mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a patient specific locally varying margin on a treatment target and / or an organ at risk in order to compensate for local intrafraction motion expected during a radiotherapy fraction to be delivered over a radiotherapy fraction time interval, wherein the patient specific locally varying margin is determined based on a displacement and / or an estimate for the displacement of at least a first location and a second location on the treatment target and / or organ at risk, wherein the method comprises steps of: - acquiring a first medical image of the treatment target and / or the organ at risk, and - acquiring a second medical image of the treatment target and / or the organ at risk, wherein the time between the acquisition of the first medical image and the second medical image is similar to the radiotherapy fraction time interval and - determining of positions of the first location and the second location in the first medical image and in the second medical image and - using the determined positions for determining the patient specific locally varying margin around the treatment target and / or organ at risk; characterised in that the first medical image is an MRI image suitable to be used for a generation of a pseudo CT image of the treatment target. - acquiring a first medical image of the treatment target and / or the organ at risk, and - acquiring a second medical image of the treatment target and / or the organ at risk, wherein the time between the acquisition of the first medical image and the second medical image is similar to the radiotherapy fraction time interval and - determining of positions of the first location and the second location in the first medical image and in the second medical image and - using the determined positions for determining the patient specific locally varying margin around the treatment target and / or organ at risk;
A biphasic injectable electrode which comprises a plurality of solid particles and a transporter phase, wherein both the solid particles and the transporter phase comprise poly(3,4-ethylenedioxythiophene)polystyrene sulfonate.
An energy storage device, comprising: a supporter having a first side and a second side opposite to each other, the supporter defining a mounting hole and a vent hole, the mounting hole being spaced apart from the vent hole in a length direction of the supporter; a pole accommodated in the mounting hole; a stimulus-response member disposed at the second side, wherein the vent hole enables gas from the first side to flow through to the stimulus-response member; a connector (50, 95) disposed at the first side, the connector (50, 95) comprising a first connecting part and a second connecting part, wherein the first connecting part is connected to the pole, the first connecting part is connected to the second connecting part, the first connecting part is opposite to the second connecting part when the first connecting part is folded relative to the second connecting part, the first connecting part is connected to the pole, the second connecting part extends toward the vent hole, and the second connecting part partially shields the vent hole in a thickness direction of the supporter; and an electrode assembly having a tab (21, 22), the tab (21, 22) being connected to the second connecting part, wherein, in the thickness direction of the supporter, a ratio of an area of a portion of the vent hole not shielded by the second connecting part to an area of a portion of the vent hole shielded by the second connecting part ranges from 1/10 to 1/2. a supporter having a first side and a second side opposite to each other, the supporter defining a mounting hole and a vent hole, the mounting hole being spaced apart from the vent hole in a length direction of the supporter; a pole accommodated in the mounting hole; a stimulus-response member disposed at the second side, wherein the vent hole enables gas from the first side to flow through to the stimulus-response member; a connector (50, 95) disposed at the first side, the connector (50, 95) comprising a first connecting part and a second connecting part, wherein the first connecting part is connected to the pole, the first connecting part is connected to the second connecting part, the first connecting part is opposite to the second connecting part when the first connecting part is folded relative to the second connecting part, the first connecting part is connected to the pole, the second connecting part extends toward the vent hole, and the second connecting part partially shields the vent hole in a thickness direction of the supporter; and an electrode assembly having a tab (21, 22), the tab (21, 22) being connected to the second connecting part, wherein, in the thickness direction of the supporter, a ratio of an area of a portion of the vent hole not shielded by the second connecting part to an area of a portion of the vent hole shielded by the second connecting part ranges from 1/10 to 1/2.
