mhurhangee/patent-ind-claim-en huggingface dataset:
A microwave ablation catheter assembly, comprising: an ablation catheter including: a coaxial cable including an inner conductor and an outer conductor and having a proximal portion for connection to a microwave energy source; and a radiator disposed at a distal portion of the coaxial cable; and an extended working channel configured to receive the ablation catheter for positioning the radiator adjacent or within target tissue, the extended working channel including: an inner insulative layer having an internal diameter; and a flexible electrically conductive layer disposed around and on the inner insulative layer and electrically shorted to the outer conductor of the coaxial cable, wherein upon delivery of microwave energy to the microwave ablation catheter, energy conducted along the outer conductor of the coaxial cable is captured within the electrically conductive layer of the extended working channel and prevented from affecting tissue adjacent the extended working channel, and wherein the internal diameter of the insulative layer is such that the outer conductor of the coaxial cable passes through the insulative layer in sliding engagement. an ablation catheter including: a coaxial cable including an inner conductor and an outer conductor and having a proximal portion for connection to a microwave energy source; and a radiator disposed at a distal portion of the coaxial cable; and a coaxial cable including an inner conductor and an outer conductor and having a proximal portion for connection to a microwave energy source; and a radiator disposed at a distal portion of the coaxial cable; and an extended working channel configured to receive the ablation catheter for positioning the radiator adjacent or within target tissue, the extended working channel including: an inner insulative layer having an internal diameter; and a flexible electrically conductive layer disposed around and on the inner insulative layer and electrically shorted to the outer conductor of the coaxial cable, wherein upon delivery of microwave energy to the microwave ablation catheter, energy conducted along the outer conductor of the coaxial cable is captured within the electrically conductive layer of the extended working channel and prevented from affecting tissue adjacent the extended working channel, and wherein the internal diameter of the insulative layer is such that the outer conductor of the coaxial cable passes through the insulative layer in sliding engagement. an inner insulative layer having an internal diameter; and a flexible electrically conductive layer disposed around and on the inner insulative layer and electrically shorted to the outer conductor of the coaxial cable, wherein upon delivery of microwave energy to the microwave ablation catheter, energy conducted along the outer conductor of the coaxial cable is captured within the electrically conductive layer of the extended working channel and prevented from affecting tissue adjacent the extended working channel, and wherein the internal diameter of the insulative layer is such that the outer conductor of the coaxial cable passes through the insulative layer in sliding engagement.
Power tool transmission device having at least one first and one second gear stage (12, 14; 12a, 14a) and having a shifting element (16; 16a) which is movable by a user by means of an actuating element (18; 18a), wherein the shifting element (16; 16a) at least partially surrounds at least one gear stage (12, 14; 12, 14a) in a circumferential direction in at least one operating position and is intended to shift between a first and a second operating position, wherein the shifting element (16; 16a) comprises at least one first component (22; 22a) and one second component (24; 24a) and the shifting element (16; 16a) has at least one further component (38; 38a) which is formed at least partially by a spring element (40; 40a), characterized in that the first component (22; 22a) is operatively connected to the second component at least by means of the spring element (40; 40a).
A component comprising: a degradable portion that is degradable in an aqueous environment; and a non-degradable portion that is not degradable in the aqueous environment, characterized in that the degradable portion comprises cobalt, and in that the non-degradable portion comprises cobalt, wherein the cobalt includes cobalt that is continuous across an interface between the degradable portion and the non-degradable portion . a degradable portion that is degradable in an aqueous environment; and a non-degradable portion that is not degradable in the aqueous environment, characterized in that the degradable portion comprises cobalt, and in that the non-degradable portion comprises cobalt, wherein the cobalt includes cobalt that is continuous across an interface between the degradable portion and the non-degradable portion .
A process for producing acetic acid, comprising reacting carbon monoxide and at least one of methanol and a methanol derivative in a first reactor under conditions effective to produce a crude acetic acid product; separating the crude acetic acid product comprising flashing the crude acetic acid product into a first vapor stream comprising acetic acid and residual carbon monoxide, preferably from 10 mol% to 95 mol% carbon monoxide; and optionally from 5 mol% to 90 mol% at least one of methanol and a methanol derivative; and a first liquid residue stream comprising catalyst which is recycled to the first reactor; and reacting at least a portion of the residual carbon monoxide with at least one of methanol and a methanol derivative, preferably methyl acetate and/or dimethyl ether, over a metal catalyst, preferably a solid catalyst optionally comprising at least one metal selected from the group consisting of rhodium, iridium, ruthenium, nickel, and cobalt, in a second reactor to produce a product stream comprising additional acetic acid and optionally less than 40 mol% carbon monoxide; wherein the overall conversion of carbon monoxide is optionally greater than 90%.
