mhurhangee/patent-ind-claim-en huggingface dataset:
Adapter for a boom of a vehicle for picking up, transporting and laying a bridge element , the bridge element comprising: - two supports which are spaced apart in parallel with one another and form a vehicle track, - a running rail which is arranged on the side of each support facing the other support , for receiving rollers of an advancing device horizontally advancing the bridge element , and - a drive rack which is arranged on each of the supports , extends along each running rail , is formed in each case from a plurality of pins which are arranged in a row and joined on one side to a support , and is designed to engage with a drive pinion of the advancing device, characterized by - two first connecting elements which are joined to one another by means of a spacer and are designed to receive at least one pin each of the opposing drive racks , and - at least one second connecting element which is joined, at one end thereof, to the spacer and has, at the end thereof opposite the one end, a support clamp for fastening the second connecting element to the bridge element , - the support clamp being designed to be fastened to a flange formed by the supports or - the bridge element having at least one cross brace which joins the supports to one another and the support clamp being designed to be fastened to the cross brace of the bridge element . - two supports which are spaced apart in parallel with one another and form a vehicle track, - a running rail which is arranged on the side of each support facing the other support , for receiving rollers of an advancing device horizontally advancing the bridge element , and - a drive rack which is arranged on each of the supports , extends along each running rail , is formed in each case from a plurality of pins which are arranged in a row and joined on one side to a support , and is designed to engage with a drive pinion of the advancing device, - two first connecting elements which are joined to one another by means of a spacer and are designed to receive at least one pin each of the opposing drive racks , and - at least one second connecting element which is joined, at one end thereof, to the spacer and has, at the end thereof opposite the one end, a support clamp for fastening the second connecting element to the bridge element , - the support clamp being designed to be fastened to a flange formed by the supports or - the bridge element having at least one cross brace which joins the supports to one another and the support clamp being designed to be fastened to the cross brace of the bridge element .
A production process for 2-acrylamido-2-methylpropane sulfonic acid consisting of co-reacting acrylonitrile, fuming sulfuric acid and isobutylene, characterized in that the isobutylene contains less than 100 ppm of butadiene and less than 100 ppm of butene.
A rotary dryer for resin dehydration, comprising: a cylindrical body which rotates about an axis perpendicular to a diameter of the cylindrical body ; an air filter located outside the cylindrical body ; coils located outside the cylindrical body , wherein the coils are oriented vertically and oriented parallel to the diameter of the cylindrical body , wherein the coils do not comprise horizontal surfaces; and lifters located within the cylindrical body . a cylindrical body which rotates about an axis perpendicular to a diameter of the cylindrical body ; an air filter located outside the cylindrical body ; coils located outside the cylindrical body , wherein the coils are oriented vertically and oriented parallel to the diameter of the cylindrical body , wherein the coils do not comprise horizontal surfaces; and lifters located within the cylindrical body .
A method of forming a transistor device comprising an active channel between source and drain electrodes , and a gate electrode separated from the active channel by a gate dielectric layer ; characterised in that the method comprises locally reducing the thickness of the gate dielectric layer in the region of the active channel of the transistor and thereby locally increasing the capacitance of the gate dielectric layer in the region of the active channel of the transistor; wherein locally reducing the thickness of the gate dielectric layer in the region of the active channel of the transistor comprises: defining on a surface of a first layer of the device a topographic feature comprising relatively raised and relatively lowered regions; and wherein the method further comprises then depositing a layer of a conductive material onto the relatively raised and relatively lowered regions of the topographic feature for forming the gate electrode; defining on a surface of a first layer of the device a topographic feature comprising relatively raised and relatively lowered regions; and wherein the method further comprises then depositing a layer of a conductive material onto the relatively raised and relatively lowered regions of the topographic feature for forming the gate electrode;
An earth-boring bit comprising: a body having a rotational axis; a blade extending axially and radially from the body, the blade having a leading face and an edge ; a cavity formed in the blade, the cavity leading to a first opening in the edge of the blade, the cavity leading to a second opening in the leading face of the blade; the cavity being configured to receive a cutting element and a retainer through the first opening, the cutting element having a cylindrical lateral surface and a flared lateral surface that points inwards in a direction toward a cutting face of the cutting element, a portion of a wall of the cavity being complementary to a shape of the flared lateral surface of the cutting element; wherein the cutting element is prevented from rotating inside the cavity after the flared lateral surface of the cutting element is engaged with the portion of the wall of the cavity; wherein the cavity is configured to receive the retainer after the cutting element is engaged with the portion of the wall of the cavity such that the retainer is capable of abutting the cutting element and a back wall of the cavity; and wherein the retainer is releasably attached to the blade. a body having a rotational axis; a blade extending axially and radially from the body, the blade having a leading face and an edge ; a cavity formed in the blade, the cavity leading to a first opening in the edge of the blade, the cavity leading to a second opening in the leading face of the blade; the cavity being configured to receive a cutting element and a retainer through the first opening, the cutting element having a cylindrical lateral surface and a flared lateral surface that points inwards in a direction toward a cutting face of the cutting element, a portion of a wall of the cavity being complementary to a shape of the flared lateral surface of the cutting element; wherein the cutting element is prevented from rotating inside the cavity after the flared lateral surface of the cutting element is engaged with the portion of the wall of the cavity; wherein the cavity is configured to receive the retainer after the cutting element is engaged with the portion of the wall of the cavity such that the retainer is capable of abutting the cutting element and a back wall of the cavity; and wherein the retainer is releasably attached to the blade.