A writing implement configured to dispense material onto a work surface, the writing implement comprising: a body including a first end, a second end, and an inner surface; a nib coupled to the first end, the nib configured to allow the material to be dispensed onto the work surface; an absorbent porous end cap coupled to the second end and configured to allow ambient air to pass through the absorbent porous end cap; and a piston coupled to the body, the piston and the inner surface defining a cavity configured to hold the material, the piston moveable relative to the body in response to a temperature change that changes a pressure within the cavity, wherein the piston is coupled within the body, the piston having a first surface that faces the first end and a second surface that faces the second end, and wherein the cavity is configured to hold the material between the first surface and the nib, and wherein the piston includes a groove positioned between the first surface and the second surface, and wherein the groove is sized to receive a seal, and wherein at least one of the piston and the seal slidably engages the inner surface of the body. a body including a first end, a second end, and an inner surface; a nib coupled to the first end, the nib configured to allow the material to be dispensed onto the work surface; an absorbent porous end cap coupled to the second end and configured to allow ambient air to pass through the absorbent porous end cap; and a piston coupled to the body, the piston and the inner surface defining a cavity configured to hold the material, the piston moveable relative to the body in response to a temperature change that changes a pressure within the cavity, wherein the piston is coupled within the body, the piston having a first surface that faces the first end and a second surface that faces the second end, and wherein the cavity is configured to hold the material between the first surface and the nib, and wherein the piston includes a groove positioned between the first surface and the second surface, and wherein the groove is sized to receive a seal, and wherein at least one of the piston and the seal slidably engages the inner surface of the body.
Three-dimensional magnet structure formed of a plurality of single magnets, the magnet structure having a thickness forming the smallest dimension thereof, the magnet structure integrating at least one meshwork having meshes each delimiting a housing for a respective single magnet, each housing having inner dimensions just sufficient for allowing an introduction of a single magnet therein, the meshes being made of fibre-reinforced insulating material, characterised in that a space is left between the housing and the single magnet filled at least by a fibre-reinforced resin, the magnet structure including a non-conductive composite layer coating the single magnets and the meshwork.
A capacitor block comprising: - a plurality of electrolytic capacitors arranged in at least one row, each capacitor comprising a support protruding from a casing of the capacitor in a direction radially outwards relative to a center axis of the capacitor, - a capacitor holder, - wherein each capacitor is mechanically connected to the capacitor holder via the support, and - wherein between at least two capacitors a fluid channel is arranged in each row wherein the capacitor holder comprises wall elements and spacers which are attached to the wall elements, characterized in that said wall elements and spacers are arranged such as to form a part of the fluid channel. - a plurality of electrolytic capacitors arranged in at least one row, each capacitor comprising a support protruding from a casing of the capacitor in a direction radially outwards relative to a center axis of the capacitor, - a capacitor holder, - wherein each capacitor is mechanically connected to the capacitor holder via the support, and - wherein between at least two capacitors a fluid channel is arranged in each row wherein the capacitor holder comprises wall elements and spacers which are attached to the wall elements, characterized in that said wall elements and spacers are arranged such as to form a part of the fluid channel.
A sealing apparatus comprising: a resilient clamp adapted to be mounted to a first support surface and defining a cavity having a closed end and an open end, the clamp including a first wall having first inner sealing surface and a second wall having a second opposed inner sealing surface, the first and second walls (22,26) joined at the closed end; and a sealing member including a plurality of layered finger seals (30,32), the sealing member having a leg portion (42,48), a back portion (40, 46), an upper turned portion and a lower turned portion, the upper and lower turned portions (38,44) extending in opposing directions and each biased against one of the inner sealing surfaces (24,28) of the resilient clamp, wherein the leg portion (42,48) is disposed generally perpendicular to the back portion (40,46). a resilient clamp adapted to be mounted to a first support surface and defining a cavity having a closed end and an open end, the clamp including a first wall having first inner sealing surface and a second wall having a second opposed inner sealing surface, the first and second walls (22,26) joined at the closed end; and a sealing member including a plurality of layered finger seals (30,32), the sealing member having a leg portion (42,48), a back portion (40, 46), an upper turned portion and a lower turned portion, the upper and lower turned portions (38,44) extending in opposing directions and each biased against one of the inner sealing surfaces (24,28) of the resilient clamp, wherein the leg portion (42,48) is disposed generally perpendicular to the back portion (40,46).
