mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible circuit assembly for a biostimulator , comprising: a flexible substrate including a mounting surface having a fold region between a first mounting region and a second mounting region , wherein the flexible substrate is configured to fold along the fold region into a stacked configuration such that the first mounting region faces the second mounting region , and wherein the flexible substrate includes an aperture in the fold region having an aperture axis ; and a feedthrough connector on the mounting surface , wherein when the flexible substrate is in the stacked configuration the aperture axis extends between the first mounting region and the second mounting region in alignment with the feedthrough connector , characterized by: a processor on the mounting surface and configured to execute instructions stored in a non-transitory computer readable media to cause the biostimulator to generate and transmit pacing impulses to a target tissue, wherein the feedthrough connector is configured to receive a feedthrough pin extending through the aperture in the fold region to transmit a pacing impulse from the flexible circuit assembly to a target tissue. a flexible substrate including a mounting surface having a fold region between a first mounting region and a second mounting region , wherein the flexible substrate is configured to fold along the fold region into a stacked configuration such that the first mounting region faces the second mounting region , and wherein the flexible substrate includes an aperture in the fold region having an aperture axis ; and a feedthrough connector on the mounting surface , wherein when the flexible substrate is in the stacked configuration the aperture axis extends between the first mounting region and the second mounting region in alignment with the feedthrough connector , characterized by: a processor on the mounting surface and configured to execute instructions stored in a non-transitory computer readable media to cause the biostimulator to generate and transmit pacing impulses to a target tissue, wherein the feedthrough connector is configured to receive a feedthrough pin extending through the aperture in the fold region to transmit a pacing impulse from the flexible circuit assembly to a target tissue. a processor on the mounting surface and configured to execute instructions stored in a non-transitory computer readable media to cause the biostimulator to generate and transmit pacing impulses to a target tissue, wherein the feedthrough connector is configured to receive a feedthrough pin extending through the aperture in the fold region to transmit a pacing impulse from the flexible circuit assembly to a target tissue.
A method implemented by a network device to minimize multicast traffic loss or duplication in response to an update to multicast group membership in a network where multicast group membership changes can disrupt multicast traffic delivery to other members of the multicast group, the method comprising: receiving (i) a join request for the multicast group from a joining node that is to join the multicast group, the join request including a member since version number that is greater than a current version number of a multicast distribution tree, MDT, that serves the multicast group, or (ii) a leave request for the multicast group from a leaving node that is to leave the multicast group, the leave request including a member until version number that is equal to the current version number of the MDT; advertising a new MDT identifier, ID, with an incremented version number for the MDT that serves the multicast group in the network; and switching distribution of multicast group traffic from the current version of the MDT that serves the multicast group to a new version of the MDT with the incremented version number that serves the multicast group after a pre-determined time. receiving (i) a join request for the multicast group from a joining node that is to join the multicast group, the join request including a member since version number that is greater than a current version number of a multicast distribution tree, MDT, that serves the multicast group, or (ii) a leave request for the multicast group from a leaving node that is to leave the multicast group, the leave request including a member until version number that is equal to the current version number of the MDT; advertising a new MDT identifier, ID, with an incremented version number for the MDT that serves the multicast group in the network; and switching distribution of multicast group traffic from the current version of the MDT that serves the multicast group to a new version of the MDT with the incremented version number that serves the multicast group after a pre-determined time.
An electric-arc evaporation method for coating surfaces, wherein the current supply of the cathode takes place as a unipolar pulsed DC current supply with a minimum and a maximum current, or as a high-current pulsation with different amplitudes, wherein at least two active consumption targets are used in the method, wherein the consumption targets are alternately connected as a cathode and an anode during the coating process.
