mhurhangee/patent-ind-claim-en huggingface dataset:
A battery storage system , comprising: a battery compartment accommodating a plurality of battery cells ; an electrical component compartment accommodating electrical components electrically connectable with the battery cells ; a disconnector for electrically connecting the electrical components to the battery cells and for electrically disconnecting the electrical components from the battery cells ; wherein the disconnector comprises at least three mechanical switches , which are coupled with each other to be switched simultaneously; wherein the battery cells are connected in a first group and a second group of battery cells , which are galvanically separated in the battery compartment ; wherein the electrical component compartment accommodates an intermediate line for electrically connecting the first group with the second group ; wherein one of the mechanical switches is connected between a first input of the first group and the intermediate line ; wherein one of the mechanical switches is connected between a second input of the second group and the intermediate line . a battery compartment accommodating a plurality of battery cells ; an electrical component compartment accommodating electrical components electrically connectable with the battery cells ; a disconnector for electrically connecting the electrical components to the battery cells and for electrically disconnecting the electrical components from the battery cells ; wherein the disconnector comprises at least three mechanical switches , which are coupled with each other to be switched simultaneously; wherein the battery cells are connected in a first group and a second group of battery cells , which are galvanically separated in the battery compartment ; wherein the electrical component compartment accommodates an intermediate line for electrically connecting the first group with the second group ; wherein one of the mechanical switches is connected between a first input of the first group and the intermediate line ; wherein one of the mechanical switches is connected between a second input of the second group and the intermediate line .
Method for the layer-by-layer construction of a multi-layer or multi-ply polymer body, comprising a strength member, a polymeric base material and at least one sheet material, wherein the components are applied layer by layer to a cylindrically shaped tool , wherein a cutting unit having a cutting bar and having a blade which is linearly movable along the cutting bar extends in an axial direction over the width of the tool in the region of an outer partial circumference of the tool , wherein the method comprises at least the following steps: - rotating the cylindrically shaped tool in a circumferential direction (U) about a concentric axis, - placing the strength member around the tool , - applying the polymeric base material around the rotating tool so as to form a joint, - applying the sheet material around the rotating tool , - moving the blade linearly along the cutting bar , such that the sheet material guided over the cutting bar is severed so as to form a joint , characterized in that , during the movement of the blade , the cutting unit is located with a centring wedge in positively locking engagement with at least one tooth recess of a radially internally situated toothing of the tool , such that the cutting unit is positioned relative to the tool . wherein the components are applied layer by layer to a cylindrically shaped tool , wherein a cutting unit having a cutting bar and having a blade which is linearly movable along the cutting bar extends in an axial direction over the width of the tool in the region of an outer partial circumference of the tool , wherein the method comprises at least the following steps: - rotating the cylindrically shaped tool in a circumferential direction (U) about a concentric axis, - placing the strength member around the tool , - applying the polymeric base material around the rotating tool so as to form a joint, - applying the sheet material around the rotating tool , - moving the blade linearly along the cutting bar , such that the sheet material guided over the cutting bar is severed so as to form a joint , - rotating the cylindrically shaped tool in a circumferential direction (U) about a concentric axis, - placing the strength member around the tool , - applying the polymeric base material around the rotating tool so as to form a joint, - applying the sheet material around the rotating tool , - moving the blade linearly along the cutting bar , such that the sheet material guided over the cutting bar is severed so as to form a joint , characterized in that , during the movement of the blade , the cutting unit is located with a centring wedge in positively locking engagement with at least one tooth recess of a radially internally situated toothing of the tool , such that the cutting unit is positioned relative to the tool .
A method for producing a foamed extrudate, comprising a main melting device and an auxiliary melting device , wherein a first melt is generated in the main melting device , wherein a second melt is generated in the auxiliary melting device from a meltable starting material , wherein at least one reactive additive is added to the meltable starting material the at least one reactive additive being selected from the group consisting of a chemical blowing agent and an active nucleating agent, or the reactive additive is contained in the meltable starting material , wherein the meltable starting material and the reactive additive are melted in the auxiliary melting device to form the second melt , so that an additive-containing second melt containing the reactive additive is obtained in the auxiliary melting device , which is added to the first melt produced in the main melting device .