A cable tie , comprising a tie body , said body having an elongated shape and comprising at one end a plate-like element and, at the opposite end, a traction ring , a pair of retention teeth being arranged on said plate-like element , which face each other, said tie body being provided with a plurality of slots which are arranged along the extension thereof that is used for tightening, wherein said plate-like element is provided with a plurality of engagement teeth which are adapted to engage in said slots of said tie body , the pair of retention teeth being arranged on said plate-like element perpendicular with respect to the extension of said engagement teeth , and wherein said plate-like element is hollowed out and provided with a recess below the engagement teeth , so that the plate-like element has a lower thickness at said engagement teeth , in order to allow flexibility of said plate-like element when said tie body is made to slide between said plate-like element and said retention teeth .
An infrared touch screen, the infrared touch screen is of a quadrilateral shape, wherein, the infrared touch screen is arranged with a plurality of light sources at its first side and arranged with a plurality of first detecting units at its second side opposite to the first side , and is arranged with a plurality of second detecting units respectively at its third side and its fourth side opposite to each other, both the first detecting units and the second detecting units are configured to partially receive and partially reflect the infrared rays emitted from the light sources , so that the infrared rays emitted from the light sources form criss-crossing light paths, wherein the light emitted from each light source is emitted into one of the first detecting units , the light partially reflected from each first detecting unit is emitted into one of the second detecting units and from this second detecting unit is partially reflected into one of the second detecting units opposite to it.
A filament feeder for use in an additive manufacturing system, comprising a main feeder body having mounted thereon a first roller assembly (a1) and a second roller assembly (a2), the first and second roller assemblies (a1, a2) being spaced apart along a feed trajectory (T) of the filament feeder , wherein the first roller assembly (a1) comprises a first biasing roller and a driven first gripper roller , the first biasing roller and the first gripper roller being journaled for rotation and arranged at an adjustable first roller distance (d1) from each other allowing a filament material (F) to be received between the first biasing roller and the first gripper roller , wherein the second roller assembly (a2) comprises a second biasing roller and a driven second gripper roller , the second biasing roller and second gripper roller being journaled for rotation and arranged at an adjustable second roller distance (d2) from each other allowing the filament material (F) to be received between the second biasing roller and the driven second gripper roller , wherein each of the first and second gripper rollers is arranged for driven rotation in a direction corresponding to a feed direction in which the filament material (F) is to be moved along the feed trajectory (T), and characterised by further comprising a single spring member having an adjustable length, the spring member being in resilient engagement with the first and second biasing rollers and configured to bias the first and second biasing roller towards the first and second gripper rollers , respectively, during an additive manufacturing process. wherein the first roller assembly (a1) comprises a first biasing roller and a driven first gripper roller , the first biasing roller and the first gripper roller being journaled for rotation and arranged at an adjustable first roller distance (d1) from each other allowing a filament material (F) to be received between the first biasing roller and the first gripper roller , wherein the second roller assembly (a2) comprises a second biasing roller and a driven second gripper roller , the second biasing roller and second gripper roller being journaled for rotation and arranged at an adjustable second roller distance (d2) from each other allowing the filament material (F) to be received between the second biasing roller and the driven second gripper roller , wherein each of the first and second gripper rollers is arranged for driven rotation in a direction corresponding to a feed direction in which the filament material (F) is to be moved along the feed trajectory (T), and characterised by further comprising a single spring member having an adjustable length, the spring member being in resilient engagement with the first and second biasing rollers and configured to bias the first and second biasing roller towards the first and second gripper rollers , respectively, during an additive manufacturing process.
