mhurhangee/ep-ind-claims huggingface dataset:
A 3D printer, comprising: a printing platform; a feeding component for switching ink cartridges containing different solution materials to the printing platform for inkjet printing; and a control component for controlling movement of the ink cartridge switched to the printing platform on the printing platform; wherein the feeding component comprises: a plurality of ink cartridges for respectively storing different solution materials; and a switching control device for responding to the instruction of the control component and switching the ink cartridge containing corresponding solution material to the printing platform according to the current printing step, characterised in that the feeding component further comprises: an auxiliary processing component capable of mutually switching with ink cartridges; and in that the switching control device is configured for responding to instructions of the control component and for switching the auxiliary processing component to the printing platform to complete the corresponding auxiliary processing. a printing platform; a feeding component for switching ink cartridges containing different solution materials to the printing platform for inkjet printing; and a control component for controlling movement of the ink cartridge switched to the printing platform on the printing platform; wherein the feeding component comprises: a plurality of ink cartridges for respectively storing different solution materials; and a switching control device for responding to the instruction of the control component and switching the ink cartridge containing corresponding solution material to the printing platform according to the current printing step, characterised in that the feeding component further comprises: an auxiliary processing component capable of mutually switching with ink cartridges; and in that the switching control device is configured for responding to instructions of the control component and for switching the auxiliary processing component to the printing platform to complete the corresponding auxiliary processing. a plurality of ink cartridges for respectively storing different solution materials; and a switching control device for responding to the instruction of the control component and switching the ink cartridge containing corresponding solution material to the printing platform according to the current printing step, characterised in that the feeding component further comprises: an auxiliary processing component capable of mutually switching with ink cartridges; and in that the switching control device is configured for responding to instructions of the control component and for switching the auxiliary processing component to the printing platform to complete the corresponding auxiliary processing. an auxiliary processing component capable of mutually switching with ink cartridges; and in that the switching control device is configured for responding to instructions of the control component and for switching the auxiliary processing component to the printing platform to complete the corresponding auxiliary processing.
A diagnostic device comprising: a generation circuit configured to generate an inspection signal, the inspection signal being an alternating current signal of a single frequency, a conversion circuit configured to convert, into a direct current signal, a response signal of a piezoelectric element in response to the inspection signal, a storage configured to store information related to a physical quantity measured by the piezoelectric element, and a controller configured to: analyze the direct current signal; in response to receiving an electrical signal corresponding to a physical quantity output from the piezoelectric element, cause the storage to store a measured value of the physical quantity calculated based on the electrical signal; determine, based on the analysis of the direct current signal, whether the piezoelectric element is operating normally, and while it is being determined whether the piezoelectric element is operating normally, outputs the measured value that is stored in the storage immediately before it is being determined whether the piezoelectric element is operating normally. a generation circuit configured to generate an inspection signal, the inspection signal being an alternating current signal of a single frequency, a conversion circuit configured to convert, into a direct current signal, a response signal of a piezoelectric element in response to the inspection signal, a storage configured to store information related to a physical quantity measured by the piezoelectric element, and a controller configured to: analyze the direct current signal; in response to receiving an electrical signal corresponding to a physical quantity output from the piezoelectric element, cause the storage to store a measured value of the physical quantity calculated based on the electrical signal; determine, based on the analysis of the direct current signal, whether the piezoelectric element is operating normally, and while it is being determined whether the piezoelectric element is operating normally, outputs the measured value that is stored in the storage immediately before it is being determined whether the piezoelectric element is operating normally. analyze the direct current signal; in response to receiving an electrical signal corresponding to a physical quantity output from the piezoelectric element, cause the storage to store a measured value of the physical quantity calculated based on the electrical signal; determine, based on the analysis of the direct current signal, whether the piezoelectric element is operating normally, and while it is being determined whether the piezoelectric element is operating normally, outputs the measured value that is stored in the storage immediately before it is being determined whether the piezoelectric element is operating normally.
