mhurhangee/patent-ind-claim-en huggingface dataset:
Saw bench having a first pair of legs and a second pair of legs , wherein at least two crossbars for cut material are arranged between the first pair of legs and the second pair of legs , wherein the first pair of legs and the second pair of legs are rigidly connected via a frame , wherein - each crossbar consists of a first flat bearing element and a second flat bearing element , wherein the first and second flat bearing elements are arranged at an angle (a) to one another, wherein - a saw slot is formed between the crossbars , characterized in that - at least one first guide rail and/or at least one second guide rail for a sawing means is mounted in the saw bench in such a way that the sawing means engages below a level (N) of the cut material on the at least two crossbars when sawing the cut material through the saw slot , wherein the at least one first guide rail is inserted and secured on the frame at the rear in relation to the first flat bearing element , and a guide bolt , which is connected to the sawing means , can be slidably guided in the at least one first guide rail , and/or wherein the at least one second guide rail is inserted and secured to the frame and in a receptacle at a free end of the second flat bearing element , and a guide bolt , which is connected to the sawing means , can be slidably guided in the at least one second guide rail . - each crossbar consists of a first flat bearing element and a second flat bearing element , wherein the first and second flat bearing elements are arranged at an angle (a) to one another, wherein - a saw slot is formed between the crossbars , - at least one first guide rail and/or at least one second guide rail for a sawing means is mounted in the saw bench in such a way that the sawing means engages below a level (N) of the cut material on the at least two crossbars when sawing the cut material through the saw slot , wherein the at least one first guide rail is inserted and secured on the frame at the rear in relation to the first flat bearing element , and a guide bolt , which is connected to the sawing means , can be slidably guided in the at least one first guide rail , and/or wherein the at least one second guide rail is inserted and secured to the frame and in a receptacle at a free end of the second flat bearing element , and a guide bolt , which is connected to the sawing means , can be slidably guided in the at least one second guide rail .
A method for producing a material board , which comprises a structured, colored surface , comprising the following method steps: - providing image data assigned to a colored digital image of a colored original surface , - generating a first image data set and at least one second image data set from the image data , - producing a colored surface on a base carrier using the at least one second image data set without using the first image data set , and - pressing the colored surface of the base carrier by means of a structured pressing surface of a pressing tool so as to obtain the material board with the structured, colored surface , wherein the structured pressing surface was produced using the first image data set and is thus assigned to the first image data set , characterized in that the first image data set and the at least one second image data set are each assigned to different color channels of the colored digital image . - providing image data assigned to a colored digital image of a colored original surface , - generating a first image data set and at least one second image data set from the image data , - producing a colored surface on a base carrier using the at least one second image data set without using the first image data set , and - pressing the colored surface of the base carrier by means of a structured pressing surface of a pressing tool so as to obtain the material board with the structured, colored surface , wherein the structured pressing surface was produced using the first image data set and is thus assigned to the first image data set , characterized in that the first image data set and the at least one second image data set are each assigned to different color channels of the colored digital image .
An anti-shake camera, comprising a camera body , and a circuit board and a coil fixing plate which are fixed to a back surface of the camera body , wherein a back surface of the coil fixing plate is divided into four areas according to diagonal lines, fan-shaped coils are respectively fixed to two symmetric areas among the four areas, and a rotating shaft is arranged in a center of the diagonal lines; and a substrate is arranged behind the back surface of the coil fixing plate , and a surface, opposite to the back surface of the coil fixing plate , of the substrate is provided with a matching mechanism of the rotating shaft , characterized in that one or more fan-shaped permanent magnets are fixed to areas, corresponding to areas of the coil fixing plate where no fan-shaped coils are fixed, on the substrate , and gaps with an angular separation are formed between the one or more fan-shaped permanent magnets and the fan-shaped coils . a back surface of the coil fixing plate is divided into four areas according to diagonal lines, fan-shaped coils are respectively fixed to two symmetric areas among the four areas, and a rotating shaft is arranged in a center of the diagonal lines; and a substrate is arranged behind the back surface of the coil fixing plate , and a surface, opposite to the back surface of the coil fixing plate , of the substrate is provided with a matching mechanism of the rotating shaft , characterized in that one or more fan-shaped permanent magnets are fixed to areas, corresponding to areas of the coil fixing plate where no fan-shaped coils are fixed, on the substrate , and gaps with an angular separation are formed between the one or more fan-shaped permanent magnets and the fan-shaped coils .
