mhurhangee/patent-ind-claim-en huggingface dataset:
An image recording apparatus comprising: a laser emitting device configured to emit laser beams emitted from a plurality of laser light-emitting elements ; an optical fiber array including a plurality of optical fibers provided corresponding to the laser light-emitting elements and configured to guide the laser beams emitted from the laser light-emitting elements to a recording object that relatively moves with respect to the laser emitting device, laser emitting portions of the respective optical fibers being arrayed in an array form in a predetermined direction; an image recording unit configured to control the laser emitting device so as to irradiate the recording object which relatively moves with respect to the laser emitting device in a direction different from the predetermined direction, with laser beams via the optical fiber array, to heat the recording object and record an image; and characterized by an amplitude measurement unit configured to measure amplitude of vibration in a direction orthogonal to a conveying direction of the recording-object conveying unit, wherein the image recording unit is configured to record an image on the recording object, based on a measurement result of the amplitude measurement unit, wherein the image recording unit is configured to record the image on the recording object while amplitude of vibration of the recording object is equal to or less than a threshold. a laser emitting device configured to emit laser beams emitted from a plurality of laser light-emitting elements ; an optical fiber array including a plurality of optical fibers provided corresponding to the laser light-emitting elements and configured to guide the laser beams emitted from the laser light-emitting elements to a recording object that relatively moves with respect to the laser emitting device, laser emitting portions of the respective optical fibers being arrayed in an array form in a predetermined direction; an image recording unit configured to control the laser emitting device so as to irradiate the recording object which relatively moves with respect to the laser emitting device in a direction different from the predetermined direction, with laser beams via the optical fiber array, to heat the recording object and record an image; and characterized by an amplitude measurement unit configured to measure amplitude of vibration in a direction orthogonal to a conveying direction of the recording-object conveying unit, wherein the image recording unit is configured to record an image on the recording object, based on a measurement result of the amplitude measurement unit, wherein the image recording unit is configured to record the image on the recording object while amplitude of vibration of the recording object is equal to or less than a threshold.
A method of making a deployable antenna having a support and a collector , the support including an outer frame and ribs traversing an enclosed space within a perimeter of the outer frame and providing support for a reflective surface of a reflector , and struts to couple component parts, the method comprising: providing a plurality of carbon fibers of an appropriate length; applying a resin to the plurality of carbon fibers to create resin carbon fibers; providing a mandrel having channels in the desired shape of the support ; positioning the resin carbon fibers within a channel of the mandrel; repeating the steps of providing a plurality of carbon fibers, and applying a resin to the carbon fibers, and positioning the resin carbon fibers within another channel of the mandrel until all desired channels of the mandrel are filled with resin impregnated fibers; curing the resin impregnated fibers within the mandrel to create the support ; removing the support from the mandrel; and coupling a membrane to the support to create the collector , such that the outer frame and/or the ribs and/or the struts are formed of a shape memory composite material which includes a base material of the carbon fibers which are generally aligned along a length of the structure of that component part and the resin forms a matrix around or between the base material. providing a plurality of carbon fibers of an appropriate length; applying a resin to the plurality of carbon fibers to create resin carbon fibers; providing a mandrel having channels in the desired shape of the support ; positioning the resin carbon fibers within a channel of the mandrel; repeating the steps of providing a plurality of carbon fibers, and applying a resin to the carbon fibers, and positioning the resin carbon fibers within another channel of the mandrel until all desired channels of the mandrel are filled with resin impregnated fibers; curing the resin impregnated fibers within the mandrel to create the support ; removing the support from the mandrel; and coupling a membrane to the support to create the collector , such that the outer frame and/or the ribs and/or the struts are formed of a shape memory composite material which includes a base material of the carbon fibers which are generally aligned along a length of the structure of that component part and the resin forms a matrix around or between the base material.
A memory device comprising: a memory array ; on-die error checking and correction, ECC, circuitry having a counter to accumulate an error count, the error count to be incremented in response to detection of an error in any of multiple rows of the memory array, wherein the on-die ECC circuitry is configured to generate an error result to store in an error count register of the memory device as a difference between the accumulated error count and a non-zero baseline number of errors to represent a number of previously detected errors for the multiple rows. a memory array ; on-die error checking and correction, ECC, circuitry having a counter to accumulate an error count, the error count to be incremented in response to detection of an error in any of multiple rows of the memory array, wherein the on-die ECC circuitry is configured to generate an error result to store in an error count register of the memory device as a difference between the accumulated error count and a non-zero baseline number of errors to represent a number of previously detected errors for the multiple rows.
