mhurhangee/patent-ind-claim-en huggingface dataset:
A metamaterial manufacturing method, the manufacturing method comprises the following steps: (a) separately adding insulating substrate powder and at least one of wave absorbing agent powder and metal electrode powder to thermoplastic resin, and mixing them evenly to obtain a raw material; (b) applying a coextrusion process to the raw material according to a metamaterial microstructure design, to form a microstructure unit rodlike material; and (c) configuring the microstructure unit rodlike material in a cyclic microstructure configuration manner, placing the material in an extruder, and obtaining a cyclically configured metamaterial microstructure through coextrusion by using the extruder; a ratio of a mass sum of the absorbent powder, the metal electrode powder, and the insulating substrate powder to mass of the thermoplastic resin is 0.3 to 0.4; a ratio of a mass sum of the absorbent powder and the metal electrode powder to the insulating substrate powder is 1:4 to 4:1. (a) separately adding insulating substrate powder and at least one of wave absorbing agent powder and metal electrode powder to thermoplastic resin, and mixing them evenly to obtain a raw material; (b) applying a coextrusion process to the raw material according to a metamaterial microstructure design, to form a microstructure unit rodlike material; and (c) configuring the microstructure unit rodlike material in a cyclic microstructure configuration manner, placing the material in an extruder, and obtaining a cyclically configured metamaterial microstructure through coextrusion by using the extruder; a ratio of a mass sum of the absorbent powder, the metal electrode powder, and the insulating substrate powder to mass of the thermoplastic resin is 0.3 to 0.4; a ratio of a mass sum of the absorbent powder and the metal electrode powder to the insulating substrate powder is 1:4 to 4:1.
A wind power installation rotor blade for fixing to a rotor hub and having a rotor blade longitudinal axis, including - a rotor blade inner part towards the rotor hub , and - a rotor blade outer part away from the rotor hub, wherein the rotor blade inner part and the rotor blade outer part are connected together by means of at least one connecting device and the connecting device includes - at least one anchoring element anchored in the rotor blade outer part , - at least one counterpart element anchored in the rotor blade inner part , and - at least one connecting bolt which extends through the counterpart element and is fixed in or to the anchoring element , wherein the rotor blade outer part in the region of the anchoring element and the rotor blade inner part in the region of the counterpart element respectively have an anchoring region with increased material thickness of a rotor blade shell, and wherein provided in the anchoring region for each connecting device is a longitudinal bore extending substantially parallel to the rotor blade longitudinal axis or parallel to a rotor blade surface , wherein - the longitudinal bore in the rotor blade outer part extends from an abutment surface for fitment to the rotor blade inner part to a transverse bore for receiving the anchoring elements so that the connecting bolt can extend from the abutment surface to the anchoring bolt element , and - the longitudinal bore in the rotor blade outer part extends from an abutment surface for fitment to the rotor blade outer part completely through the anchoring region to end in an inner region of the rotor blade inner part in which the material thickness is so thin that the bore emerges completely from the anchoring region so that the connecting bolt can extend from the abutment surface into the inner region. - a rotor blade inner part towards the rotor hub , and - a rotor blade outer part away from the rotor hub, - at least one anchoring element anchored in the rotor blade outer part , - at least one counterpart element anchored in the rotor blade inner part , and - at least one connecting bolt which extends through the counterpart element and is fixed in or to the anchoring element , wherein - the longitudinal bore in the rotor blade outer part extends from an abutment surface for fitment to the rotor blade inner part to a transverse bore for receiving the anchoring elements so that the connecting bolt can extend from the abutment surface to the anchoring bolt element , and - the longitudinal bore in the rotor blade outer part extends from an abutment surface for fitment to the rotor blade outer part completely through the anchoring region to end in an inner region of the rotor blade inner part in which the material thickness is so thin that the bore emerges completely from the anchoring region so that the connecting bolt can extend from the abutment surface into the inner region.
