting low frequency feature information from an input speech signal by using a first feature extracting network, wherein the first feature extracting network comprises at least one first feature extracting module and at least one second feature extracting module arranged in a cascading manner, and wherein each of the at least one first feature extracting module and the at least one second feature extracting module performs a multiscale convolution operation based on at least two convolution processing parameters; and transmitting a speech signal corresponding to the low frequency feature information to a receiving end.
An apparatus for drying polymer particles by means of an inert gas comprising: - a first distribution grid configured to receive a first stream of said inert gas; - a first drying chamber , placed above said first distribution grid , having an annular shape, suitable for maintaining the polymer in fluidized conditions by said first stream of inert gas; - a second drying chamber running inside said first drying chamber and protruding downwardly below said first distribution grid , wherein said second drying chamber is concentric to said first drying chamber ; characterized in that - the second drying chamber is formed by a tubular body , wherein a notching is provided in the upper end of said tubular body, - the apparatus further comprises a second distribution grid , arranged at the bottom part of said second drying chamber, configured to receive a second stream of said inert gas. - a first distribution grid configured to receive a first stream of said inert gas; - a first drying chamber , placed above said first distribution grid , having an annular shape, suitable for maintaining the polymer in fluidized conditions by said first stream of inert gas; - a second drying chamber running inside said first drying chamber and protruding downwardly below said first distribution grid , wherein said second drying chamber is concentric to said first drying chamber ; characterized in that - the second drying chamber is formed by a tubular body , wherein a notching is provided in the upper end of said tubular body, - the apparatus further comprises a second distribution grid , arranged at the bottom part of said second drying chamber, configured to receive a second stream of said inert gas.
Method for determining a current wheel diameter of a wheel of a vehicle, in particular of a rail vehicle, comprising the steps of: a) storing an initial value (AW) of the wheel diameter, b) measuring a rotational speed parameter (DGP) of the wheel for a measuring time (t i ) (i = 1... n), c) determining a reference speed (VREF) independent of the rotational speed parameter (DGP) at the measuring time (t i ), d) determining an estimated value (SW) of a wheel diameter parameter for the measuring time (t i ) on the basis of the reference speed (VREF) determined in step c) and the value of the rotational speed parameter (DGP) of the wheel measured in step b), e) repeating steps b) to d) for different measuring times (t i ), f) determining a correction value (KW) of the wheel diameter for an evaluation time (t a ) from the estimated values (SW), wherein an expected value (EW) of the wheel diameter for the evaluation time (t a ) is determined on the basis of the initial value (AW) of the wheel diameter and a value of a first mileage parameter of the vehicle; and the difference in amount between the correction value (KW) and the expected value (EW) is compared with a plausibility limit value (PG), and the correction value (KW) is compared with the initial value (AW) of the wheel diameter; and the numerical value of the initial value (AW) is only replaced by the numerical value of the correction value (KW), if the comparison of the difference in amount between the correction value (KW) and the expected value (EW) with the plausibility limit value (PG) shows that the difference in amount between the correction value (KW) and the expected value (EW) is below the plausibility limit value (PG), and if the comparison of the correction value (KW) with the initial value (AW) of the wheel diameter shows that the correction value (KW) is at least a minimum deviation (MA) smaller than the initial value (AW). a) storing an initial value (AW) of the wheel diameter, b) measuring a rotational speed parameter (DGP) of the wheel for a measuring time (t i ) (i = 1... n), c) determining a reference speed (VREF) independent of the rotational speed parameter (DGP) at the measuring time (t i ), d) determining an estimated value (SW) of a wheel diameter parameter for the measuring time (t i ) on the basis of the reference speed (VREF) determined in step c) and the value of the rotational speed parameter (DGP) of the wheel measured in step b), e) repeating steps b) to d) for different measuring times (t i ), f) determining a correction value (KW) of the wheel diameter for an evaluation time (t a ) from the estimated values (SW),
A pouch-type rechargeable battery comprising: an electrode assembly ; a case including a sealing portion surrounding the electrode assembly; and a lead electrically connected to the electrode assembly and extending in a first direction, wherein the lead includes a conductive metal portion and a film portion , the conductive metal portion is formed of one conductor and includes: a first region in contact with the electrode assembly and located inside the case; a second region exposed to an outside of the case; and a third region located between the first region and the second region and overlapping the sealing portion of the case , wherein the third region has a width (W2) greater than the first region and the second region in a second direction (D2) and has a thickness (TH2) smaller than the first region and the second region in a third direction (D3), and a thickness of the entire third region is smaller than thicknesses of the first region and the second region, and wherein the second direction (D2) is perpendicular to the first direction (D1), and the third direction (D3) is perpendicular to the first direction (D1) and the second direction (D2). an electrode assembly ; a case including a sealing portion surrounding the electrode assembly; and a lead electrically connected to the electrode assembly and extending in a first direction, wherein the lead includes a conductive metal portion and a film portion , the conductive metal portion is formed of one conductor and includes: a first region in contact with the electrode assembly and located inside the case; a second region exposed to an outside of the case; and a third region located between the first region and the second region and overlapping the sealing portion of the case , wherein the third region has a width (W2) greater than the first region and the second region in a second direction (D2) and has a thickness (TH2) smaller than the first region and the second region in a third direction (D3), and a thickness of the entire third region is smaller than thicknesses of the first region and the second region, and wherein the second direction (D2) is perpendicular to the first direction (D1), and the third direction (D3) is perpendicular to the first direction (D1) and the second direction (D2). a first region in contact with the electrode assembly and located inside the case; a second region exposed to an outside of the case; and a third region located between the first region and the second region and overlapping the sealing portion of the case , wherein the third region has a width (W2) greater than the first region and the second region in a second direction (D2) and has a thickness (TH2) smaller than the first region and the second region in a third direction (D3), and a thickness of the entire third region is smaller than thicknesses of the first region and the second region, and wherein the second direction (D2) is perpendicular to the first direction (D1), and the third direction (D3) is perpendicular to the first direction (D1) and the second direction (D2).