A drum conveyor defining a drum rotational axis and an outer peripheral surface , the drum conveyor comprising: a first seat and a second seat , each of the first seat and second seat being adapted to transport a rod-shaped article , the first seat and the second seat being located at the outer peripheral surface of the drum conveyor ; a first shaft and a second shaft , wherein the first shaft defines a first shaft longitudinal axis and the second shaft defines a second shaft longitudinal axis , the first shaft longitudinal axis and the second shaft longitudinal axis being substantially perpendicular to the drum rotational axis , the first seat being attached to the first shaft and the second seat being attached to the second shaft , so that a rotation of the first shaft around the first shaft longitudinal axis and a rotation of the second shaft around the second shaft longitudinal axis cause the first seat and the second seat to rotate; a pusher coupled with the first shaft and the second shaft by mechanical coupling, the pusher being adapted to linearly move along a pusher direction and engage with the first shaft and second shaft while moving; an actuator adapted to move the pusher along the pusher direction while the drum conveyor rotates around the drum rotational axis so as to rotate the first shaft and the second shaft and the attached first seat and second seat at the same time. a first seat and a second seat , each of the first seat and second seat being adapted to transport a rod-shaped article , the first seat and the second seat being located at the outer peripheral surface of the drum conveyor ; a first shaft and a second shaft , wherein the first shaft defines a first shaft longitudinal axis and the second shaft defines a second shaft longitudinal axis , the first shaft longitudinal axis and the second shaft longitudinal axis being substantially perpendicular to the drum rotational axis , the first seat being attached to the first shaft and the second seat being attached to the second shaft , so that a rotation of the first shaft around the first shaft longitudinal axis and a rotation of the second shaft around the second shaft longitudinal axis cause the first seat and the second seat to rotate; a pusher coupled with the first shaft and the second shaft by mechanical coupling, the pusher being adapted to linearly move along a pusher direction and engage with the first shaft and second shaft while moving; an actuator adapted to move the pusher along the pusher direction while the drum conveyor rotates around the drum rotational axis so as to rotate the first shaft and the second shaft and the attached first seat and second seat at the same time.
Device for measuring rotation including an NMR gyroscope having a predetermined sensitive axis (X-X) and a computer , the NMR gyroscope further comprising a generation member configured to generate a magnetic field directed along the sensitive axis (X-X), the computer being configured to compute, based on an NMR signal output by the NMR gyroscope , a data item relating to a rotation about the sensitive axis (X-X), the measuring device further comprising a MEMS gyroscope rigidly connected to the NMR gyroscope , the measuring device being characterised in that : the MEMS gyroscope has a sensitive axis (X-X) merged with the sensitive axis (X-X) of the NMR gyroscope , and suitable for outputting a MEMS signal representative of a rotation about the sensitive axis (X-X), the computer being also configured to analyse, over time, the MEMS signal, and to determine a present cutoff frequency (W) equal to the frequency value from which the amplitude of the present spectrum of the MEMS signal is less than or equal to a predetermined threshold, the computer being further configured to control the generation member so as to generate, over time, a magnetic field wherein the amplitude is dependent on the present cutoff frequency (W) determined by the computer . the MEMS gyroscope has a sensitive axis (X-X) merged with the sensitive axis (X-X) of the NMR gyroscope , and suitable for outputting a MEMS signal representative of a rotation about the sensitive axis (X-X), the computer being also configured to analyse, over time, the MEMS signal, and to determine a present cutoff frequency (W) equal to the frequency value from which the amplitude of the present spectrum of the MEMS signal is less than or equal to a predetermined threshold, the computer being further configured to control the generation member so as to generate, over time, a magnetic field wherein the amplitude is dependent on the present cutoff frequency (W) determined by the computer .