An apparatus comprising: means for receiving from a first device a communication comprising packets of a first traffic flow and packets of a second traffic flow via a first radio bearer, wherein the first radio bearer is a default radio bearer; means for receiving, via the first radio bearer from the first device, a packet data unit, wherein the packet data unit is or comprises a switch-marker signaling the end of transmitting packets of the second traffic flow via the first radio bearer, wherein the first traffic flow continues to be received via the first radio bearer; means for establishing the second radio bearer between the apparatus and the first device; and means, based on the establishing, for receiving the further packets of the second traffic flow via the second radio bearer. means for receiving from a first device a communication comprising packets of a first traffic flow and packets of a second traffic flow via a first radio bearer, wherein the first radio bearer is a default radio bearer; means for receiving, via the first radio bearer from the first device, a packet data unit, wherein the packet data unit is or comprises a switch-marker signaling the end of transmitting packets of the second traffic flow via the first radio bearer, wherein the first traffic flow continues to be received via the first radio bearer; means for establishing the second radio bearer between the apparatus and the first device; and means, based on the establishing, for receiving the further packets of the second traffic flow via the second radio bearer.
Lost-shot escapement mechanism comprising: - an escapement wheel for receiving power from a power source to rotate it, and for directly supplying a fragment of power to a balance wheel , - a locking member for cooperating with the escapement wheel to block its rotation, - a rotatably mounted release wheel arranged to cooperate directly or indirectly with the escapement wheel , - a drive system to be mounted on the balance wheel , characterised in that the drive system is a unidirectional system, said mechanism being arranged so that the unidirectional drive system actuates once by oscillation the release wheel to drive it in rotation, periodically releasing the escapement wheel to give an impulse to the balance wheel . - an escapement wheel for receiving power from a power source to rotate it, and for directly supplying a fragment of power to a balance wheel , - a locking member for cooperating with the escapement wheel to block its rotation, - a rotatably mounted release wheel arranged to cooperate directly or indirectly with the escapement wheel , - a drive system to be mounted on the balance wheel ,
A bone screw comprising: - a head portion with a first axis (A), - a proximal shaft portion with a second axis (B), and - a distal shaft portion with a third axis (C), wherein the first axis (A) is a center axis extending in a longitudinal direction of the head portion , wherein the second axis (B) is a center axis extending in a longitudinal direction of the proximal shaft portion , and wherein the third axis (C) is a center axis extending in a longitudinal direction of the distal shaft portion , wherein the first and third axes are aligned to each other, and wherein the second axis (B) is displaced relative to the first and third axes, wherein a screw thread is continuously formed on the distal shaft portion and the proximal shaft portion , characterized in that the length of the distal shaft portion is at least three times the length of the proximal shaft portion . - a head portion with a first axis (A), - a proximal shaft portion with a second axis (B), and - a distal shaft portion with a third axis (C), wherein the first axis (A) is a center axis extending in a longitudinal direction of the head portion , wherein the second axis (B) is a center axis extending in a longitudinal direction of the proximal shaft portion , and wherein the third axis (C) is a center axis extending in a longitudinal direction of the distal shaft portion , wherein the first and third axes are aligned to each other, and wherein the second axis (B) is displaced relative to the first and third axes, wherein a screw thread is continuously formed on the distal shaft portion and the proximal shaft portion , characterized in that the length of the distal shaft portion is at least three times the length of the proximal shaft portion .
