mhurhangee/patent-ind-claim-en huggingface dataset:
A pouring reel for forming a hot rolled long product (P) into an annular coil, comprising: a central mast lying on a vertical axis (A); a cylindrical tub surrounding and cooperating with said mast to form an annular chamber ; a coil plate defining a bottom of said chamber; said central mast, cylindrical tub and coil plate being rotatable in unison about said vertical axis; an entry nozzle having a delivery end arranged to direct said product downwardly into said chamber for accumulation on said coil plate as a series of superimposed rings forming said coil; said coil plate being movable downwardly along said axis and relative to said central mast and said cylindrical tub to accommodate the increasing height of the coil being formed in said chamber; vertically extending conveying elements circumferentially spaced around an interior surface of said cylindrical tub, said conveying elements being traversable downwardly and synchronously with said coil plate and comprising inner runs of endless chains, and characterized in that said inner runs include face plates projecting radially inwardly from an interior surface of said cylindrical tub. a central mast lying on a vertical axis (A); a cylindrical tub surrounding and cooperating with said mast to form an annular chamber ; a coil plate defining a bottom of said chamber; said central mast, cylindrical tub and coil plate being rotatable in unison about said vertical axis; an entry nozzle having a delivery end arranged to direct said product downwardly into said chamber for accumulation on said coil plate as a series of superimposed rings forming said coil; said coil plate being movable downwardly along said axis and relative to said central mast and said cylindrical tub to accommodate the increasing height of the coil being formed in said chamber; vertically extending conveying elements circumferentially spaced around an interior surface of said cylindrical tub, said conveying elements being traversable downwardly and synchronously with said coil plate and comprising inner runs of endless chains, and characterized in that said inner runs include face plates projecting radially inwardly from an interior surface of said cylindrical tub.
Method for encapsulating a microelectronic component arranged on a substrate comprising at least the following successive steps: a) supplying a sealing cell including: a bottom with a receiving zone for the substrate and a peripheral zone surrounding the receiving zone , a side wall formed by an internal face , an external face and an upper face , the upper face being configured to support the cap facing the receiving zone , an opening , arranged in the bottom of the cell , in the side wall , or in the cap , the opening being configured to be connected to a pumping system, in such a way as to be able to place under controlled atmosphere a cavity delimited by the side wall , the bottom and the cap , b) depositing a sealing bead , on the substrate and/or on the face of the cap intended to be facing the substrate , c) positioning the substrate provided with the microelectronic component to encapsulate the receiving zone of the sealing cell , and positioning the cap on the upper face of the sealing cell , the cap being based on a material based on glass or the family of glasses, or silicon or ceramic, d) placing under controlled atmosphere the cavity formed by the cap and the sealing cell , via the opening , in such a way as to make the cap bend towards the substrate , until the sealing bead is placed in contact both with the substrate and with the cap , e) localised heating of the sealing bead , in such a way as to seal the cap to the substrate . a) supplying a sealing cell including: a bottom with a receiving zone for the substrate and a peripheral zone surrounding the receiving zone , a side wall formed by an internal face , an external face and an upper face , the upper face being configured to support the cap facing the receiving zone , an opening , arranged in the bottom of the cell , in the side wall , or in the cap , the opening being configured to be connected to a pumping system, in such a way as to be able to place under controlled atmosphere a cavity delimited by the side wall , the bottom and the cap , b) depositing a sealing bead , on the substrate and/or on the face of the cap intended to be facing the substrate , c) positioning the substrate provided with the microelectronic component to encapsulate the receiving zone of the sealing cell , and positioning the cap on the upper face of the sealing cell , the cap being based on a material based on glass or the family of glasses, or silicon or ceramic, d) placing under controlled atmosphere the cavity formed by the cap and the sealing cell , via the opening , in such a way as to make the cap bend towards the substrate , until the sealing bead is placed in contact both with the substrate and with the cap , e) localised heating of the sealing bead , in such a way as to seal the cap to the substrate .