A container configured for use with a food processing system , comprising: a container body configurable with a food processing base ; a chamber defined by said container body ; a collar configured to associate said container body with said food processing base , wherein said collar is removably couplable to a cutting assembly ; and a pressure relief mechanism associated with said container body and configured to relieve pressure when a pressure within said chamber exceeds a defined pressure threshold, wherein said pressure relief mechanism is formed as part of said collar , characterized in that the pressure relief mechanism is configured to plastically deform when said pressure within said chamber exceeds said defined pressure threshold, and includes one or more areas having a reduced wall thickness relative to the remainder of the collar . a container body configurable with a food processing base ; a chamber defined by said container body ; a collar configured to associate said container body with said food processing base , wherein said collar is removably couplable to a cutting assembly ; and a pressure relief mechanism associated with said container body and configured to relieve pressure when a pressure within said chamber exceeds a defined pressure threshold, wherein said pressure relief mechanism is formed as part of said collar , characterized in that the pressure relief mechanism is configured to plastically deform when said pressure within said chamber exceeds said defined pressure threshold, and includes one or more areas having a reduced wall thickness relative to the remainder of the collar .
A method of assisting a treatment procedure, the method comprising the steps of generating, using an x-ray device, a plurality of 2-D projection images of a body of interest from different angles relative to the body of interest; generating, using a camera, an image representing an outer surface of the body of interest; processing the image data generated by the x-ray device and the image data generated by the camera, wherein the processing further includes: reconstructing a 3-D x-ray image from the plurality of 2-D projection images; determining a 3-D intervention vector in relation to an inner body structure of a body of interest based on the 3-D x-ray image, receiving an additional 2-D projection image with a projection direction being transverse to the intervention vector; registering the additional 2-D projection image with the 3-D x-ray image or at least with a corresponding 2-D projection image from the plurality of 2-D projection images; determining a deviation in a position and/or orientation of the inner body structure from the registered images; calculating a new intervention vector, based on the determined deviation, determining a 3-D position of an insertion point on the outer surface of the body of interest based on the new intervention vector, and indicating the insertion point in the camera image. reconstructing a 3-D x-ray image from the plurality of 2-D projection images; determining a 3-D intervention vector in relation to an inner body structure of a body of interest based on the 3-D x-ray image, receiving an additional 2-D projection image with a projection direction being transverse to the intervention vector; registering the additional 2-D projection image with the 3-D x-ray image or at least with a corresponding 2-D projection image from the plurality of 2-D projection images; determining a deviation in a position and/or orientation of the inner body structure from the registered images; calculating a new intervention vector, based on the determined deviation, determining a 3-D position of an insertion point on the outer surface of the body of interest based on the new intervention vector, and indicating the insertion point in the camera image.
A copper alloy for an electronic and electric device comprising: Mg in a range of 0.1 mass% or more and less than 0.5 mass%; optionally P in a range of 1 mass ppm or more and less than 100 mass ppm; optionally Sn in a range of 10 mass ppm or more and less than 1000 mass ppm; less than 4 mass ppm of H; less than 10 mass ppm of O; less than 40 mass ppm of S; and a Cu balance including inevitable impurities, wherein a graph, in which a vertical axis is dσ t /dε t and a horizontal axis is a true strain ε t , dσ t /dε t being defined by a true stress σ t and the true strain ε t , obtained in a tensile test of the copper alloy, has a strained region that has a positive slope of dσ t /dε t wherein the true stress σ t is obtained by a formula and the true strain ε t , obtained by a formula , σ t = σ n 1 + ε n ε t = ln 1 + ε n wherein in the tensile test for measuring 0.2% yield strength by an offset method of JIS Z 2241 using strips sampling No. 13B test specimen specified in JIS Z 2201, F is defined as a load, S 0 is defined as an initial cross-sectional area of the No. 13B test specimen, L 0 is defined as an initial longitudinal length, ΔL is defined as an elongation from a beginning in the tensile test, wherein in a result of the tensile test, a conventional stress σ n is a value in which the load F is divided by the initial cross-sectional area S 0 , a normal strain ε n is a value in which the elongation ΔL is divided by the initial longitudinal length L 0 , and wherein the copper alloy has 300 MPa or more of a 0.2% proof stress and 70% IACS or more of a conductivity. Mg in a range of 0.1 mass% or more and less than 0.5 mass%; optionally P in a range of 1 mass ppm or more and less than 100 mass ppm; optionally Sn in a range of 10 mass ppm or more and less than 1000 mass ppm; less than 4 mass ppm of H; less than 10 mass ppm of O; less than 40 mass ppm of S; and a Cu balance including inevitable impurities, wherein a graph, in which a vertical axis is dσ t /dε t and a horizontal axis is a true strain ε t , dσ t /dε t being defined by a true stress σ t and the true strain ε t , obtained in a tensile test of the copper alloy, has a strained region that has a positive slope of dσ t /dε t wherein the true stress σ t is obtained by a formula and the true strain ε t , obtained by a formula , σ t = σ n 1 + ε n ε t = ln 1 + ε n wherein in the tensile test for measuring 0.2% yield strength by an offset method of JIS Z 2241 using strips sampling No. 13B test specimen specified in JIS Z 2201, F is defined as a load, S 0 is defined as an initial cross-sectional area of the No. 13B test specimen, L 0 is defined as an initial longitudinal length, ΔL is defined as an elongation from a beginning in the tensile test, wherein in a result of the tensile test, a conventional stress σ n is a value in which the load F is divided by the initial cross-sectional area S 0 , a normal strain ε n is a value in which the elongation ΔL is divided by the initial longitudinal length L 0 , and wherein the copper alloy has 300 MPa or more of a 0.2% proof stress and 70% IACS or more of a conductivity.