A base fabric for a press felt, wherein the base fabric is a flat formed structure and comprises: several machine direction yarns ; several cross machine direction yarns ; a first end region (E1) and a second end region (E2), wherein at said end regions the fabric is folded and one or more adjacent cross machine direction yarn(s) is/are removed so that the machine direction yarns , which are also folded, form seam loops at the end regions; and transverse bonding sections at proximity of the end regions (E1, E2) for bonding the folded fabric sections together; characterized in that the seam loops are slanted whereby the folded machine direction yarns forming the seam loops are without alignment at the end regions (E1, E2); the machine direction yarns are twisted relative to their longitudinal axis at the end regions (E1, E2) in order to allow formation of the slanted seam loops ; and the end regions (E1, E2) comprise at least two different zones in the transverse direction provided with the slanted seam loops , the seam loops in one zone differing from the seam loops in the other zone regarding their slanting direction and/or their angle of slant. several machine direction yarns ; several cross machine direction yarns ; a first end region (E1) and a second end region (E2), wherein at said end regions the fabric is folded and one or more adjacent cross machine direction yarn(s) is/are removed so that the machine direction yarns , which are also folded, form seam loops at the end regions; and transverse bonding sections at proximity of the end regions (E1, E2) for bonding the folded fabric sections together; characterized in that the seam loops are slanted whereby the folded machine direction yarns forming the seam loops are without alignment at the end regions (E1, E2); the machine direction yarns are twisted relative to their longitudinal axis at the end regions (E1, E2) in order to allow formation of the slanted seam loops ; and the end regions (E1, E2) comprise at least two different zones in the transverse direction provided with the slanted seam loops , the seam loops in one zone differing from the seam loops in the other zone regarding their slanting direction and/or their angle of slant.
A diffuser (20; 200) for a compressor of a gas turbine engine , the diffuser (20; 200) comprising: a plurality of diffuser pipes (40; 140; 240) circumferentially distributed about an axis of the compressor , each of the plurality of diffuser pipes (40; 140; 240) extending from an inlet to an outlet , a bend section (45; 145; 245) between the inlet and the outlet , and having a low pressure side and an opposite high pressure side, the low pressure side and the high pressure side extending on opposite sides of a longitudinal plane coinciding with a center line of a given one of the plurality of the diffuser pipes (40; 140; 240) and extending along the center line; and a recirculation conduit (50; 150; 250) defining a recirculation path from a first flow region to a second flow region in one or more of the plurality of the diffuser pipes (40; 140; 240), the first flow region having a greater static pressure than that of the second flow region, the recirculation conduit (50; 150; 250) having a conduit inlet (51; 151; 251) and a conduit outlet (52; 152; 252), at least the conduit outlet (52; 152; 252) located within the low pressure side of one of the plurality of the diffuser pipes (40; 140; 240). a plurality of diffuser pipes (40; 140; 240) circumferentially distributed about an axis of the compressor , each of the plurality of diffuser pipes (40; 140; 240) extending from an inlet to an outlet , a bend section (45; 145; 245) between the inlet and the outlet , and having a low pressure side and an opposite high pressure side, the low pressure side and the high pressure side extending on opposite sides of a longitudinal plane coinciding with a center line of a given one of the plurality of the diffuser pipes (40; 140; 240) and extending along the center line; and a recirculation conduit (50; 150; 250) defining a recirculation path from a first flow region to a second flow region in one or more of the plurality of the diffuser pipes (40; 140; 240), the first flow region having a greater static pressure than that of the second flow region, the recirculation conduit (50; 150; 250) having a conduit inlet (51; 151; 251) and a conduit outlet (52; 152; 252), at least the conduit outlet (52; 152; 252) located within the low pressure side of one of the plurality of the diffuser pipes (40; 140; 240).
3D lidar sensor , in particular for motor vehicles, having a laser beam source , an optical receiver and a scanning system for deflecting a laser beam created by the laser beam source in two mutually perpendicular scanning directions, wherein a further detection device for deviations from normal operation is provided in the 3D lidar sensor , wherein the detection device is arranged inside a housing of the 3D lidar sensor or at an outlet opening, wherein the detection device comprises light sensors , wherein either the light sensors are arranged on an intermediate plane and/or at the outlet opening such that the light sensors are not irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors being irradiated, or wherein the light sensors are arranged at the edge of the outlet opening or in the region of the intermediate plane such that the light sensors are irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors not being irradiated, and wherein an error message is output when the laser beam or the scanning system is recognized as being maladjusted. wherein either the light sensors are arranged on an intermediate plane and/or at the outlet opening such that the light sensors are not irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors being irradiated, or wherein the light sensors are arranged at the edge of the outlet opening or in the region of the intermediate plane such that the light sensors are irradiated during normal operation of the laser beam source and the scanning system and this allows detection of whether the emitted laser beam is actually transmitted in the desired direction, wherein the laser beam or the scanning system can be identified as maladjusted in the event of the light sensors not being irradiated, and wherein an error message is output when the laser beam or the scanning system is recognized as being maladjusted.