Pickup for stringed instruments, consisting of a housing , arranged on the body of the instrument below the strings , in which at least one magnet that is surrounded by a coil and creates a magnetic field is arranged, wherein the coil is electrically connected to at least one amplifier (V) and at least one loudspeaker (L) and wherein current is induced in the coil by moving the strings in the magnetic field, that the pickup has at least one device for changing the magnetic field of the magnet , by means of which device the magnetic field and thus the sound characteristics of the instrument are changed, characterised in that the housing is provided with a cover consisting of electrically conductive material, which, to control the attenuation, is designed as a device facing the strings of the instrument for continuous adjustment of the open position.
A method comprising: forming, by a user equipment, a session establishment message including an indication of at least one session management capability supported by the user equipment; sending, by the user equipment, the session establishment message including the indication towards a session management function ; and receiving, by the user equipment and from the session management function, a response indicative of whether the session management function and/or a corresponding network supports the at least one session management capability to enable the user equipment to operate in accordance with the at least one session management capability . forming, by a user equipment, a session establishment message including an indication of at least one session management capability supported by the user equipment; sending, by the user equipment, the session establishment message including the indication towards a session management function ; and receiving, by the user equipment and from the session management function, a response indicative of whether the session management function and/or a corresponding network supports the at least one session management capability to enable the user equipment to operate in accordance with the at least one session management capability .
A road characterization method, comprising: acquiring (S11) a target road having multiple lanes for travel in a certain direction, wherein the target road comprises one or more road segments; dividing (S12) the road segments according to road segment attribute information defining for each of the road segments locations where it is feasible to make a lane change between adjacent ones of the lanes, into one or more atomic lanes, each atomic lane of each corresponding road segment being a portion of one lane of the road segment for which at any point the feasibility of making a lane change to an adjacent lane is the same; determining (S13) lane association information related to the atomic lanes corresponding to the target road, wherein the one or more atomic lanes and the lane association information are used for characterizing the target road; constructing (S14), according to the one or more atomic lanes and the lane association information, a directed graph corresponding to the target road, wherein each vertex in the directed graph corresponds to one of the atomic lanes, and wherein a directed edge between two vertices in the directed graph corresponds to the lane association information related to the two atomic lanes; characterised in that in the case of a target road including a roundabout having entrances and exits and circular lanes, the method includes forming atomic lanes for the roundabout by cutting the circular lanes of the roundabout at extension lines of entrance and exit road segments connected respectively to the entrances and exits of the roundabout. acquiring (S11) a target road having multiple lanes for travel in a certain direction, wherein the target road comprises one or more road segments; dividing (S12) the road segments according to road segment attribute information defining for each of the road segments locations where it is feasible to make a lane change between adjacent ones of the lanes, into one or more atomic lanes, each atomic lane of each corresponding road segment being a portion of one lane of the road segment for which at any point the feasibility of making a lane change to an adjacent lane is the same; determining (S13) lane association information related to the atomic lanes corresponding to the target road, wherein the one or more atomic lanes and the lane association information are used for characterizing the target road; constructing (S14), according to the one or more atomic lanes and the lane association information, a directed graph corresponding to the target road, wherein each vertex in the directed graph corresponds to one of the atomic lanes, and wherein a directed edge between two vertices in the directed graph corresponds to the lane association information related to the two atomic lanes; characterised in that in the case of a target road including a roundabout having entrances and exits and circular lanes, the method includes forming atomic lanes for the roundabout by cutting the circular lanes of the roundabout at extension lines of entrance and exit road segments connected respectively to the entrances and exits of the roundabout.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising a lithium salt, an organic solvent, and a compound represented by Formula 1 as an additive: wherein, in Formula 1, R 1 to R 6 are each independently hydrogen or a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, and R 7 is a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms. R 1 to R 6 are each independently hydrogen or a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, and R 7 is a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms.
A connection for tubes comprising an inner tube coaxial to an axis (A) and configured for an operating fluid of a conditioning system to flow inside it, an outer tube coaxial to said inner tube for a coolant fluid for said operating fluid to flow between said inner and outer tubes, and a coolant fluid circulation tube , said outer tube comprising an inlet for the coolant fluid circulation tube , which is a tube of passage of said coolant fluid, said coolant fluid circulation tube being coupled with said inlet and being welded within said inlet , wherein the axis of said coolant fluid circulation tube is inclined by an angle (α) with respect to said axis (A) and with respect to a vertical axis perpendicular to said axis (A) and wherein said inlet is obtained in a projection radial with respect to said axis (A), characterized in that said coolant fluid circulation tube , said outer tube and said inner tube are welded to each other by means of a single welding.