An apparatus, comprising: a valve plug tip having a head portion and a tail portion extending from the head portion, the head portion comprising a sealing surface and a shoulder and the tail portion comprising a base , a tip inboard arcuate transition region , and a tip taper ; and a valve plug body having a stem , a first end , a second end , a backing face , a body rim , a first body platform , a second body platform , an inboard body arcuate transition region , a body taper , an outboard body arcuate transition region , a body exterior surface and a cavity extending from the first end of the valve plug body toward the second end of the valve plug body, the cavity matably receiving the tail portion of the valve plug tip; an additively deposited material bonded to the valve plug body to retain the tail portion of the valve plug tip in the valve plug body; the apparatus being characterized in that the tip taper narrows from the base towards the head portion ; the additively deposited material is deposited on the valve plug body and the valve plug tip and is shaped as a retainer ; the retainer includes a retainer exterior surface , a retainer rim , an outboard retainer arcuate region , and a retainer taper ; and the body taper and the retainer taper matingly correspond with the tip taper . a valve plug tip having a head portion and a tail portion extending from the head portion, the head portion comprising a sealing surface and a shoulder and the tail portion comprising a base , a tip inboard arcuate transition region , and a tip taper ; and a valve plug body having a stem , a first end , a second end , a backing face , a body rim , a first body platform , a second body platform , an inboard body arcuate transition region , a body taper , an outboard body arcuate transition region , a body exterior surface and a cavity extending from the first end of the valve plug body toward the second end of the valve plug body, the cavity matably receiving the tail portion of the valve plug tip; an additively deposited material bonded to the valve plug body to retain the tail portion of the valve plug tip in the valve plug body; the apparatus being characterized in that the tip taper narrows from the base towards the head portion ; the additively deposited material is deposited on the valve plug body and the valve plug tip and is shaped as a retainer ; the retainer includes a retainer exterior surface , a retainer rim , an outboard retainer arcuate region , and a retainer taper ; and the body taper and the retainer taper matingly correspond with the tip taper . an additively deposited material bonded to the valve plug body to retain the tail portion of the valve plug tip in the valve plug body; the apparatus being characterized in that the tip taper narrows from the base towards the head portion ; the additively deposited material is deposited on the valve plug body and the valve plug tip and is shaped as a retainer ; the retainer includes a retainer exterior surface , a retainer rim , an outboard retainer arcuate region , and a retainer taper ; and the body taper and the retainer taper matingly correspond with the tip taper .
A venting valve for removing air from a vulcanising mould of a vehicle tyre, wherein the venting valve comprises: a first end configured to face towards an interior of the mould and a second end configured to face away from the interior of the mould; a valve body ; a venting channel passing through the valve body ; a movable valve stem arranged inside the venting channel and comprising a first end provided with a valve member for opening and closing the venting channel , and a second end provided with a collar ; a spring element for pressing the valve stem in opening direction (B) towards an opening position wherein air flow through the venting channel is allowed; and an internal retaining ring at the second end part of the valve body which is configured to form retaining surfaces preventing the collar to pass them; characterized in that the retaining ring is configured to serve as an axial support for the spring element at the second end portion ; and the retaining ring comprises radial inner surfaces facing towards the valve stem and providing transverse support for the valve stem . a first end configured to face towards an interior of the mould and a second end configured to face away from the interior of the mould; a valve body ; a venting channel passing through the valve body ; a movable valve stem arranged inside the venting channel and comprising a first end provided with a valve member for opening and closing the venting channel , and a second end provided with a collar ; a spring element for pressing the valve stem in opening direction (B) towards an opening position wherein air flow through the venting channel is allowed; and an internal retaining ring at the second end part of the valve body which is configured to form retaining surfaces preventing the collar to pass them; characterized in that the retaining ring is configured to serve as an axial support for the spring element at the second end portion ; and the retaining ring comprises radial inner surfaces facing towards the valve stem and providing transverse support for the valve stem .
A multilayered structure for stably storing DNA comprising: a negatively-charged magnetic core ; a plurality of alternating layers of DNA and of a polycationic molecule ; and silica coating , wherein the multilayered structure contains at least 1% DNA by weight and protects the DNA such that at least 50% of the DNA survives exposure to a DNA-degrading agent. a negatively-charged magnetic core ; a plurality of alternating layers of DNA and of a polycationic molecule ; and silica coating , wherein the multilayered structure contains at least 1% DNA by weight and protects the DNA such that at least 50% of the DNA survives exposure to a DNA-degrading agent.
A sugar-reduced food cream composition comprising fat, sugar and starch, characterized in that the starch is native starch having an average particle size between 20 μm and 30 μm, preferably between 22 μm and 28 μm, even more preferably between 23 μm and 26 μm, with a D90 smaller than 40 μm, preferably smaller than 36 μm, and in that the sugar-reduced food cream composition comprises 20% to 25% by weight of native starch, 35% to 40% by weight of fat and 35% to 40% by weight of sugar, relative to the total weight of the food cream composition.