A radiographic imaging apparatus having an x-ray source and x-ray detector, the apparatus comprising: elongated rigid guide rails having equivalent symmetrical shapes and spaced apart substantially in parallel; carriages each attached to one of the guide rails, wherein the carriages are configured to move along a length of the guide rails; a first type spherical bearing assembly attached to a first one of the carriages which is attached to a first one of the guide rails, the first type spherical bearing assembly configured to allow a gimbaled connection thereto while allowing substantially no axial movement, the axial movement perpendicular to the first one of the guide rails; a second type spherical bearing assembly attached to a second one of the carriages which is attached to a second one of the guide rails, the second type spherical bearing assembly configured to allow a gimbaled connection thereto while allowing a limited amount of axial movement perpendicular to the second one of the guide rails; and frame mounts each attached to one of the first type and second type spherical bearing assemblies, the frame mounts each configured to support a portion of the imaging apparatus and to facilitate movement thereof along the guide rails. elongated rigid guide rails having equivalent symmetrical shapes and spaced apart substantially in parallel; carriages each attached to one of the guide rails, wherein the carriages are configured to move along a length of the guide rails; a first type spherical bearing assembly attached to a first one of the carriages which is attached to a first one of the guide rails, the first type spherical bearing assembly configured to allow a gimbaled connection thereto while allowing substantially no axial movement, the axial movement perpendicular to the first one of the guide rails; a second type spherical bearing assembly attached to a second one of the carriages which is attached to a second one of the guide rails, the second type spherical bearing assembly configured to allow a gimbaled connection thereto while allowing a limited amount of axial movement perpendicular to the second one of the guide rails; and frame mounts each attached to one of the first type and second type spherical bearing assemblies, the frame mounts each configured to support a portion of the imaging apparatus and to facilitate movement thereof along the guide rails.
A method of controlling a loudspeaker having an electromechanical force transducer and a diaphragm comprising the steps of: - providing a non-linear electromechanical model (FT) configured to apply one or more desired conditions to a loudspeaker input digital audio signal; - provide an inverse non-linear electromechanical (FI) model of the electromechanical force transducer configured to receive a signal processed by the non-linear electromechanical model (FT) and to compensate, preferably linearize, at least one mechanical and / or electrical and / or electromechanical non-linearity of a transducer coil; - convert a digital output signal of the inverse non-linear electromechanical model (FI) into an analog signal for the electromechanical force transducer, wherein the digital output signal comprises a voltage signal representative of a displacement of the electromechanical force transducer to emit sounds by an action of the electromechanical force transducer on the diaphragm, characterized in that said inverse non-linear electromechanical model (FI) is a digital wave filter (WDF) model to provide a directly computable function of the loudspeaker input digital audio signal for the electromechanical force transducer. - providing a non-linear electromechanical model (FT) configured to apply one or more desired conditions to a loudspeaker input digital audio signal; - provide an inverse non-linear electromechanical (FI) model of the electromechanical force transducer configured to receive a signal processed by the non-linear electromechanical model (FT) and to compensate, preferably linearize, at least one mechanical and / or electrical and / or electromechanical non-linearity of a transducer coil; - convert a digital output signal of the inverse non-linear electromechanical model (FI) into an analog signal for the electromechanical force transducer,
Separation device for separating a pump fluid delivered by a pump , the pump fluid comprising a constituent ; wherein the separation device is attachable to a rotor shaft which is mounted in the pump so as to be rotatable about an axis of rotation (A) in a shaft bearing , characterized in that in the operating state of the pump the separation device rotates with the rotor shaft ; that in the operating state of the separation device a predeterminable quantity of the constituent and of a lubricating fluid is separated from the pump fluid by means of a centrifugal force; and that the separation device is adapted and suitably designed to supply the lubricating fluid separated from the pump fluid to a lubricating gap located between the rotor shaft and the shaft bearing of the pump .
Protection device for a semiconductor switch , wherein a gate (G) of the semiconductor switch can be controlled by a control signal which is provided by a gate driver at the gate (G) of the semiconductor switch via a gate resistor (RG), having first overvoltage protection which is configured to control the semiconductor switch for a predetermined period if a voltage (U CE ) between a collector (C) and an emitter (E) of the semiconductor switch exceeds a first threshold value; second overvoltage protection which is configured to control the semiconductor switch if the voltage (U CE ) across the semiconductor switch exceeds a second threshold value; and having a switching detector which is configured to detect a switch-off process at the semiconductor switch on the basis of a voltage drop across the gate resistor (RG), to change the first overvoltage protection to an active state by means of transistors (T30, T31) if the semiconductor switch is opened, and to an inactive state as long as the semiconductor switch is closed or completely open, wherein the first overvoltage protection has a first semiconductor component (D20) which reversibly changes from an off state to an on state if the voltage (U CE ) across the semiconductor switch exceeds the first threshold value and which is arranged between the collector (C) of the semiconductor switch and the gate (G) of the semiconductor switch , the second overvoltage protection has a second semiconductor component (D10) which reversibly changes from an off state to an on state if the voltage (U CE ) across the semiconductor switch exceeds the second threshold value and which is arranged between the collector (C) of the semiconductor switch and the gate (G) of the semiconductor switch in parallel with the semiconductor component (D20) of the first overvoltage protection .