A three-dimensional shaping device, comprising: a melting unit configured to plasticize a material into a shaping material; a nozzle configured to discharge the shaping material toward a stage ; a moving mechanism configured to change a relative position between the nozzle and the stage ; a control unit configured to control the moving mechanism ; and an air blowing unit having a plurality of air outlets that are disposed around the nozzle and through which warm air is blown toward the shaping material discharged from the nozzle ; and wherein the melting unit includes: a flat screw having a groove forming surface on which a groove to which the material is supplied is formed; a barrel having a facing surface that faces the groove forming surface , and provided with a communication hole that communicates the facing surface and the nozzle , a first heating unit configured to heat the barrel is further provided; and the three-dimensional shaping device further comprises: a warm air supply flow path configured to supply the warm air to the air blowing unit , characterised in that the first heating unit heats the barrel and the warm air supply flow path . a melting unit configured to plasticize a material into a shaping material; a nozzle configured to discharge the shaping material toward a stage ; a moving mechanism configured to change a relative position between the nozzle and the stage ; a control unit configured to control the moving mechanism ; and an air blowing unit having a plurality of air outlets that are disposed around the nozzle and through which warm air is blown toward the shaping material discharged from the nozzle ; and wherein the melting unit includes: a flat screw having a groove forming surface on which a groove to which the material is supplied is formed; a barrel having a facing surface that faces the groove forming surface , and provided with a communication hole that communicates the facing surface and the nozzle , a flat screw having a groove forming surface on which a groove to which the material is supplied is formed; a barrel having a facing surface that faces the groove forming surface , and provided with a communication hole that communicates the facing surface and the nozzle , a first heating unit configured to heat the barrel is further provided; and a warm air supply flow path configured to supply the warm air to the air blowing unit , characterised in that the first heating unit heats the barrel and the warm air supply flow path .
Device for quality inspection of a document-type test specimen , wherein the device comprises at least one transport apparatus and a first testing apparatus , wherein the transport apparatus has a resting surface for the test specimen , wherein the resting surface can be positioned by a rotation about an axis of rotation (R) into a first spatial position and into at least one further spatial position, wherein a test specimen arranged on the resting surface in the first spatial position is arranged in a detection range (EB) of the first testing apparatus , characterised in that the device comprises at least one further testing apparatus , wherein a test specimen arranged on the resting surface in the further spatial position is arranged in a detection range (EB) of the further testing apparatus , wherein the transport apparatus is configured as a hollow body or comprises a hollow body.
A video source access method, comprising: acquiring (S101) an address identifier of a video source supporting a certain format, wherein the video source comprises video data in a format carrying a timestamp; acquiring (S102), based on the address identifier, the video data in an ascending order of the timestamp carried in the video data; converting (S103) the video data from the format into a preset common video format to obtain the video data in the common video format; and inputting (S104) the video data in the common video format to a service device to achieve an access to the video source, wherein the service device is configured to store and manage the video data in the common video format, and provide, when a content distribution network server receives a video request from a user, the video data in the common video format to the user via the content distribution network server. acquiring (S101) an address identifier of a video source supporting a certain format, wherein the video source comprises video data in a format carrying a timestamp; acquiring (S102), based on the address identifier, the video data in an ascending order of the timestamp carried in the video data; converting (S103) the video data from the format into a preset common video format to obtain the video data in the common video format; and inputting (S104) the video data in the common video format to a service device to achieve an access to the video source, wherein the service device is configured to store and manage the video data in the common video format, and provide, when a content distribution network server receives a video request from a user, the video data in the common video format to the user via the content distribution network server.
An information processing device comprising a least one processor configured to: control output of a tactile stimulus to at least two tactile stimulus units, and change the output of the tactile stimulus unit in accordance with the predetermined positional information and information regarding tactile output related to the positional information, and wherein the predetermined positional information is positional information on a body of a user and comprises a position located between the at least two tactile stimulus units, and wherein the at least two tactile stimulus units are respectively configured to be located at a first position on a first surface of the body of a user and a second position on a second surface of the body of the user, wherein the first surface is opposite the second surface, and wherein the predetermined positional information is positional information moved along a target path decided on the body, and wherein the predetermined positional information is moved on the target path over time, and wherein the target path is a path connecting the first position and the second position. control output of a tactile stimulus to at least two tactile stimulus units, and change the output of the tactile stimulus unit in accordance with the predetermined positional information and information regarding tactile output related to the positional information, and wherein the predetermined positional information is positional information on a body of a user and comprises a position located between the at least two tactile stimulus units, and wherein the at least two tactile stimulus units are respectively configured to be located at a first position on a first surface of the body of a user and a second position on a second surface of the body of the user, wherein the first surface is opposite the second surface, and wherein the predetermined positional information is positional information moved along a target path decided on the body, and wherein the predetermined positional information is moved on the target path over time, and wherein the target path is a path connecting the first position and the second position.
