mhurhangee/patent-ind-claim-en huggingface dataset:
A highly flexible, kink resistant catheter , comprising: an elongate tubular body, having a proximal portion having a proximal end , a distal portion having a distal end and a central lumen , the tubular body comprising: an inner tubular layer surrounding the lumen; a helical support , carried concentrically over the inner layer and having adjacent loops spaced axially apart; and an outer tubular layer , carried concentrically over the helical support; wherein a distal portion of the tubular body is more flexible than a proximal portion of the tubular body, characterized in that , in the distal portion at least the inner layer and the outer layer are bonded together in the space between adjacent loops of the tubular support to form a helical channel , the helical support is floating unbonded within the helical channel , the inner tubular layer comprises ePTFE having a wall thickness of no more than about 0.10 mm (0.004 inches), and the distal portion includes a corrugated outer surface and a smooth inner surface. an inner tubular layer surrounding the lumen; a helical support , carried concentrically over the inner layer and having adjacent loops spaced axially apart; and an outer tubular layer , carried concentrically over the helical support; wherein a distal portion of the tubular body is more flexible than a proximal portion of the tubular body, characterized in that , in the distal portion at least the inner layer and the outer layer are bonded together in the space between adjacent loops of the tubular support to form a helical channel , the helical support is floating unbonded within the helical channel , the inner tubular layer comprises ePTFE having a wall thickness of no more than about 0.10 mm (0.004 inches), and the distal portion includes a corrugated outer surface and a smooth inner surface. wherein a distal portion of the tubular body is more flexible than a proximal portion of the tubular body, characterized in that , in the distal portion at least the inner layer and the outer layer are bonded together in the space between adjacent loops of the tubular support to form a helical channel , the helical support is floating unbonded within the helical channel , the inner tubular layer comprises ePTFE having a wall thickness of no more than about 0.10 mm (0.004 inches), and the distal portion includes a corrugated outer surface and a smooth inner surface.
A nuclear reactor facility for generating power from a nuclear reaction, the reactor facility comprising: a reactor core containing a fissionable uranium chloride fuel salt , the fissionable uranium chloride fuel salt containing UCl 3 and having a melting point of less than 600 °C, wherein the fissionable uranium chloride fuel salt is either 17 % UCl 3 , 71 % UCl 4 , 12 % NaCl or 17 % UCl 3 , 40.5 % UCl 4 , 42.5 % NaCl; and a heat exchanger adapted to transfer heat from the fuel salt to a coolant . a reactor core containing a fissionable uranium chloride fuel salt , the fissionable uranium chloride fuel salt containing UCl 3 and having a melting point of less than 600 °C, wherein the fissionable uranium chloride fuel salt is either 17 % UCl 3 , 71 % UCl 4 , 12 % NaCl or 17 % UCl 3 , 40.5 % UCl 4 , 42.5 % NaCl; and a heat exchanger adapted to transfer heat from the fuel salt to a coolant .
A method for transmitting and receiving signals in a frequency band in a wireless communications network, the method comprising: determining a frequency separation between a frequency of a transmit signal and a frequency of a receive signal within the frequency band comprising selecting a transmit-receive frequency separation value from at least two predefined transmit-receive frequency separation values for the frequency band based on at least one of a number of physical channels associated with the transmit signal, and a number of physical channels associated with the receive signal; and transmitting and receiving signals in the frequency band in accordance with the determined frequency separation. determining a frequency separation between a frequency of a transmit signal and a frequency of a receive signal within the frequency band comprising selecting a transmit-receive frequency separation value from at least two predefined transmit-receive frequency separation values for the frequency band based on at least one of a number of physical channels associated with the transmit signal, and a number of physical channels associated with the receive signal; and transmitting and receiving signals in the frequency band in accordance with the determined frequency separation.
Method for stencil printing a layer on or onto a printing surface by means of a stencil, in which a stencil with at least one first and one second part is used, wherein the first and the second part cover a non-continuous region of the printing surface , wherein the first part is arranged on a printing frame which is arranged movably between a printing head and the printing surface and the second part is arranged on the printing surface and the layer is a laminate.
A rewinding machine for winding web material (W) into a log about a core , the machine comprising: a winding drum rotatable about a center axis and about which the web material (W) to be wound is directed, the machine characterized by a continuous loop spaced from the winding drum and with the winding drum defining a winding nest (N) with a nip through which the core is inserted and through which web material (W) is directed when winding the web material (W) about the core in the winding nest (N), the continuous loop being adapted and configured to move in a direction generally opposite a direction of the winding drum at the nip and to change speed relative to a speed of the winding drum during winding of the web material (W) about the core . a winding drum rotatable about a center axis and about which the web material (W) to be wound is directed, the machine characterized by a continuous loop spaced from the winding drum and with the winding drum defining a winding nest (N) with a nip through which the core is inserted and through which web material (W) is directed when winding the web material (W) about the core in the winding nest (N), the continuous loop being adapted and configured to move in a direction generally opposite a direction of the winding drum at the nip and to change speed relative to a speed of the winding drum during winding of the web material (W) about the core .