A bandage for use with a surgical incision on the skin of an animal or a human, characterized in that it comprises one or more stabilizing-and-pressure-absorbing- and-pressure-distributing element/s to be placed on the skin outside the incision , whereby said one or more element/s is/are provided with adhesive means; and wherein the bandage further comprises a skin-contacting layer , being attached to the skin-facing side of the one or more element/s , which is to be applied onto the incision , whereby the skin-contacting layer is large enough to cover some area outside the incision ; and wherein the skin-contacting layer is transparent and is adhesive on its skin-facing side; and wherein the one or more elements is/are absorbents for water and blood components.
A device for curing pipeline inner resin linings with the use of an elastic lining sleeve soaked with a resin curable with electromagnetic radiation, said device comprising a metallic body which is equipped with thermally conducting plates in which LEDs are mounted generating electromagnetic radiation with wavelengths within the range 200-900 nm to cure the resin means of the sleeve on an inner surface of the pipeline, said device being equipped with at least one radiator carrying away heat characterised in that the outer surface of the at least one radiator is provided with grooves for carrying away the heat directly to a coolant transparent to UV radiation surrounding the at least one radiator, the metallic body is a monolithic having an inner sleeve-shaped portion with evenly, circumferentially distributed flat facets and provided, on its rear end, with a two-step indentation evolving further a rear profiled portion in the form of a spherical cap segment .
Attachment device for attaching a front panel of a drawer to a frame , wherein the attachment device has a holding element which can be arranged on the front panel side and a catch device which can be arranged on the frame side and has a catch element mounted on a base element so as to be pivotable about an axis of rotation, which can be loaded with force by a force accumulator and can be moved back and forth between a release position and a catch position, wherein the catch element is designed, in the catch position, to hold the holding element on the frame, wherein the catch element is locked in the catch position by means of a local displacement of the axis of rotation of the catch element , wherein in order to displace the axis of rotation of the catch element , a linear displacement of an axle section is effected, which is pivotably mounted in or with the catch element , characterized in that the displacement of the axis of rotation is defined by a guide cam and at least one slotted link of the base element , wherein the respective guide cam is in extension of of the axle section .
A refrigeration apparatus , comprising: a housing that surrounds a refrigeration chamber where a refrigeration target is stored; and a negative pressure release port that includes a cylindrical body attached to the housing so as to protrude into the refrigeration chamber , a heating element provided in the cylindrical body , and a rib joining the cylindrical body and the heating element , wherein the rib is placed at a position across an inner surface of the housing , characterized in that the rib is placed so that 50% or more of a length of a portion where the rib is joined to the cylindrical body is located outside of the inner surface of the housing . a housing that surrounds a refrigeration chamber where a refrigeration target is stored; and a negative pressure release port that includes a cylindrical body attached to the housing so as to protrude into the refrigeration chamber , a heating element provided in the cylindrical body , and a rib joining the cylindrical body and the heating element , wherein the rib is placed at a position across an inner surface of the housing , characterized in that the rib is placed so that 50% or more of a length of a portion where the rib is joined to the cylindrical body is located outside of the inner surface of the housing .