A dental crown removal apparatus comprising: a handle ; an elongated post projecting along a first axis , said elongated post being connected for reciprocal motion with respect to said handle along said first axis; a motor for moving said elongated post ; a tool adapter connected with said elongated post along an end of said elongated post generally opposite said handle , said tool adapter having an extension arm extending away from said handle with a pivot arm connected with said extension arm spaced from said handle ; and first and second opposing jaws having claw ends spring biased together, characterized in that said first and second jaws have independent and unitary pivotal connection with said pivot arm . a handle ; an elongated post projecting along a first axis , said elongated post being connected for reciprocal motion with respect to said handle along said first axis; a motor for moving said elongated post ; a tool adapter connected with said elongated post along an end of said elongated post generally opposite said handle , said tool adapter having an extension arm extending away from said handle with a pivot arm connected with said extension arm spaced from said handle ; and first and second opposing jaws having claw ends spring biased together, characterized in that said first and second jaws have independent and unitary pivotal connection with said pivot arm .
A cellular network comprising a plurality of control plane transceiver stations , each one configured to provide radio coverage over a corresponding first coverage area for allowing user equipment within said first coverage area to exchange signaling traffic with the control plane transceiver station ; for each control plane transceiver station , the cellular network further comprising one or more user transceiver stations ( 115(i) ) located within said first coverage area , each user transceiver station ( 115(i) ) being configured to provide radio coverage over a corresponding second coverage area ( 115(i)A ) for allowing user equipment within said second coverage area ( 115(i)A ) to exchange user traffic with the user transceiver stations ( 115(i) ) by exploiting a selected frequency band among a respective set of frequency bands, characterized in that wherein when a user equipment within one first coverage area of said first coverage areas requests to exchange user traffic, the cellular network is configured to: - select a group of candidate user transceiver stations ( 115(i) ) located within said one first coverage area based on the position of the user equipment within said one first coverage area ; when said user equipment within said one first coverage area of said first coverage areas requests to exchange user traffic, the cellular network is further configured to: - select a group of candidate frequency bands among the sets of frequency bands of the user transceiver stations ( 115(i) ) located within said one first coverage area based on at least one among: request parameters indicative of the type of request, user parameters indicative of a user category, and user equipment parameters indicative of a user equipment category, and - allow the user equipment to exchange user traffic with one or more selected user transceiver stations ( 115(i) ) exploiting a selected frequency band based on a mapping between the selected group of candidate transceiver stations ( 115(i) ) and the selected group of candidate frequency bands. - select a group of candidate user transceiver stations ( 115(i) ) located within said one first coverage area based on the position of the user equipment within said one first coverage area ; - select a group of candidate frequency bands among the sets of frequency bands of the user transceiver stations ( 115(i) ) located within said one first coverage area based on at least one among: request parameters indicative of the type of request, user parameters indicative of a user category, and user equipment parameters indicative of a user equipment category, and - allow the user equipment to exchange user traffic with one or more selected user transceiver stations ( 115(i) ) exploiting a selected frequency band based on a mapping between the selected group of candidate transceiver stations ( 115(i) ) and the selected group of candidate frequency bands.
A method for continuous production of zeolite, wherein a starting material is continuously supplied to a tubular reactor to produce an aluminophosphate zeolite that contains, in a framework structure, at least aluminum atoms and phosphorus atoms or an aluminosilicate zeolite having 10≤SiO 2 /Al 2 O 3 ≤2000, wherein the tubular reactor is heated using a heat medium; a ratio (volume)/(lateral surface area) of the volume i.e. the inner capacity to the lateral surface area of the tubular reactor is 0.75 cm or smaller; and seed crystals are added to the starting material, and wherein, the starting material mixture that constitutes the starting material for producing the aluminophosphate zeolite by hydrothermal synthesis is prepared through mixing of an aluminum source, a phosphorus source, a template, and water, wherein the composition of the starting material mixture, expressed as a molar ratio of oxides P 2 O 5 /Al 2 O 3 , is 0. 6≤P 2 O 5 /Al 2 O 3 ≤1. 7, and, wherein the starting material mixture that constitutes the starting material for producing the aluminosilicate zeolite is produced through mixing of an aluminum source, a silicon source, an alkali metal or alkaline earth metal, a template, and water, wherein the composition of the starting material mixture, expressed as a molar ratio of oxides SiO 2 /Al 2 O 3 , is 10≤SiO 2 /Al 2 O 3 ≤2000, wherein the flow rate or velocity of circulation of the starting material i.e. the zeolite precursor gel is 0.5 ml/min to 500 ml/min, wherein a retention time of the starting material inside the tubular reactor is 0.5 minutes or more and 60 minutes or less, and the reaction temperature, i.e. the heating temperature of the tubular reactor, is 100°C to 250°C. wherein, the starting material mixture that constitutes the starting material for producing the aluminophosphate zeolite by hydrothermal synthesis is prepared through mixing of an aluminum source, a phosphorus source, a template, and water, wherein the composition of the starting material mixture, expressed as a molar ratio of oxides P 2 O 5 /Al 2 O 3 , is 0. 6≤P 2 O 5 /Al 2 O 3 ≤1. 7, and, wherein the starting material mixture that constitutes the starting material for producing the aluminosilicate zeolite is produced through mixing of an aluminum source, a silicon source, an alkali metal or alkaline earth metal, a template, and water, wherein the composition of the starting material mixture, expressed as a molar ratio of oxides SiO 2 /Al 2 O 3 , is 10≤SiO 2 /Al 2 O 3 ≤2000, wherein the flow rate or velocity of circulation of the starting material i.e. the zeolite precursor gel is 0.5 ml/min to 500 ml/min, wherein a retention time of the starting material inside the tubular reactor is 0.5 minutes or more and 60 minutes or less, and the reaction temperature, i.e. the heating temperature of the tubular reactor, is 100°C to 250°C.