A testing system for testing wireless communication devices, comprising - a reflecting unit , and - a device under test , which comprises a testing module and is configured to - transmit a first test signal to the reflecting unit , and - receive a second test signal from the reflecting unit , wherein the reflecting unit comprises - an input , configured for receiving the first test signal from the testing module , - a delay unit , configured for delaying the first test signal , resulting in the second test signal , and - an output , configured for transmitting the second test signal to the testing module , characterized in that the delay unit is an optical delay unit , comprising - an analog electrical-optical converter , configured for converting the first test signal to a first optical signal, - an optical delay line , configured for delaying the first optical signal, resulting in a second optical signal, and - an analog optical-electrical converter , configured for converting the second optical signal to the second test signal . - a reflecting unit , and - a device under test , which comprises a testing module and is configured to - transmit a first test signal to the reflecting unit , and - receive a second test signal from the reflecting unit , - transmit a first test signal to the reflecting unit , and - receive a second test signal from the reflecting unit , - an input , configured for receiving the first test signal from the testing module , - a delay unit , configured for delaying the first test signal , resulting in the second test signal , and - an output , configured for transmitting the second test signal to the testing module , characterized in that the delay unit is an optical delay unit , comprising - an analog electrical-optical converter , configured for converting the first test signal to a first optical signal, - an optical delay line , configured for delaying the first optical signal, resulting in a second optical signal, and - an analog optical-electrical converter , configured for converting the second optical signal to the second test signal .
A turbine system comprising: a shaft configured to rotate about a rotational axis; a plurality of blades coupled to the shaft , wherein the blades are oriented with the width (chord) axis of the blades aligned in a radial direction away from the axis, and wherein the blades are configured to provide lift according to the Bernoulli principle resulting from lower pressure on the convex first external surface of the blades than on the non-convex second external surface of the blades , when fluid passes on both sides of the blades , the lift provided in the direction of rotation through portions of the rotation of the blades about the rotational axis on both the windward and leeward sides of the rotational axis; mounting formations which attach the blades to the shaft and suspend the blades away from the shaft , with air flow passages defined between the shaft and the blades ; and an air flow director configured to expose the blades to air flow through a first part of rotation of the blades about the rotational axis, and to block air flow to the blades through a second part of the rotation of the blades about the rotational axis; wherein the air flow director is configured and oriented to direct the air flow in part through the air flow passages defined between the shaft and the blades ; and characterised in that the air flow director has a convex outer surface located on the leeward side of the blades , with the convex outer surface exposed to the air flow. a shaft configured to rotate about a rotational axis; a plurality of blades coupled to the shaft , wherein the blades are oriented with the width (chord) axis of the blades aligned in a radial direction away from the axis, and wherein the blades are configured to provide lift according to the Bernoulli principle resulting from lower pressure on the convex first external surface of the blades than on the non-convex second external surface of the blades , when fluid passes on both sides of the blades , the lift provided in the direction of rotation through portions of the rotation of the blades about the rotational axis on both the windward and leeward sides of the rotational axis; mounting formations which attach the blades to the shaft and suspend the blades away from the shaft , with air flow passages defined between the shaft and the blades ; and an air flow director configured to expose the blades to air flow through a first part of rotation of the blades about the rotational axis, and to block air flow to the blades through a second part of the rotation of the blades about the rotational axis; wherein the air flow director is configured and oriented to direct the air flow in part through the air flow passages defined between the shaft and the blades ; and characterised in that the air flow director has a convex outer surface located on the leeward side of the blades , with the convex outer surface exposed to the air flow.