A voice disorder treatment tool comprising: a plurality of clamping sections each provided with a front surface piece configured to be disposed on a front surface of incised thyroid cartilage and a rear surface piece configured to be disposed on a rear surface of the thyroid cartilage, and configured to fit to cut ends of the incised thyroid cartilage facing each other; and a bridging section that connects the plurality of clamping sections; the front surface piece comprising a bending region deformable about a virtual line (K) extending in a width direction (y) of the front surface piece; the bending region comprising a hole that is configured to allow a suture thread to be inserted therethrough; characterised by : the bending region having a reinforcing structure (S); and wherein the reinforcing structure is configured by forming the hole into a long hole extending in a direction that intersects in the width direction. a plurality of clamping sections each provided with a front surface piece configured to be disposed on a front surface of incised thyroid cartilage and a rear surface piece configured to be disposed on a rear surface of the thyroid cartilage, and configured to fit to cut ends of the incised thyroid cartilage facing each other; and a bridging section that connects the plurality of clamping sections; the front surface piece comprising a bending region deformable about a virtual line (K) extending in a width direction (y) of the front surface piece; the bending region comprising a hole that is configured to allow a suture thread to be inserted therethrough; characterised by : the bending region having a reinforcing structure (S); and wherein the reinforcing structure is configured by forming the hole into a long hole extending in a direction that intersects in the width direction. the bending region having a reinforcing structure (S); and wherein the reinforcing structure is configured by forming the hole into a long hole extending in a direction that intersects in the width direction.
Crystalline methylthioninium chloride dihydrate as Form D having the following characteristic peaks in a powder X-ray diffraction pattern: Peak 2θ values (± 0.1°) 1 7.0 2 8.5 3 12.0 4 14.4 5 25.3 6 25.7 7 27.5
An extruder comprising a housing having a flow channel for a melt and a perforated plate delimiting the flow channel on the outlet side, wherein the perforated plate has at least two through-flow areas spaced apart from one another and each through-flow area comprises at least one through-flow opening, and the perforated plate is furthermore mounted in a changing device, wherein the changing device has guide elements , in which the perforated plate can be moved substantially perpendicularly to the flow channel , wherein the extruder, directly ahead of the perforated plate when viewed in the direction of flow of the melt, has an inlet flow cone , which is structurally separate from the perforated plate, thus allowing the through-flow areas of the perforated plate to be moved relative to the inlet flow cone .
A substrate for sample analysis on which transfer of a liquid is to occur with rotational motion, the substrate for sample analysis comprising: a substrate having a rotation axis ; a first chamber being located in the substrate and having a first space for retaining a liquid and magnetic particles; a second chamber being located in the substrate and having a second space for retaining the liquid to be discharged from the first chamber; a channel being located in the substrate and having a path connecting the first chamber and the second chamber; and a magnet being located in the substrate and near the first space in the substrate for capturing the magnetic particles in the first chamber, wherein the substrate has at least one inner surface defining the first space in the substrate ; and the at least one inner surface includes a side face portion that is the farthest from the rotation axis , and the magnet is located near the side face portion of the at least one surface, characterized in that the magnet is more distant from the rotation axis than is the side face portion . a substrate having a rotation axis ; a first chamber being located in the substrate and having a first space for retaining a liquid and magnetic particles; a second chamber being located in the substrate and having a second space for retaining the liquid to be discharged from the first chamber; a channel being located in the substrate and having a path connecting the first chamber and the second chamber; and a magnet being located in the substrate and near the first space in the substrate for capturing the magnetic particles in the first chamber, wherein the substrate has at least one inner surface defining the first space in the substrate ; and the at least one inner surface includes a side face portion that is the farthest from the rotation axis , and the magnet is located near the side face portion of the at least one surface, characterized in that the magnet is more distant from the rotation axis than is the side face portion .
A rotor blade for a wind turbine comprising a body part attachable to a rotor hub of the wind turbine and a tip part , the body part and the tip part are attachable to each other, wherein the tip part is hollow and made of heat conductive material; heat providing means configured to provide heat towards the tip part of the rotor blade in order to de-ice and/or anti-ice outer surfaces of the body part and the tip part ; wherein the heat conductive material for the tip part is aluminum, aircraft aluminum, copper or carbon fiber.
Method for operating a motor vehicle, the motor vehicle having a drive unit which is configured in such a way that, in the case of an acceleration, the motor vehicle is accelerated with a stepless torque output, it being provided according to the method that the drive unit can be operated in a first and second operating mode, the motor vehicle being accelerated without interruption by means of the stepless torque output in the first operating mode, and the stepless torque output being changed over into a stepped torque output in the second operating mode, with the result that the motor vehicle is accelerated with interruptions by means of the stepped torque output in the second operating mode, characterized in that the torque output with interruptions can be said with regard to the number (n) of interruptions in the second operating mode.