A cleaning device (10; 18; 22) comprising at least one cleaning cloth of one type of material providing a wiping function, and a care label rotatably attached to an edge of the cleaning cloth, such that said care label can be turned in relation to the cloth, the care label comprising a first surface having care information thereon including information regarding how to wash the at least one cleaning cloth, and a second surface opposite the first care information surface, characterized in that said care label comprises a patch, which patch is attached to the care label on the second surface of said care label opposite the first care information surface of the care label, the patch comprising a material of a type having a different internal configuration than the material of the cleaning cloth and which provides a scrubbing function, wherein said care label and said patch are provided as separate pieces of material.
An induction heating system comprising: an induction heating device configured to move relative to a workpiece, to generate induction heat, and to direct the induction heat to the workpiece; and a travel sensor assembly configured to detect a position, movement, or direction of movement of the induction heating device relative to the workpiece, wherein the travel sensor assembly comprises a contacting detection mechanism adapted to contact the workpiece as the induction heating device moves relative to the workpiece; characterized in that the travel sensor assembly is removably detachable from the induction heating device; and that a force adjustment mechanism is configured to vary an amount of force between the contacting detection mechanism and the workpiece, wherein the force adjustment mechanism comprises a biasing member configured to enable the travel sensor assembly to maintain contact between the travel sensor assembly and the workpiece while maintaining detection of the position, movement or directon of movement of the induction heating device relative to the workpiece. an induction heating device configured to move relative to a workpiece, to generate induction heat, and to direct the induction heat to the workpiece; and a travel sensor assembly configured to detect a position, movement, or direction of movement of the induction heating device relative to the workpiece, wherein the travel sensor assembly comprises a contacting detection mechanism adapted to contact the workpiece as the induction heating device moves relative to the workpiece; characterized in that the travel sensor assembly is removably detachable from the induction heating device; and that a force adjustment mechanism is configured to vary an amount of force between the contacting detection mechanism and the workpiece, wherein the force adjustment mechanism comprises a biasing member configured to enable the travel sensor assembly to maintain contact between the travel sensor assembly and the workpiece while maintaining detection of the position, movement or directon of movement of the induction heating device relative to the workpiece.
An exposure apparatus for exposing a substrate with light from a projection optical system via liquid, the exposure apparatus comprising: a stage which is movable relative to the projection optical system, wherein: the stage comprises a substrate holder for holding the substrate and a mark for aligning the substrate when held by the substrate holder; the substrate holder has at least one peripheral wall and a supporting portion disposed in a space surrounded by the peripheral wall; the substrate holder is configured to hold said substrate on said supporting portion by applying a negative pressure to the space surrounded by said peripheral wall; the stage has a portion of which a height is substantially equal to a height of the surface of the substrate when held by the substrate holder; a concave portion in which the substrate holder is disposed is formed in a top surface of the stage; and the portion is provided between the mark and the concave portion. a stage which is movable relative to the projection optical system, wherein: the stage comprises a substrate holder for holding the substrate and a mark for aligning the substrate when held by the substrate holder; the substrate holder has at least one peripheral wall and a supporting portion disposed in a space surrounded by the peripheral wall; the substrate holder is configured to hold said substrate on said supporting portion by applying a negative pressure to the space surrounded by said peripheral wall; the stage has a portion of which a height is substantially equal to a height of the surface of the substrate when held by the substrate holder; a concave portion in which the substrate holder is disposed is formed in a top surface of the stage; and the portion is provided between the mark and the concave portion. the stage comprises a substrate holder for holding the substrate and a mark for aligning the substrate when held by the substrate holder; the substrate holder has at least one peripheral wall and a supporting portion disposed in a space surrounded by the peripheral wall; the substrate holder is configured to hold said substrate on said supporting portion by applying a negative pressure to the space surrounded by said peripheral wall; the stage has a portion of which a height is substantially equal to a height of the surface of the substrate when held by the substrate holder; a concave portion in which the substrate holder is disposed is formed in a top surface of the stage; and the portion is provided between the mark and the concave portion.