A method of storing information on an amount of used toner, the method comprising: determining whether a customer replaceable unit monitor CRUM memory for storing the information on the amount of used toner is included in a cartridge of an image forming device; determining whether the toner remaining in the cartridge is below a threshold amount when the CRUM memory is not included in the cartridge of the image forming device; storing the information on the amount of used toner in a non-volatile memory of the image forming device when it is determined that the toner remaining in the cartridge is not below the threshold amount; and storing the information on the amount of used toner in the CRUM memory when the CRUM memory is included in the cartridge; wherein when a cartridge not including CRUM memory is removed from and subsequently reinstalled in the image forming apparatus, the non-volatile memory is arranged to provide information on the amount of used toner in the reinstalled cartridge, and wherein whether the toner remaining in the cartridge is below a threshold amount is determined by using information on a number of dots used to print. determining whether a customer replaceable unit monitor CRUM memory for storing the information on the amount of used toner is included in a cartridge of an image forming device; determining whether the toner remaining in the cartridge is below a threshold amount when the CRUM memory is not included in the cartridge of the image forming device; storing the information on the amount of used toner in a non-volatile memory of the image forming device when it is determined that the toner remaining in the cartridge is not below the threshold amount; and storing the information on the amount of used toner in the CRUM memory when the CRUM memory is included in the cartridge; wherein when a cartridge not including CRUM memory is removed from and subsequently reinstalled in the image forming apparatus, the non-volatile memory is arranged to provide information on the amount of used toner in the reinstalled cartridge, and wherein whether the toner remaining in the cartridge is below a threshold amount is determined by using information on a number of dots used to print.
A headgear configured to secure an infant airway interface device to an infant's head comprising: a concave partial helmet having an outer surface and an inner surface and having a left lateral element , a right lateral element , a top portion and a back portion , wherein the left lateral element and the right lateral element are separated at a front half of the concave partial helmet by a void between the front half top portion of the concave partial helmet and the left lateral element and the right lateral element ; characterized in that the back portion of the concave partial helmet is rigid and when in use on the infant's head the top portion of the concave partial helmet terminates at the forehead of the infant's head with a front face of the top portion of the concave partial helmet that is proximal to the forehead having a stabilizer for supporting a hub and wherein the left lateral element and the right lateral element are structured to terminate on either side of the infant's face near a cheek portion without directly touching the cheek portion and wherein a section of the right lateral element and the left lateral element that is near the cheek portion includes an opening that permits passage of a strap from the outer surface to the inner surface and wherein the back portion of the inner surface of the concave partial helmet is separated from the infant's head by a pliable material that is attached to the inner surface of the concave partial helmet. a concave partial helmet having an outer surface and an inner surface and having a left lateral element , a right lateral element , a top portion and a back portion , wherein the left lateral element and the right lateral element are separated at a front half of the concave partial helmet by a void between the front half top portion of the concave partial helmet and the left lateral element and the right lateral element ; characterized in that the back portion of the concave partial helmet is rigid and when in use on the infant's head the top portion of the concave partial helmet terminates at the forehead of the infant's head with a front face of the top portion of the concave partial helmet that is proximal to the forehead having a stabilizer for supporting a hub and wherein the left lateral element and the right lateral element are structured to terminate on either side of the infant's face near a cheek portion without directly touching the cheek portion and wherein a section of the right lateral element and the left lateral element that is near the cheek portion includes an opening that permits passage of a strap from the outer surface to the inner surface and wherein the back portion of the inner surface of the concave partial helmet is separated from the infant's head by a pliable material that is attached to the inner surface of the concave partial helmet.
An apparatus for operating on tissue, the apparatus comprising: (a) a body assembly; (b) a shaft extending distally from the body assembly, wherein the shaft defines a longitudinal axis; (c) an articulation section coupled with the shaft; (d) an end effector coupled with the articulation section, wherein the end effector comprises: (i) a working element configured to engage tissue, and (ii) a clamp arm operable to pivot toward and away from the working element; and (e) a first pair of translating members , wherein the first pair of translating members is operable to actuate the articulation section to thereby deflect the end effector from the longitudinal axis; (f) a second pair of translating members , wherein the second pair of translating members is operable to drive the clamp arm toward and away from the working element; and (g) an idler configured to provide coordinated opposing longitudinal movement of the second pair of translating members in response to deflection of the end effector from the longitudinal axis. (a) a body assembly; (b) a shaft extending distally from the body assembly, wherein the shaft defines a longitudinal axis; (c) an articulation section coupled with the shaft; (d) an end effector coupled with the articulation section, wherein the end effector comprises: (i) a working element configured to engage tissue, and (ii) a clamp arm operable to pivot toward and away from the working element; and (i) a working element configured to engage tissue, and (ii) a clamp arm operable to pivot toward and away from the working element; and (e) a first pair of translating members , wherein the first pair of translating members is operable to actuate the articulation section to thereby deflect the end effector from the longitudinal axis; (f) a second pair of translating members , wherein the second pair of translating members is operable to drive the clamp arm toward and away from the working element; and (g) an idler configured to provide coordinated opposing longitudinal movement of the second pair of translating members in response to deflection of the end effector from the longitudinal axis.