A sensor device comprising: a movable body capable of vibrating; a spring mechanism capable of vibrating the movable body and a catch-and-release mechanism capable of catching the vibrating movable body and capable of releasing the caught movable body, wherein the catch-and-release mechanism includes: a stopper portion capable of stopping vibration of the movable body when the movable body contacts the stopper portion; characterized in that the catch-and-release mechanism further includes: an elastic member configured to reduce a force acting between the movable body and the stopper portion when the vibration of the movable body is stopped by the stopper portion, wherein, during stopping, the moveable body contacts the elastic member and subsequently the movable body contacts the stopper portion, and wherein the elastic member is further configured not to function while the movable body is freely vibrating. a movable body capable of vibrating; a spring mechanism capable of vibrating the movable body and a catch-and-release mechanism capable of catching the vibrating movable body and capable of releasing the caught movable body, wherein the catch-and-release mechanism includes: a stopper portion capable of stopping vibration of the movable body when the movable body contacts the stopper portion; characterized in that the catch-and-release mechanism further includes: an elastic member configured to reduce a force acting between the movable body and the stopper portion when the vibration of the movable body is stopped by the stopper portion, wherein, during stopping, the moveable body contacts the elastic member and subsequently the movable body contacts the stopper portion, and wherein the elastic member is further configured not to function while the movable body is freely vibrating.
An air fin for a heat exchanger, comprising: a plurality of corrugations defining air flow channels extending in a width direction of the air fin , said corrugations being defined by planar flanks joined by alternating crests and troughs; a plurality of first perforations extending through at least a portion of at least some of the flanks , the first perforations being arranged along a first plane oriented perpendicular to the width direction of the fin ; a plurality of second perforations extending through at least a portion of at least some of the flanks , the second perforations being arranged along a second plane parallel to and spaced apart from the first plane ; a rectangular aperture extending through two or more consecutively arranged corrugations of the air fin ; characterized by the rectangular aperture comprising a first edge aligned with the first plane and a second edge aligned with the second plane . a plurality of corrugations defining air flow channels extending in a width direction of the air fin , said corrugations being defined by planar flanks joined by alternating crests and troughs; a plurality of first perforations extending through at least a portion of at least some of the flanks , the first perforations being arranged along a first plane oriented perpendicular to the width direction of the fin ; a plurality of second perforations extending through at least a portion of at least some of the flanks , the second perforations being arranged along a second plane parallel to and spaced apart from the first plane ; a rectangular aperture extending through two or more consecutively arranged corrugations of the air fin ; characterized by the rectangular aperture comprising a first edge aligned with the first plane and a second edge aligned with the second plane .
A vacuum cleaner having an exhaust filter assembly comprising a filter frame accommodating the filter and a cover pivotally mounted to a vacuum cleaner body and which is pivotally between an open position and a closed position, where the cover comprises at least one first rib formed on an inner surface of the cover for positioning the filter frame into a preliminary position inside a filter cavity placed in the vacuum cleaner body and at least one second rib of the cover pushes the filter frame into its end position inside the filter cavity after setting the cover in the closed position characterized in that the at least one first rib leads a rim of the filter frame to pass over at least one pin placed on a wall of the filter cavity .
Electric shaver comprising a handle and a shaver head including at least one cutter unit including a cutter element and a shear foil , wherein said shaver head is connected to said handle by means of a support structure providing for a swivel and/or tilting axis about which said shaver head may swivel or tilt relative to said handle , wherein said cutter element is drivable by a drive unit in an oscillating manner along a cutter oscillation axis , said drive unit including an elongated drive transmitter coupled to said cutter element , characterized in that said elongated drive transmitter is coupled to said cutter element by means of a pivot joint providing for a pair of pivot axes extending perpendicular to each other and transverse to a longitudinal axis of said elongated drive transmitter to allow said cutter element multiaxial pivoting relative to said elongated drive transmitter , wherein said pivot joint is mounted to said elongated drive transmitter and to said cutter element fixedly in the direction of said cutter oscillation axis and displaceably in directions perpendicular thereto to allow for displacement of said pivot joint relative to said cutter element in a first direction transverse to the cutter oscillation axis and to the longitudinal axis of said elongated drive transmitter and relative to said elongated drive transmitter and/or to said cutter element in a second direction substantially parallel to the longitudinal axis of said elongated drive transmitter .