A method for controlling the program execution in a chip card , wherein the chip card has a processor (μP), a multithreading-capable virtual machine "VM", at least one external interface and at least one thread (T1, T2, T3) to be executed on the processor, and wherein the VM allocates program execution resources to each thread to be executed in accordance with a scheduling method, external data are supplied at at least one external interface from at least one external device arranged outside the system , the external data are accepted at the at least one external interface by the system, and the scheduling method is controlled by the VM while employing the external data , characterized in that the external data are contained in an Application Protocol Data Unit, "APDU", command, received at the external interface .
A membrane electrode assembly comprising: • a cathode layer comprising a reduction catalyst and a first anion-and-cation-conducting polymer; • an anode layer comprising an oxidation catalyst and a first cation-conducting polymer; • a membrane layer comprising a second cation-conducting polymer, the membrane layer arranged between the cathode layer and the anode layer and conductively connecting the cathode layer and the anode layer; and • a cathode buffer layer comprising at least one of a first anion-conducting polymer and a second anion-and-cation conducting polymer, the cathode buffer layer arranged between the cathode layer and the membrane layer and conductively connecting the cathode layer and the membrane layer. • a cathode layer comprising a reduction catalyst and a first anion-and-cation-conducting polymer; • an anode layer comprising an oxidation catalyst and a first cation-conducting polymer; • a membrane layer comprising a second cation-conducting polymer, the membrane layer arranged between the cathode layer and the anode layer and conductively connecting the cathode layer and the anode layer; and • a cathode buffer layer comprising at least one of a first anion-conducting polymer and a second anion-and-cation conducting polymer, the cathode buffer layer arranged between the cathode layer and the membrane layer and conductively connecting the cathode layer and the membrane layer.
A mobile respirator comprising: a respiratory device having an inlet and an outlet fluidly communicating with an interior of the respiratory device ; a pipe having two opposite ends, and one of the two opposite ends of the pipe connected to the outlet of the respiratory device ; a breathing component having a connecting tube connected to the other one of the two opposite ends of the pipe ; a power bank electrically connected to the respiratory device ; an air supplier having a supplying pipe ; and characterized in that the mobile respirator comprises a heat and moisture exchange filter having an inlet opening fluidly communicating with an interior of the heat and moisture exchange filter and connected to the other one of the two opposite ends of the pipe ; and an outlet opening fluidly communicating with the interior of the heat and moisture exchange filter and connected to the connecting tube ; wherein the breathing component has a branch tube formed on the connecting tube , fluidly communicating with the connecting tube and connected to an end of the supplying pipe away from the air supplier . a respiratory device having an inlet and an outlet fluidly communicating with an interior of the respiratory device ; a pipe having two opposite ends, and one of the two opposite ends of the pipe connected to the outlet of the respiratory device ; a breathing component having a connecting tube connected to the other one of the two opposite ends of the pipe ; a power bank electrically connected to the respiratory device ; an air supplier having a supplying pipe ; and an inlet opening fluidly communicating with an interior of the heat and moisture exchange filter and connected to the other one of the two opposite ends of the pipe ; and an outlet opening fluidly communicating with the interior of the heat and moisture exchange filter and connected to the connecting tube ; wherein the breathing component has a branch tube formed on the connecting tube , fluidly communicating with the connecting tube and connected to an end of the supplying pipe away from the air supplier .
A polyolefin formulation comprising (A) a polyolefin polymer; x weight percent (wt%) of (B) an alkoxyphenol compound of formula (I): wherein R 1 is a (C 1 -C 20 )alkyl; and y wt% of (C) a benzophenone compound of formula (II): wherein Ar 1 is phenyl or an alkylphenyl; wherein y is from 1 to 8 wt%; wherein x is from 0.1 to 3.0 wt%, with the proviso that x is less than 0.5y; and wherein wt% are based on total weight of the polyolefin formulation.