Method for operating a sensor system having at least one ultrasonic sensor and at least one control device, in which data are transmitted from the at least one ultrasonic sensor to the control device in a current-modulated manner and data are transmitted from the control device to the at least one ultrasonic sensor in a voltage-modulated manner, characterized in that an oscillator frequency in the at least one ultrasonic sensor is corrected using the measured transmission time of a dedicated communication command.
Use of a device for the treatment of a container blow-molded from plastic to reduce undesired adhesive properties of contact surfaces of the container, wherein the container comprises at least a standing surface and a lateral surface , wherein the lateral surface is arranged at least partially parallel to a longitudinal axis (X) of the container which is perpendicular to the standing surface , and wherein the lateral surface comprises at least one contact surface , and wherein the contact surfaces of two containers get at least partially into contact with one another in a compact contacting arrangement of the containers side by side, wherein the device comprises at least one active means for changing the physical surface properties of the contact surfaces of the container , wherein physical properties of the contact surfaces of the container are changed by mechanical action of the active means on the contact surfaces , so that tacky adhesive properties of the contact surfaces of the container are reduced, wherein the containers move past the active means along the conveying direction during operation and are thereby rotating, whereby the contact surfaces of the containers swipe past the active means . wherein the container comprises at least a standing surface and a lateral surface , wherein the lateral surface is arranged at least partially parallel to a longitudinal axis (X) of the container which is perpendicular to the standing surface , and wherein the lateral surface comprises at least one contact surface , and wherein the contact surfaces of two containers get at least partially into contact with one another in a compact contacting arrangement of the containers side by side, wherein the device comprises at least one active means for changing the physical surface properties of the contact surfaces of the container , wherein physical properties of the contact surfaces of the container are changed by mechanical action of the active means on the contact surfaces , so that tacky adhesive properties of the contact surfaces of the container are reduced, wherein the containers move past the active means along the conveying direction during operation and are thereby rotating, whereby the contact surfaces of the containers swipe past the active means .
System for digitally monitoring a pressure vessel for holding compressed gas, wherein the system comprises a sensor unit placeable on the pressure vessel for gathering information regarding the condition of the pressure vessel , a communication unit for wirelessly communicating the gathered information to a receiver wherein the sensor unit comprises: • a temperature sensor for measuring the temperature of the pressure vessel , • a gas pressure sensor , • at least one power unit for supplying power to the sensors and the communication unit , characterised in that the sensor unit is in the form of a strip adapted to extend substantially the vertical length of the pressure vessel . • a temperature sensor for measuring the temperature of the pressure vessel , • a gas pressure sensor , • at least one power unit for supplying power to the sensors and the communication unit ,
A portable waste treatment apparatus for treating hydro-excavation waste comprising an elongate frame formed from separable upper and lower frame sections mounted upon one another, the upper frame section housing a mixing tank for receiving waste slurry and mixing the waste slurry with flocculating and/or coagulating agents, a thickener tank receiving waste slurry from the mixing tank , and a dewatering device for dewatering sludge collected in the thickener tank , the lower frame section housing a buffer tank arranged to receive sludge from a sludge outlet of the thickener tank , a pump for pumping said sludge to said dewatering device and a water tank arranged to receive water overflowing from the thickener tank , wherein the buffer tank and water tank are arranged to receive sludge and water respectively from the thickener tank under gravity.