A downhole transfer system for transferring data through a well tubular metal structure arranged in a borehole of a well, comprising: - a well tubular metal structure having an axial direction and being arranged in the borehole, providing an annulus between the borehole and the well tubular metal structure, - a transceiver assembly comprising: - a tubular metal part mounted as part of the well tubular metal structure, the tubular metal part having an inner face, an outer face, and a wall, - an assembly conductive winding made from a conductor connected with the inner face, - a power-consuming device, such as a sensor, arranged in the annulus and connected with the outer face, and the power-consuming device is connected to the assembly conductive winding by means of an electrical conductor, and - a downhole tool comprising a tool body, a tool body outer face, and a tool conductive winding made from a conductor, characterized in that the conductor of the assembly conductive winding has a cross-sectional shape having an axial extension along the axial direction and a radial extension perpendicular to the axial extension, the axial extension being at least 50% larger than the radial extension. - a well tubular metal structure having an axial direction and being arranged in the borehole, providing an annulus between the borehole and the well tubular metal structure, - a transceiver assembly comprising: - a tubular metal part mounted as part of the well tubular metal structure, the tubular metal part having an inner face, an outer face, and a wall, - an assembly conductive winding made from a conductor connected with the inner face, - a power-consuming device, such as a sensor, arranged in the annulus and connected with the outer face, and the power-consuming device is connected to the assembly conductive winding by means of an electrical conductor, and - a tubular metal part mounted as part of the well tubular metal structure, the tubular metal part having an inner face, an outer face, and a wall, - an assembly conductive winding made from a conductor connected with the inner face, - a power-consuming device, such as a sensor, arranged in the annulus and connected with the outer face, and the power-consuming device is connected to the assembly conductive winding by means of an electrical conductor, and - a downhole tool comprising a tool body, a tool body outer face, and a tool conductive winding made from a conductor,
A system including:- a fixed body; a bearing member positioned in a formation in the fixed body, the bearing member including an inner race, an outer race and a plurality of moveable bearing parts positioned therebetween, wherein the outer race includes a recess; and a bearing holding device for holding the bearing member relative to the fixed body, the bearing holding device including: an engagement formation on a first part of the device being engaged with a corresponding formation on the fixed body so as to hold the first part relative to the fixed body, and a receiving formation for receiving and slidably supporting a generally elongate second part, wherein a first end of the second part of the device is positioned in the recess in the outer race of the bearing member so as to hold the bearing member relative to the fixed body, and wherein a second, opposite, end of the second part supports an abutment member which prevents the first and second parts from separating from each other, wherein the device includes biasing means for biasing the first end of the second part away from the first part. a fixed body; a bearing member positioned in a formation in the fixed body, the bearing member including an inner race, an outer race and a plurality of moveable bearing parts positioned therebetween, wherein the outer race includes a recess; and a bearing holding device for holding the bearing member relative to the fixed body, the bearing holding device including: an engagement formation on a first part of the device being engaged with a corresponding formation on the fixed body so as to hold the first part relative to the fixed body, and a receiving formation for receiving and slidably supporting a generally elongate second part, wherein a first end of the second part of the device is positioned in the recess in the outer race of the bearing member so as to hold the bearing member relative to the fixed body, and wherein a second, opposite, end of the second part supports an abutment member which prevents the first and second parts from separating from each other, wherein the device includes biasing means for biasing the first end of the second part away from the first part. an engagement formation on a first part of the device being engaged with a corresponding formation on the fixed body so as to hold the first part relative to the fixed body, and a receiving formation for receiving and slidably supporting a generally elongate second part, wherein a first end of the second part of the device is positioned in the recess in the outer race of the bearing member so as to hold the bearing member relative to the fixed body, and wherein a second, opposite, end of the second part supports an abutment member which prevents the first and second parts from separating from each other, wherein the device includes biasing means for biasing the first end of the second part away from the first part.