Method of producing a cooking recipient consisting of a calotte bowl comprising a bottom , a plate with perforations fixed on the bottom , and a receptor channel for a sensor , especially a temperature sensor, said receptor channel being located between the bottom and the perforated plate , characterised in that it comprises the following steps: a) Creating the calotte bowl through a smelting operation, the bottom of said calotte bowl having a groove and studs intended to cooperate with the perforations of the plate , the groove and the studs being directly from the moulds implemented during this smelting operation; b) Positioning the perforated plate on the bottom by inserting the perforations in the studs ; c) Fastening the perforated plate to the bottom by tapping the studs, the receptor channel being formed by the groove , topped by the plate . a) Creating the calotte bowl through a smelting operation, the bottom of said calotte bowl having a groove and studs intended to cooperate with the perforations of the plate , the groove and the studs being directly from the moulds implemented during this smelting operation; b) Positioning the perforated plate on the bottom by inserting the perforations in the studs ; c) Fastening the perforated plate to the bottom by tapping the studs, the receptor channel being formed by the groove , topped by the plate .
A wide frequency neutralizer of electromagnetic waves which are harmful to humans, consisting of: a housing , cylinders with chambers , a tubular axially extending cavity through which an axially iron core is drawn onto which two solenoid assemblies 9, 10), lids and brass circular plates are provided, wherein the cylinders , integrally connected by a ring coupling with a centrally concave rounded groove , with the cylinders having mutually equal chambers of circular cross-section with hollow conical ends , connected through the center of the coupler by the tubular axially extending cavity , and by the fact that the ends of the cylinders having the form of tubular ends with threads cut in on the inside, by means of which the lids made of the same material as the housing , are removably fixed, and by having on a lower segment of the lid , made as a two-piece cone, threads cut in on the outside, fitting the thread on the tubular end , while the other, free end of the cylinder is shaped like a cone with the top facing the opposite of the center of the housing , and by the fact that a cylindrical magnet is inserted into the lower segment with the bottom of one side resting on the brass circular plate inserted into the groove on the housing , while a thin circular plate of plastifix on which a pure liquid silver electronic oscillator is created which oscillates at 7.8Hz, fixed by gluing to an upper surface of the cylindrical magnet and by having first, second and third solenoids made of 99% pure silver wire coaxially slid on the iron core , the first solenoids having a wire thickness of 0.1 mm, the second solenoids having a wire thickness of 0.2 mm, the third solenoids having a wire thickness of 0.3 mm, by having in the continuation of the cavity the first solenoids and the second solenoids partially overlapping the first solenoids , and the third solenoids overlapping the second solenoids by half the length of the second solenoids , with the solenoid assemblies being of such dimensions that their free ends are supported by the brass circular plates .
Conversion device operating at constant pressure, converting a liquid into steam comprising: • an enclosure having a liquid inlet to receive a constant flow of liquid a steam outlet and an inner shell capable of retaining the steam produced and of channeling this steam to the said steam outlet ; • a part arranged inside the enclosure on a support base ; and • an open helical channel formed on the outer perimeter of the said part ; • the said channel being configured to direct the liquid from the said liquid inlet upon its evaporation; characterized in that the said conversion device also comprises: • a heating element inserted in the said channel ; • the said channel having inclined walls to direct the liquid towards the bottom of the channel ; • the said heating element being arranged at the said bottom of the said channel so as to ensure contact between the liquid and the said heating element . • an enclosure having a liquid inlet to receive a constant flow of liquid a steam outlet and an inner shell capable of retaining the steam produced and of channeling this steam to the said steam outlet ; • a part arranged inside the enclosure on a support base ; and • an open helical channel formed on the outer perimeter of the said part ; • the said channel being configured to direct the liquid from the said liquid inlet upon its evaporation; • a heating element inserted in the said channel ; • the said channel having inclined walls to direct the liquid towards the bottom of the channel ; • the said heating element being arranged at the said bottom of the said channel so as to ensure contact between the liquid and the said heating element .
A gas turbine engine comprising a circumferential array of stator vanes having first and second vanes (A, B) with different vibrational frequencies than one another, the first vanes (A) arranged in circumferentially alternating relationship with the second vanes (B), wherein the stator vanes are provided on multiple arcuate segments , each segment including the first and second vanes (A, B), at least one of the first and second vanes (A, B) are cantilevered; and a first ring half includes N vanes, and a second ring half includes N+3 vanes.