Method for assessing the risk of developing BK virus (BK-v) nephropathy in a renal transplant patient, said method comprising the following steps a) measuring the viral load of BK-v in a biological sample from said patient, b) measuring the normalized intensity of the BK-v virus-specific memory CD4 + or CD8 + T lymphocyte response in a biological sample from said patient, said normalization being performed with respect to the BK-v viral load measured in step a), and c) determining the differences in HLA alleles between the kidney donor and said patient, preferably the number incompatibilities between the HLA I and HLA II of the kidney donor and said patient, d) assessing the risk of developing BK virus (BK-v) nephropathy in a kidney transplant patient by combining the parameters determined in steps a), b) and c). a) measuring the viral load of BK-v in a biological sample from said patient, b) measuring the normalized intensity of the BK-v virus-specific memory CD4 + or CD8 + T lymphocyte response in a biological sample from said patient, said normalization being performed with respect to the BK-v viral load measured in step a), and c) determining the differences in HLA alleles between the kidney donor and said patient, preferably the number incompatibilities between the HLA I and HLA II of the kidney donor and said patient, d) assessing the risk of developing BK virus (BK-v) nephropathy in a kidney transplant patient by combining the parameters determined in steps a), b) and c).
A crosslapper, in particular disposed at the output of a carding device producing a web of fibres, in particular non-woven, comprising a front conveyor belt carrying the web of fibres into the crosslapper up to a storage carriage, a rear conveyor belt carrying the accumulated web to a lapping carriage and an output apron, the storage carriage being arranged to send the web of fibres towards the lapping carriage, and the latter being arranged to deposit the accumulated web sent back by the storage carriage to the apron at an angle, alternatively in one direction and in the other, relative to the lengthwise direction of the web, characterised in that the lapping carriage and/or the storage carriage is or are driven by a belt (90; 80) respectively of the lapping carriage and/or of the storage carriage, the two front and rear ends (91, 92; 81, 82) of which are respectively fixed to a front and a rear side of the respective carriage (9; 12).
A seamless steel pipe for a hollow spring, consisting of: C: 0.2 mass% to 0.7 mass%, Si: 0.5 mass% to 3 mass%, Mn: 0.1 mass% to 2 mass%, Cr: more than 0 mass% and 3 mass% or less, Al: more than 0 mass% and 0.1 mass% or less, P: more than 0 mass% and 0.02 mass% or less, S: more than 0 mass% and 0.02 mass% or less and N: more than 0 mass% and 0.02 mass% or less, optionally: B: more than 0 mass% and 0.015 mass% or less, optionally at least one kind selected from the group consisting of: V: more than 0 mass% and 1 mass% or less, Ti: more than 0 mass% and 0.3 mass% or less and Nb: more than 0 mass% and 0.3 mass% or less, optionally at least one kind selected from the group consisting of: Ni: more than 0 mass% and 3 mass% or less and Cu: more than 0 mass% and 3 mass% or less, optionally: Mo: more than 0 mass% and 2 mass% or less, optionally at least one kind selected from the group consisting of: Ca: more than 0 mass% and 0.005 mass% or less, Mg: more than 0 mass% and 0.005 mass% or less and REM: more than 0 mass% and 0.02 mass% or less, optionally at least one kind selected from the group consisting of: Zr: more than 0 mass% and 0.1 mass% or less, Ta: more than 0 mass% and 0.1 mass% or less and Hf: more than 0 mass% and 0.1 mass% or less, with the remainder being iron and unavoidable impurities, wherein a residual austenite content in an inner surface layer part of the steel pipe is 5 vol.