Wind turbine , including a tower , a nacelle , at least a rotatable blade , the wind turbine comprising an object position and/or speed and/or size detection device installed on said wind turbine for detecting a target object in the surroundings of the tower of the wind turbine , in particular the target object being the rotatable blade , characterized in that said detection device comprises - at least one coaxial leaky cable , - at least one electromagnetic transmitter connected to the least one coaxial leaky cable for transmitting a first electromagnetic signal along the at least one coaxial leaky cable towards a target object, whose position and/or speed and/or size is to be detected, - at least one electromagnetic receiver connected to the at least one coaxial leaky cable for receiving from the at least one coaxial leaky cable a second electromagnetic signal , said second electromagnetic signal being reflected from the target object when the first electromagnetic signal hits the target object, - a processing unit connected to the electromagnetic transmitter and the electromagnetic receiver and configured to analyse said first electromagnetic signal and said second electromagnetic signal for determining the position and/or speed and/or direction and/or the size of the target object, wherein any one of the coaxial leaky cables and/or the at least one electromagnetic transmitter and/or the least one electromagnetic receiver are configured to be installed on or inside the tower of the wind turbine . - at least one coaxial leaky cable , - at least one electromagnetic transmitter connected to the least one coaxial leaky cable for transmitting a first electromagnetic signal along the at least one coaxial leaky cable towards a target object, whose position and/or speed and/or size is to be detected, - at least one electromagnetic receiver connected to the at least one coaxial leaky cable for receiving from the at least one coaxial leaky cable a second electromagnetic signal , said second electromagnetic signal being reflected from the target object when the first electromagnetic signal hits the target object, - a processing unit connected to the electromagnetic transmitter and the electromagnetic receiver and configured to analyse said first electromagnetic signal and said second electromagnetic signal for determining the position and/or speed and/or direction and/or the size of the target object,
Arrangement for the fastening of a vertical panel in a longitudinal receiving groove by transverse clamping between at least two transversely opposite wedges (34A, 34B; 42A, 42B), with the arrangement comprising: - at least one first wedge which is interposed between a first vertical face of the groove and a first face of the panel ; - at least one opposite second wedge mounted facing the first wedge of the other side of the panel , with the second wedge being interposed between a second opposite vertical face of the groove and a second opposite face of the panel , with the second wedge cooperating via vertical sliding with a second fixed ramp in order to adjust the verticality of the panel ; - at least one screw-nut assembly intended to produce a vertical translation force of the second wedge in a clamping direction between the panel and the second face of the groove ; characterised in that the screw-nut assembly is arranged on the same side of the panel as the first wedge , with the translation force being transmitted to the second wedge by the intermediary of a mobile deflection member which is interposed between a lower edge of the panel and the bottom of the groove . - at least one first wedge which is interposed between a first vertical face of the groove and a first face of the panel ; - at least one opposite second wedge mounted facing the first wedge of the other side of the panel , with the second wedge being interposed between a second opposite vertical face of the groove and a second opposite face of the panel , with the second wedge cooperating via vertical sliding with a second fixed ramp in order to adjust the verticality of the panel ; - at least one screw-nut assembly intended to produce a vertical translation force of the second wedge in a clamping direction between the panel and the second face of the groove ;
A stable extended release suspension composition comprising: (a) multiple coated cores comprising: (i) a core comprising an active ingredient; and (ii) a coating layer over said core comprising one or more release-controlling polymers; (b) a suspension base comprising an osmogent, wherein the suspension base generates a hypertonic condition such that there is no substantial change in the in-vitro dissolution release profile of the extended release suspension compositions upon storage for at least seven days. (a) multiple coated cores comprising: (i) a core comprising an active ingredient; and (ii) a coating layer over said core comprising one or more release-controlling polymers; (i) a core comprising an active ingredient; and (ii) a coating layer over said core comprising one or more release-controlling polymers; (b) a suspension base comprising an osmogent, wherein the suspension base generates a hypertonic condition such that there is no substantial change in the in-vitro dissolution release profile of the extended release suspension compositions upon storage for at least seven days.