An implantable medical device, comprising: a first physiological sensor for sensing a first physiological signal corresponding to a first physiological event; a detection module for detecting a plurality of the first physiological events belonging to a first generic category for a type of cardiac arrhythmia in response to the first physiological signal exceeding a first threshold for said category; a control module configured to determine, in response to the detection module detecting at least one of the plurality of the first physiological events, a category metric for said first generic category, based on the detected first physiologic event(s), and comparing said metric with a second, trigger threshold for said first generic category, the second threshold being different than the first threshold, and in response to the metric meeting the second threshold to enable detailed monitoring of next ones of the detected plurality of the first physiological events; and wherein the first physiological event corresponds to a first event category comprising a plurality of first physiological event types, and the detailed monitoring comprises monitoring the plurality of the first physiological event types. a first physiological sensor for sensing a first physiological signal corresponding to a first physiological event; a detection module for detecting a plurality of the first physiological events belonging to a first generic category for a type of cardiac arrhythmia in response to the first physiological signal exceeding a first threshold for said category; a control module configured to determine, in response to the detection module detecting at least one of the plurality of the first physiological events, a category metric for said first generic category, based on the detected first physiologic event(s), and comparing said metric with a second, trigger threshold for said first generic category, the second threshold being different than the first threshold, and in response to the metric meeting the second threshold to enable detailed monitoring of next ones of the detected plurality of the first physiological events; and wherein the first physiological event corresponds to a first event category comprising a plurality of first physiological event types, and the detailed monitoring comprises monitoring the plurality of the first physiological event types.
A hammer for a Charpy pendulum, comprising a body including a head and an arm, wherein the arm is equipped with an attachment portion at an end opposite to that of the head and wherein the head has a general C-shape, with a concave part situated in which is an area of impact, said hammer being characterized in that the arm and the head of said body are obtained in a monolithic form by means of perimetral cutting of a plane plate, the body having two parallel faces and a uniform thickness.
A method for making a gas separator for use in electrochemical conversion processes, the method comprising: - one of the steps: ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is one of zirconia fibers, barium sulphate fibers, wollastonite fibers, and a combination thereof, into a solution and a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; or ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is barium sulphate fibers, into a solution ad a metal oxid and/or a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; - forming a sheet by spreading the casting suspension on an inert surface; and - extracting the solvent from the sheet wherein the solvent is removed to form the gas separator. - one of the steps: ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is one of zirconia fibers, barium sulphate fibers, wollastonite fibers, and a combination thereof, into a solution and a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; or ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is barium sulphate fibers, into a solution ad a metal oxid and/or a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is one of zirconia fibers, barium sulphate fibers, wollastonite fibers, and a combination thereof, into a solution and a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; or ∘ preparing a casting suspension by mixing an inorganic fiber, wherein the inorganic fiber is barium sulphate fibers, into a solution ad a metal oxid and/or a metal hydroxide is added to the solution, wherein the solution comprises an organic binding material as a solute and a solvent for the solute; - forming a sheet by spreading the casting suspension on an inert surface; and - extracting the solvent from the sheet wherein the solvent is removed to form the gas separator.
A light guide plate having a first operation state and a second operation state; wherein in the first operation state, an upper surface of the light guide plate is a surface where light comes out; in the second operation state, the upper surface of the light guide plate comprises a light exiting region and a non-light exiting region; wherein the light guide plate comprises a first electrophoresis film, characterized in that the first electrophoresis film is arranged in the light guide plate at a sectional interface of the light guide plate between the light exiting region and the non-light exiting region; wherein the first electrophoresis film, under the control of a first voltage, is transmittable by light, and the light guide plate operates in the first operation state; and wherein the first electrophoresis film, under the control of a second voltage, reflects the light, and the light guide plate operates in the second operation state; wherein the first electrophoresis film is perpendicular to the upper surface, and the light exiting region and the non-light exiting region are located respectively at two sides of the first electrophoresis film.
A method for controlling an active time, comprising: receiving (301, 401, 501, 601, 701, 801, 901, 1001), by a terminal, an indication signal sent by an access network device within a discontinuous reception, DRX, active time; and characterised by determining, based on in-device coexistence, IDC, related information of the terminal, whether to extend the DRX active time after receiving the indication signal. receiving (301, 401, 501, 601, 701, 801, 901, 1001), by a terminal, an indication signal sent by an access network device within a discontinuous reception, DRX, active time; and characterised by determining, based on in-device coexistence, IDC, related information of the terminal, whether to extend the DRX active time after receiving the indication signal.