An apparatus for providing oxygen to a vehicle user, in particular an aircraft pilot, comprising a source of pressurized respiratory gas comprising oxygen-enriched air, a flow-regulating and/or pressure-regulating member , and at least one mask arranged for supplying gas to the respiratory tract of said user, the regulating member comprising at least one inlet connected to the source and at least one outlet connected to the mask , the regulating member being configured to regulate the flow and/or the pressure of the respiratory gas supplied to the mask according to the respiratory demand of the user, the apparatus comprising at least one sensor measuring the pressure and/or the flow of respiratory gas delivered by the regulating member towards the mask , and an electronic data storage and processing member configured to receive the measurements from the at least one sensor and to calculate, from these measurements, the frequency of the gas flows provided to the mask and corresponding to the respiratory frequency of the user, to compare this calculated frequency against a threshold frequency from which there is a risk of hypocapnia and, when this calculated frequency is greater than the threshold frequency, to generate an audible and/or visual and/or vibratory warning signal , the apparatus comprising a display connected to the electronic data storage and processing member , the electronic data storage and processing member controlling the display of a warning signal when said calculated frequency is greater than the threshold frequency, characterized in that the electronic data storage and processing member is configured to control the display or acoustic emission of a periodic signal having a frequency corresponding to a target frequency which is less than or equal to the threshold frequency.
A user apparatus for use in a mobile communication system, wherein the user apparatus is configured to communicate with a plurality of base stations each of which forms a cell group that includes one cell or a plurality of cells, and to take the same discontinuous reception state or non-discontinuous reception state between cells in each cell group, the user apparatus being characterized by comprising: measurement control means configured to determine which measurement condition to use for performing measurement between a measurement condition for when in a discontinuous reception state and a measurement condition for when in a non-discontinuous reception state based on a state of a specific cell group among cell groups configured in the user apparatus, and to perform measurement using a determined measurement condition.
A method of launching an elongate subsea structure into water, the method comprising: providing buoyant support to the structure by displacing water with a hollow buoyancy unit that applies buoyant upthrust to the structure ; and by lowering the buoyancy unit in the water to bring at least one permanently open aperture of the buoyancy unit beneath a surface level of the water, flooding the buoyancy unit with water through the or each permanently open aperture to reduce the buoyant upthrust applied to the structure . providing buoyant support to the structure by displacing water with a hollow buoyancy unit that applies buoyant upthrust to the structure ; and by lowering the buoyancy unit in the water to bring at least one permanently open aperture of the buoyancy unit beneath a surface level of the water, flooding the buoyancy unit with water through the or each permanently open aperture to reduce the buoyant upthrust applied to the structure .
Construction machine , comprising a track wheel suspension including a track wheel engageable to a track , a swing device comprising a first coupling portion , the first coupling portion being arranged for rotatably supporting said track wheel , a swing bar comprising a first bar end , the first bar end being arranged for being mounted to a second coupling portion of said swing device , the swing bar providing a swing axis (B), wherein said swing axis (B) is offset from a rotation axis (A) of the track wheel such that a swing movement of said swing device enables a movement of said track wheel in a direction which is substantially perpendicular to said rotation axis (A), wherein each track wheel of the construction machine is supported by such a track wheel suspension .
A catalyst for reducing nitrogen oxides selected from nitrogen monoxide, nitrogen dioxide and mixtures thereof, comprising a crystalline silicate having an iron-containing β-framework structure wherein a SiO 2 /Fe 2 O 3 mol ratio is in the range of 20 to 300, without organic structure-directing agent in the micropores, and at least 90% of the contained iron is an isolated iron ion Fe 3+ , as expressed by an absorption ratio A defined by the following equation as obtained by ultraviolet-visible light absorption measurement with a wavelength of 220-700 nm, carried out after calcination of crystalline silicate at 600°C in dry air or nitrogen atmosphere, A % = C + D / B × 100 wherein A is the ratio of an isolated iron ion, B is the total integrated absorption intensity, C is integrated absorption intensity of a resolved waveform in a Gaussian curve with a peak wavelength of 211±10 nm, and D is integrated absorption intensity of a resolved waveform in a Gaussian curve with a peak wavelength of 272±10 nm.
Radiofrequency communication module or semi-finished product able to be integrated into the structure of a tyre , comprising a radiofrequency transponder embedded in a rubber blend and comprising an electronic chip and a radiating antenna that is able to communicate with a radiofrequency reader, characterized in that said radiofrequency transponder in addition comprises a primary antenna that is electrically connected to the electronic chip , in that the primary antenna is electromagnetically coupled to the radiating antenna , in that the radiating antenna consists of a single-strand helical spring defining a first longitudinal axis , in that the primary antenna is a coil having at least one turn defining a second longitudinal axis that is circumscribed in a cylinder the axis of revolution of which is parallel to the second longitudinal axis and the diameter of which is comprised between one third and three times, and preferably between half and two times, the average diameter of the helical spring of the radiating antenna , and in that said single-strand antenna has a core made of steel with a metal exterior adhesion layer for adhesion to the rubber blend that surrounds it.