Operating method for a crane, in particular a container crane, which has an upper load suspension point from which a load is suspended via a cable system so that the load can swing around the upper load suspension point , - wherein a control facility of the crane controls drives of the crane so that the upper load suspension point , and with it the load , are moved by the control facility in accordance with the actuation, - wherein the control facility dynamically determines an inner safety zone around the load repeatedly when moving the upper load suspension point as a function of state variables (x, v, 1, φ1, ω, vW) of the crane, - wherein the state variables (x, v, 1, φ1, ω, vW) comprise at least one position (x) of the upper load suspension point , one travel speed (v) of the upper load suspension point and one effective pendulum length of the load around the upper load suspension point , - wherein the control facility checks, on the basis of further information known from the control facility , whether an object different from the load is entering the inner safety zone , and - wherein, as soon as an object enters the inner safety zone , the control facility stops the movement of the upper load suspension point or outputs a message (M) to an operator of the crane to stop the movement of the upper load suspension point , and otherwise maintains the movement of the upper load suspension point or does not output a message (M) to the operator of the crane to stop the movement of the upper load suspension point . - wherein a control facility of the crane controls drives of the crane so that the upper load suspension point , and with it the load , are moved by the control facility in accordance with the actuation, - wherein the control facility dynamically determines an inner safety zone around the load repeatedly when moving the upper load suspension point as a function of state variables (x, v, 1, φ1, ω, vW) of the crane, - wherein the state variables (x, v, 1, φ1, ω, vW) comprise at least one position (x) of the upper load suspension point , one travel speed (v) of the upper load suspension point and one effective pendulum length of the load around the upper load suspension point , - wherein the control facility checks, on the basis of further information known from the control facility , whether an object different from the load is entering the inner safety zone , and - wherein, as soon as an object enters the inner safety zone , the control facility stops the movement of the upper load suspension point or outputs a message (M) to an operator of the crane to stop the movement of the upper load suspension point , and otherwise maintains the movement of the upper load suspension point or does not output a message (M) to the operator of the crane to stop the movement of the upper load suspension point .
Method for filling the cooling system of a polymer electrolyte membrane fuel cell having at least one first bipolar plate with cooling water, the polymer electrolyte membrane fuel cell being used to supply a submarine with energy independently of external air, where the method comprises the following steps: a) connecting a pump, where the method is carried out on board a submarine, wherein the pump is not carried on board, e) evacuating a cooling system of the polymer electrolyte membrane fuel cell to a pressure of less than 500 hPa, d) heating the polymer electrolyte membrane fuel cell to 40°C to 90°C, wherein step d) is carried out before or during step e), f) introducing gaseous water, m) filling the cooling system with cooling liquid. a) connecting a pump, where the method is carried out on board a submarine, wherein the pump is not carried on board, e) evacuating a cooling system of the polymer electrolyte membrane fuel cell to a pressure of less than 500 hPa, d) heating the polymer electrolyte membrane fuel cell to 40°C to 90°C, wherein step d) is carried out before or during step e), f) introducing gaseous water, m) filling the cooling system with cooling liquid. where the method is carried out on board a submarine, wherein the pump is not carried on board, e) evacuating a cooling system of the polymer electrolyte membrane fuel cell to a pressure of less than 500 hPa, d) heating the polymer electrolyte membrane fuel cell to 40°C to 90°C, wherein step d) is carried out before or during step e), f) introducing gaseous water, m) filling the cooling system with cooling liquid.
A non-transitory storage medium storing instructions readable and executable by an electronic processor, wherein the electronic processor performs an image reconstruction method comprising: receiving emission imaging data , which emission imaging data is one of positron emission tomography, PET, list mode imaging data or single positron emission computed tomography, SPECT, imaging data, from an image acquisition device wherein the emission imaging data has been filtered using an acquisition energy passband ; generating filtered imaging data by filtering the emission imaging data with a second energy passband that is narrower than an acquisition energy passband; reconstructing the filtered imaging data to generate an intermediate image; estimating one or more scatter correction factors, SCFs, from the intermediate image; and reconstructing the emission imaging data corrected with the estimated SCFs to generate a reconstructed image. receiving emission imaging data , which emission imaging data is one of positron emission tomography, PET, list mode imaging data or single positron emission computed tomography, SPECT, imaging data, from an image acquisition device wherein the emission imaging data has been filtered using an acquisition energy passband ; generating filtered imaging data by filtering the emission imaging data with a second energy passband that is narrower than an acquisition energy passband; reconstructing the filtered imaging data to generate an intermediate image; estimating one or more scatter correction factors, SCFs, from the intermediate image; and reconstructing the emission imaging data corrected with the estimated SCFs to generate a reconstructed image.
A sole structure for an article of footwear with an interlocking assembly, the interlocking assembly comprising: an outsole having a plurality of ribs , each rib of the plurality of ribs having a head that is connected to a base by a stem , wherein the head is at least partially hollow and includes a cavity extending partially or entirely through the head in a lateral-to-medial direction; and a midsole having a plurality of receptacles , wherein the plurality of ribs of the outsole is configured to be received within the plurality of receptacles of the midsole , whereby the outsole and the midsole are removably attached. an outsole having a plurality of ribs , each rib of the plurality of ribs having a head that is connected to a base by a stem , wherein the head is at least partially hollow and includes a cavity extending partially or entirely through the head in a lateral-to-medial direction; and a midsole having a plurality of receptacles , wherein the plurality of ribs of the outsole is configured to be received within the plurality of receptacles of the midsole , whereby the outsole and the midsole are removably attached.