Translationally acting tool module for finishing, comprising a) at least one finishing element having a pressing stroke, b) at least one pressing force system for influencing a pressing force from the at least one finishing element on a workpiece surface to be worked, and c) drive means for driving the at least one finishing element , d) the at least one finishing element being arranged on at least one translation unit which is driven and linearly guided by means of the drive means, further comprising e) at least one transmitting device, arranged in the translation unit or in at least one of the translation units and intended for transmitting a force onto the finishing element or onto at least one of the finishing elements , the transmitting device being - a pressure transmitting device, which comprises a piston-cylinder system and is operated by fluid pressure, or - an electrically operated force transmitting device, characterized by f) a machine interface for connection to a machine, in particular a machine tool or a robot, g) the drive means comprising conversion means for converting a rotational movement of a machine element into the linearly guided translational movement of the at least one translation unit , h) the machine interface being set up for connection to a spindle and the conversion means being provided for converting a rotation of the spindle . a) at least one finishing element having a pressing stroke, b) at least one pressing force system for influencing a pressing force from the at least one finishing element on a workpiece surface to be worked, and c) drive means for driving the at least one finishing element , d) the at least one finishing element being arranged on at least one translation unit which is driven and linearly guided by means of the drive means, further comprising e) at least one transmitting device, arranged in the translation unit or in at least one of the translation units and intended for transmitting a force onto the finishing element or onto at least one of the finishing elements , the transmitting device being - a pressure transmitting device, which comprises a piston-cylinder system and is operated by fluid pressure, or - an electrically operated force transmitting device, characterized by - a pressure transmitting device, which comprises a piston-cylinder system and is operated by fluid pressure, or - an electrically operated force transmitting device, characterized by f) a machine interface for connection to a machine, in particular a machine tool or a robot, g) the drive means comprising conversion means for converting a rotational movement of a machine element into the linearly guided translational movement of the at least one translation unit , h) the machine interface being set up for connection to a spindle and the conversion means being provided for converting a rotation of the spindle .
A machine direction oriented multilayer facestock for labels, the facestock comprising a core layer having a first surface and a second surface, a first skin layer adjoined to the first surface of the core layer and a second skin layer adjoined to the second surface of the core layer, wherein the first skin layer is configured to be in contact with the print layer, and the second skin layer is configured to be in contact with the adhesive layer, and wherein the thickness of the first skin layer is 20 to 50 % of the thickness of the second skin layer, which thickness of the second skin layer is between 1 and 10 microns, and wherein the core layer includes propylene homopolymer between 40 and 90 %.
Plastic tank comprising a tank wall made of plastic and at least one elongate reinforcing profile for minimizing unwanted deformation of the plastic tank, wherein the reinforcing profile is arranged on an outer side of the plastic tank, wherein the material of the tank wall engages around the reinforcing profile , at least in some region or regions, with the result that there is positive retention between the tank wall and the reinforcing profile , wherein a retaining geometry is formed at least in the vicinity of one axial end of the reinforcing profile , characterized in that the retaining geometry is of wider design, in a plan view of the tank wall of the plastic tank, than other axial portions of the reinforcing profile , wherein the retaining geometry has openings , wherein the material of the tank wall extends through the openings of the retaining geometry and onto the rear side of the reinforcing profile facing away from the tank wall, with the result that there is positive retention between the tank wall and the reinforcing profile at the retaining geometry in the region of the openings wherein the openings of the retaining geometry comprise a plurality of slotted holes, arranged adjacent to one another and/or among one another.
Cosmetic or dermatological preparations having a content of spherical silica particles coated with titanium dioxide and iron oxides selected from the group of "soft-focus pigments", and wherein the spherical particles have a mean particle size of 4.0 - 8.0 μm and the following typical composition: 74.0 - 85.0% silicon dioxide (silica), 15.0 - 24.0% titanium dioxide and ≤ 2.0% iron oxides and medium-chain aliphatic diols selected from the group of octanediol, ethylhexylglycerin and/or glyceryl caprylate. wherein the spherical particles have a mean particle size of 4.0 - 8.0 μm and the following typical composition: 74.0 - 85.0% silicon dioxide (silica), 15.0 - 24.0% titanium dioxide and ≤ 2.0% iron oxides and medium-chain aliphatic diols selected from the group of octanediol, ethylhexylglycerin and/or glyceryl caprylate.