A neuromodulation system for providing epidural stimulation for treating a patient and for enhancing at least one autonomous function such as blood circulation and/or respiration, wherein the system comprises at least one signal input module , which is configured to receive at least one or more signals being indicative for blood circulation, wherein the at least one signal input module is further configured to receive baseline signals, wherein the baseline signals define at least one target value, and at least one control module , wherein the control module is connected to the signal input module , wherein the control module is configured to adapt the epidural electrical stimulation provided by the neuromodulation system on the basis of the signal(s) received by the signal input module , wherein the control module is configured to detect differences between the at least one target value and at least one or more signals indicative for blood circulation, and wherein the control module is further configured and arranged to adapt stimulation based on the differences between the at least one target value and at least one or more signals indicative for blood circulation, wherein the control module comprises a linear proportional control module configured to provide a linear proportional control mechanism, and wherein the linear proportional control module is further configured to modify at least one of amplitude and frequency of a stimulation paradigm in response to the at least one or more signals indicative for blood circulation with a coefficient β that controls the linear proportion with which the amplitude or frequency changes. at least one signal input module , which is configured to receive at least one or more signals being indicative for blood circulation, wherein the at least one signal input module is further configured to receive baseline signals, wherein the baseline signals define at least one target value, and at least one control module , wherein the control module is connected to the signal input module , wherein the control module is configured to adapt the epidural electrical stimulation provided by the neuromodulation system on the basis of the signal(s) received by the signal input module , wherein the control module is configured to detect differences between the at least one target value and at least one or more signals indicative for blood circulation, and wherein the control module is further configured and arranged to adapt stimulation based on the differences between the at least one target value and at least one or more signals indicative for blood circulation, wherein the control module comprises a linear proportional control module configured to provide a linear proportional control mechanism, and wherein the linear proportional control module is further configured to modify at least one of amplitude and frequency of a stimulation paradigm in response to the at least one or more signals indicative for blood circulation with a coefficient β that controls the linear proportion with which the amplitude or frequency changes.
A humanized chimeric antigen receptor (CAR) comprising an extracellular domain, a transmembrane domain, an intracellular signaling domain; wherein the extracellular domain comprises a humanized anti-GCN4 scFv comprising the amino acid sequence SEQ ID NO: 322.
A method implemented by a wireless transmit/receive unit, WTRU , for performing handover, the method comprising: the WTRU receiving a handover command_via a source cell, wherein the handover command indicates that the WTRU is to handover from the source cell to a target cell, characterized in that the handover command indicates whether or not the WTRU should use a random access channel, RACH, procedure for timing adjustment in order to obtain uplink synchronization with the target cell; the WTRU performing timing adjustment based on the handover command; and the WTRU transmitting a handover complete message via the target cell. the WTRU receiving a handover command_via a source cell, wherein the handover command indicates that the WTRU is to handover from the source cell to a target cell, characterized in that the handover command indicates whether or not the WTRU should use a random access channel, RACH, procedure for timing adjustment in order to obtain uplink synchronization with the target cell; the WTRU performing timing adjustment based on the handover command; and the WTRU transmitting a handover complete message via the target cell.
A working vehicle comprising a traveling body which includes: a traveling device ; and a connecting section which is configured to connect a working machine to the traveling body , wherein the traveling body includes: a pair of left and right body frames which extends longitudinally; an engine which is mounted on the body frames and works as a driving source of the traveling device and the working machine; a base plate which is provided on the body frames ; a cooler which is provided on the base plate ; and a hose which is connected to the cooler and routed, the base plate has a hose insertion hole into which the hose is inserted, and the hose passes through the hose insertion hole , extends below the base plate , and is routed toward the engine , characterized in that the hose is to be routed while passing through a region between the left and right body frames . a traveling device ; and a connecting section which is configured to connect a working machine to the traveling body , wherein the traveling body includes: a pair of left and right body frames which extends longitudinally; an engine which is mounted on the body frames and works as a driving source of the traveling device and the working machine; a base plate which is provided on the body frames ; a cooler which is provided on the base plate ; and a hose which is connected to the cooler and routed, a pair of left and right body frames which extends longitudinally; an engine which is mounted on the body frames and works as a driving source of the traveling device and the working machine; a base plate which is provided on the body frames ; a cooler which is provided on the base plate ; and a hose which is connected to the cooler and routed, the base plate has a hose insertion hole into which the hose is inserted, and the hose passes through the hose insertion hole , extends below the base plate , and is routed toward the engine , characterized in that the hose is to be routed while passing through a region between the left and right body frames .