An online thickness detection platform, comprising: a main frame having a first beam and a second beam extending in a first horizontal direction (X) and opposite to each other in a vertical direction perpendicular to the first horizontal direction (X); a C-typed frame slidably mounted on the main frame and having a first arm and a second arm extending in the first horizontal direction (X) and opposite to each other in the vertical direction; a first laser sensor and a second laser sensor mounted on the first arm and the second arm of the C-typed frame , respectively; and a driving mechanism mounted on the main frame and adapted to drive the C-typed frame to slide back and forth in the first horizontal direction (X), wherein the first laser sensor and the second laser sensor are configured to detect a thickness of a product passing between the first arm and the second arm and moving in a second horizontal direction (Y) perpendicular to the first horizontal direction (X), wherein the first laser sensor and the second laser sensor do not contact the product during detecting the thickness of the product , wherein the first arm of the C-typed frame is slidably mounted on the first beam of the main frame ; and wherein the driving mechanism drives the second arm of the C-typed frame , so that the first arm and the second arm of the C-typed frame move back and forth synchronously in the first horizontal direction (X). a main frame having a first beam and a second beam extending in a first horizontal direction (X) and opposite to each other in a vertical direction perpendicular to the first horizontal direction (X); a C-typed frame slidably mounted on the main frame and having a first arm and a second arm extending in the first horizontal direction (X) and opposite to each other in the vertical direction; a first laser sensor and a second laser sensor mounted on the first arm and the second arm of the C-typed frame , respectively; and a driving mechanism mounted on the main frame and adapted to drive the C-typed frame to slide back and forth in the first horizontal direction (X), wherein the first laser sensor and the second laser sensor are configured to detect a thickness of a product passing between the first arm and the second arm and moving in a second horizontal direction (Y) perpendicular to the first horizontal direction (X), wherein the first laser sensor and the second laser sensor do not contact the product during detecting the thickness of the product , wherein the first arm of the C-typed frame is slidably mounted on the first beam of the main frame ; and wherein the driving mechanism drives the second arm of the C-typed frame , so that the first arm and the second arm of the C-typed frame move back and forth synchronously in the first horizontal direction (X).
An endometrial sampling apparatus , comprising: a handle having a distal end and a longitudinal axis; an elongate wand extending outwardly from the distal end of the handle substantially along the longitudinal axis, wherein the wand has an exterior surface, a front end and a back end , and the back end is fixedly mounted to the distal end of the handle ; an actuator member rotatively coupled to the distal end of the handle , the actuator member defining an opening at a first end that is sized to rotatively receive a portion of the wand ; and a sheath member selectively encapsulating a portion of the wand and fixedly mounted to a portion of the wand proximate the front end of the wand and to a portion of the first end of the actuator member , wherein the sheath member defines a slit on a distal end portion of the sheath member , the slit being bordered by opposing edges (842; 843), wherein the slit is selectively movable between a closed position, in which the opposing edges (842; 843) of the slit substantially adjoin to substantially seal a sample collection cavity , and an open position, in which the opposing edges (842; 843) of the slit are spaced from each other for selectively obtaining a endometrial sample when positioned within a uterine cavity, wherein the apparatus is configured to provide suction to enhance collection down a proximal end of the wand and/or for removal of a sample collected from the apparatus . a handle having a distal end and a longitudinal axis; an elongate wand extending outwardly from the distal end of the handle substantially along the longitudinal axis, wherein the wand has an exterior surface, a front end and a back end , and the back end is fixedly mounted to the distal end of the handle ; an actuator member rotatively coupled to the distal end of the handle , the actuator member defining an opening at a first end that is sized to rotatively receive a portion of the wand ; and a sheath member selectively encapsulating a portion of the wand and fixedly mounted to a portion of the wand proximate the front end of the wand and to a portion of the first end of the actuator member , wherein the sheath member defines a slit on a distal end portion of the sheath member , the slit being bordered by opposing edges (842; 843), wherein the slit is selectively movable between a closed position, in which the opposing edges (842; 843) of the slit substantially adjoin to substantially seal a sample collection cavity , and an open position, in which the opposing edges (842; 843) of the slit are spaced from each other for selectively obtaining a endometrial sample when positioned within a uterine cavity, wherein the apparatus is configured to provide suction to enhance collection down a proximal end of the wand and/or for removal of a sample collected from the apparatus .