A nail gun, comprising: a control circuit unit ; a motor electrically coupled and responsive to the control circuit unit ; a first cylinder ; a first piston moveably disposed in the first cylinder and defining a first working chamber with the first cylinder ; a second cylinder ; a second piston moveably disposed in the second cylinder and defining a second working chamber with the second cylinder , the second working chamber communicating with the first working chamber, the second piston capable of being driven by the motor to execute a compression stroke and a return stroke in an operation cycle; a driving ram fixedly connected with the first piston and the driving ram disposed with a recess ; a pawl capable of engaging in the recess to retain the driving ram and disengaging out of the recess to release the driving ram ; a linear motion actuator electrically coupled to the control circuit unit , the linear motion actuator capable of driving the pawl to retain or release the driving ram ; and wherein during the compression stroke, the pawl retains the driving ram , characterized in that the control circuit unit is configured to calculate a predetermined distance value of the second piston and control the second piston to move and form a predetermined compressing pressure in the second working chamber; wherein the control circuit unit is configured to control the linear motion actuator to release the driving ram when the second piston moves the predetermined distance. a control circuit unit ; a motor electrically coupled and responsive to the control circuit unit ; a first cylinder ; a first piston moveably disposed in the first cylinder and defining a first working chamber with the first cylinder ; a second cylinder ; a second piston moveably disposed in the second cylinder and defining a second working chamber with the second cylinder , the second working chamber communicating with the first working chamber, the second piston capable of being driven by the motor to execute a compression stroke and a return stroke in an operation cycle; a driving ram fixedly connected with the first piston and the driving ram disposed with a recess ; a pawl capable of engaging in the recess to retain the driving ram and disengaging out of the recess to release the driving ram ; a linear motion actuator electrically coupled to the control circuit unit , the linear motion actuator capable of driving the pawl to retain or release the driving ram ; and wherein during the compression stroke, the pawl retains the driving ram , characterized in that the control circuit unit is configured to calculate a predetermined distance value of the second piston and control the second piston to move and form a predetermined compressing pressure in the second working chamber; wherein the control circuit unit is configured to control the linear motion actuator to release the driving ram when the second piston moves the predetermined distance.
An apparatus configured to decode video data, comprising: means for storing video data associated with a first layer having a first spatial resolution and a second layer having a second spatial resolution greater than the first spatial resolution, the video data associated with the first layer including at least a first layer block and first layer prediction mode information associated with the first layer block, the first layer block including a plurality of sub-blocks where each sub-block is associated with respective prediction mode data of the first layer prediction mode information, wherein the prediction mode data comprises a motion vector; means for deriving the motion vector associated with one sub-block of the plurality of sub-blocks, the one sub-block being a center-sub-block of the first layer block , neighbored on each side by one of the plurality of sub-blocks of the first layer block; means for upsampling the derived motion vector and the first layer block, the upsampled first layer block including a plurality of upsampled sub-blocks; means for assigning the upsampled motion vector as the motion vector associated with each upsampled sub-block of the plurality of upsampled sub-blocks; means for storing, in an inter-layer picture, the plurality of upsampled sub-blocks and the upsampled motion vector assigned as the motion vector associated with each upsampled sub-block of the plurality of upsampled sub-blocks; and means for adding the inter-layer picture to a reference picture list usable for inter-prediction of the second layer. means for storing video data associated with a first layer having a first spatial resolution and a second layer having a second spatial resolution greater than the first spatial resolution, the video data associated with the first layer including at least a first layer block and first layer prediction mode information associated with the first layer block, the first layer block including a plurality of sub-blocks where each sub-block is associated with respective prediction mode data of the first layer prediction mode information, wherein the prediction mode data comprises a motion vector; means for deriving the motion vector associated with one sub-block of the plurality of sub-blocks, the one sub-block being a center-sub-block of the first layer block , neighbored on each side by one of the plurality of sub-blocks of the first layer block; means for upsampling the derived motion vector and the first layer block, the upsampled first layer block including a plurality of upsampled sub-blocks; means for assigning the upsampled motion vector as the motion vector associated with each upsampled sub-block of the plurality of upsampled sub-blocks; means for storing, in an inter-layer picture, the plurality of upsampled sub-blocks and the upsampled motion vector assigned as the motion vector associated with each upsampled sub-block of the plurality of upsampled sub-blocks; and means for adding the inter-layer picture to a reference picture list usable for inter-prediction of the second layer.