A memory module couplable to a memory controller of a host system, comprising: a data manager coupled to the memory controller of the host system using a data bus , the data manager operable to communicate data signals with the memory controller of the host system by way of the data bus; a first volatile memory subsystem (508 ) coupled to the data manager using a first data bus and operable to communicate data signals with the data manager by way of the first data bus; a second volatile memory subsystem (508 ) coupled to the data manager using a second data bus, the second volatile memory subsystem operable to communicate data signals with the data manager by way of the second data bus; a non-volatile memory subsystem coupled to the data manager using a third data bus , the non-volatile memory subsystem operable to communicate data signals with the data manager by way of the third data bus; and a memory module controller operable to receive one or more commands from the memory controller of the host system, characterized in that in response to the one or more commands received from the memory controller of the host system, the memory module controller generates and transmits one or more control signals to the data manager, wherein, in response to the one or more control signals, the data manager transfers data between the first volatile memory subsystem and the memory controller of the host system, and, concurrently, transfers data signals from the non-volatile memory subsystem to the second volatile memory subsystem by way of the third data bus and the second data bus a data manager coupled to the memory controller of the host system using a data bus , the data manager operable to communicate data signals with the memory controller of the host system by way of the data bus; a first volatile memory subsystem (508 ) coupled to the data manager using a first data bus and operable to communicate data signals with the data manager by way of the first data bus; a second volatile memory subsystem (508 ) coupled to the data manager using a second data bus, the second volatile memory subsystem operable to communicate data signals with the data manager by way of the second data bus; a non-volatile memory subsystem coupled to the data manager using a third data bus , the non-volatile memory subsystem operable to communicate data signals with the data manager by way of the third data bus; and a memory module controller operable to receive one or more commands from the memory controller of the host system, characterized in that in response to the one or more commands received from the memory controller of the host system, the memory module controller generates and transmits one or more control signals to the data manager, wherein, in response to the one or more control signals, the data manager transfers data between the first volatile memory subsystem and the memory controller of the host system, and, concurrently, transfers data signals from the non-volatile memory subsystem to the second volatile memory subsystem by way of the third data bus and the second data bus
Method for separating at least one solid body portion from a solid body, wherein the solid body includes or consists of silicon carbide (SiC), comprising at least the steps of: modifying the crystal lattice of the solid body by way of a laser, wherein a plurality of modifications are produced in the crystal lattice, wherein silicon carbide is converted into Si, i.e. silicon, and DLC, i.e. diamond-like carbon, phases, wherein, after the modifications , the crystal lattice in the regions surrounding the modifications develops tears at least in each case in one portion, wherein the tears in the region of the modifications define a detachment region, wherein more modifications are produced in one direction, in particular with respect to the length or width or height, than in two other directions, wherein the solid body has a length such that more than two solid body layers having a thickness of less than 1000 μm are separable therefrom, wherein the tears are undercritical and extend less than 5 mm in the solid body, wherein a main tear, produced owing to mechanical stresses, is guided along a detachment region and through the detachment region, wherein, owing to the stresses, the main tear in the solid body propagates along the detachment region through which the solid body layer is separated from the solid body, wherein at least the plurality of the previously produced tears in the region of the modifications are connected to one another by the main tear. modifying the crystal lattice of the solid body by way of a laser, wherein a plurality of modifications are produced in the crystal lattice, wherein silicon carbide is converted into Si, i.e. silicon, and DLC, i.e. diamond-like carbon, phases, wherein, after the modifications , the crystal lattice in the regions surrounding the modifications develops tears at least in each case in one portion, wherein the tears in the region of the modifications define a detachment region,
A washing machine comprising a detergent box having a detergent dispenser, a tub wherein the washing process is performed, a drum which is disposed into the tub and wherein the laundry to be washed is placed, a discharge pump and a discharge outlet for discharging the water inside the tub, a discharge valve, a circulation valve characterized by a hydrocyclone disposed on the discharge line for separating fibers breaking off during the washing process from the discharge water and a microfilter cartridge disposed at the rear side of the detergent box and whereto the fibers separated from the discharge water are transferred with the water remaining in the tub by means of the circulation system at the end of a pumping process duration such that the fibers are retained by said filter structure of the microfilter cartridge and the cleaned water is delivered to the tub and discharged.