A mounting assembly dimensioned for securement between an associated vehicle structure (BDY;USC) and an associated gas spring and damper assembly (102:ASM), said mounting assembly comprising: a first end plate dimensioned for securement to the associated vehicle structure (BDY;USC); a second end plate attached in substantially fixed relation to said first end plate such that a mounting cavity is disposed therebetween; a connector housing having a longitudinal axis (AX) and being at least partially disposed within said mounting cavity , said connector housing dimensioned for operative connection to the associated gas spring and damper assembly (102;ASM); a first bearing assembly operatively disposed between said connector housing and said first end plate and transferring forces acting therebetween; and a second bearing assembly , characterized in that said second bearing assembly is operatively disposed between said connector housing and said second end plate and transferring forces acting therebetween. a first end plate dimensioned for securement to the associated vehicle structure (BDY;USC); a second end plate attached in substantially fixed relation to said first end plate such that a mounting cavity is disposed therebetween; a connector housing having a longitudinal axis (AX) and being at least partially disposed within said mounting cavity , said connector housing dimensioned for operative connection to the associated gas spring and damper assembly (102;ASM); a first bearing assembly operatively disposed between said connector housing and said first end plate and transferring forces acting therebetween; and a second bearing assembly , characterized in that said second bearing assembly is operatively disposed between said connector housing and said second end plate and transferring forces acting therebetween.
A needle bed for a circular knitting machine , which is mountable to the circular knitting machine , comprising insert pieces , and being configured to allow a knitting tool to be slidably stored in a groove of which both side surfaces are formed by opposed plate surfaces of adjacent insert pieces , wherein each insert piece has a plurality of dimples formed in a short-side direction and a long-side direction on the plate surfaces, characterized in that , the insert pieces have a rectangular plate shape in a horizontal sectional view of the needle bed , this sectional view referring to the one when the needle bed is mounted to the circular knitting machine .
A method for producing an optically anisotropic film comprising: a step of forming an overcoat layer comprising a photoreactive compound having three or more photoreactive groups on one side of an optically anisotropic layer comprising a polymerizable liquid crystal compound satisfying Equation 1 below; and a step of aging the overcoat layer at a temperature of 100°C or higher after the step of forming the overcoat layer: R 450 / R 550 < R 650 / R 550 , wherein, R (λ) is an in-plane retardation of a liquid crystal layer for light having a wavelength of λ nm, wherein the liquid crystal layer comprises the polymerizable liquid crystal compound oriented in a planar state. a step of forming an overcoat layer comprising a photoreactive compound having three or more photoreactive groups on one side of an optically anisotropic layer comprising a polymerizable liquid crystal compound satisfying Equation 1 below; and a step of aging the overcoat layer at a temperature of 100°C or higher after the step of forming the overcoat layer: R 450 / R 550 < R 650 / R 550 , wherein, R (λ) is an in-plane retardation of a liquid crystal layer for light having a wavelength of λ nm, wherein the liquid crystal layer comprises the polymerizable liquid crystal compound oriented in a planar state.
A cover of an electronic device , the electronic device comprising a processor , a sensor , and the cover comprising: a mounting part in which the electronic device is mounted; a bottom part connected to one end of the mounting part; a connecting part extending from the bottom part; and a cover part fastened to the connecting part, the cover part being disposed to cover at least a portion of the mounting part or disposed side by side with the bottom part according to an arrangement state, wherein the cover part has at least a region with a specified transparency and includes a transparent conductive pattern configured to generate an electromagnetic force, and wherein the processor is configured to determine whether the cover is open state or closed state based on the electromagnetic force of the transparent conductive pattern detected by the sensor. a mounting part in which the electronic device is mounted; a bottom part connected to one end of the mounting part; a connecting part extending from the bottom part; and a cover part fastened to the connecting part, the cover part being disposed to cover at least a portion of the mounting part or disposed side by side with the bottom part according to an arrangement state, wherein the cover part has at least a region with a specified transparency and includes a transparent conductive pattern configured to generate an electromagnetic force, and wherein the processor is configured to determine whether the cover is open state or closed state based on the electromagnetic force of the transparent conductive pattern detected by the sensor.