% or less, an average grain size of a ferrite-pearlite structure in the inner surface layer part of the steel pipe is 18 μm or less and a number density of a carbide which has a circle equivalent diameter of 500 nm or more and is present in the inner surface layer part of the steel pipe is 1.8×10 -2 particles/μm 2 or less. C: 0.2 mass% to 0.7 mass%, Si: 0.5 mass% to 3 mass%, Mn: 0.1 mass% to 2 mass%, Cr: more than 0 mass% and 3 mass% or less, Al: more than 0 mass% and 0.1 mass% or less, P: more than 0 mass% and 0.02 mass% or less, S: more than 0 mass% and 0.02 mass% or less and N: more than 0 mass% and 0.02 mass% or less, B: more than 0 mass% and 0.015 mass% or less, V: more than 0 mass% and 1 mass% or less, Ti: more than 0 mass% and 0.3 mass% or less and Nb: more than 0 mass% and 0.3 mass% or less, Ni: more than 0 mass% and 3 mass% or less and Cu: more than 0 mass% and 3 mass% or less, Mo: more than 0 mass% and 2 mass% or less, Ca: more than 0 mass% and 0.005 mass% or less, Mg: more than 0 mass% and 0.005 mass% or less and REM: more than 0 mass% and 0.02 mass% or less, Zr: more than 0 mass% and 0.1 mass% or less, Ta: more than 0 mass% and 0.1 mass% or less and Hf: more than 0 mass% and 0.1 mass% or less,
A method for joining a first and a second surface part (10, 20) each having an outer face (11, 21) and an inner face (12, 22), wherein, in a first step, a lower portion (14, 24) is provided at each of two opposing joining regions (16, 26) of the surface parts (10, 20), wherein the lower portions (14, 24) are designed such that the level of the outer face (11, 21) in the region of said lower portions (14, 24) is below the level of the outer face (11, 21) of the adjoining regions of the respective surface parts (10, 21); wherein, in a further step, the two surface parts (10, 20) are positioned relative to one another using an adhesive such that the two lower portions (14, 24) form a cavity, either wherein one of the joining regions (16, 26) overlaps the other joining region (26, 16) in each case and wherein the adhesive is provided directly between the overlapping joining regions (16, 26), or wherein a joining aid is used, which at least partially overlaps the respective joining regions (16, 26) of the surface parts (10, 20) and wherein the adhesive is provided between the joining regions (16, 26) of the two surface parts (10, 20) and the joining aid in each case; wherein, in a further step, a mechanical joint (17, 27, 31, 35, 42) is used in the region of the cavity between the joining regions (16, 26) or, when using a joining aid, between the joining regions (16, 26) and the joining aid, to provide an assembly connection; wherein, in a further step, the cavity is filled with a filler in order to provide for leveling with respect to the level of the outer face (11, 21) of the adjoining regions of the respective surface parts (10, 20).
A computer-implemented method of determining a measure of wave intensity in a fluid conduit, the fluid conduit being part of the human or animal circulatory system, the method comprising: using ultrasound measurements to determine the conduit diameter, as a function of time, at a longitudinal position of the conduit; using ultrasound measurements to determine fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurement to determine fluid velocity being effected by tracking objects within the fluid flow in successive frames sampling the volume element, to obtain displacement vectors for the objects, the objects being tracked comprising red blood cells, white blood cells, platelets or contrast agent entities; determining a measure of wave intensity as a function of change in determined conduit diameter and corresponding change in fluid velocity. using ultrasound measurements to determine the conduit diameter, as a function of time, at a longitudinal position of the conduit; using ultrasound measurements to determine fluid velocity, as a function of time, in a volume element at said longitudinal position of the conduit, the ultrasound measurement to determine fluid velocity being effected by tracking objects within the fluid flow in successive frames sampling the volume element, to obtain displacement vectors for the objects, the objects being tracked comprising red blood cells, white blood cells, platelets or contrast agent entities; determining a measure of wave intensity as a function of change in determined conduit diameter and corresponding change in fluid velocity.
A screw-type solid-bowl centrifuge which has the following: - a rotatable drum with a tapering and a cylindrical region (9, 11), - a likewise rotatable screw with a screw body, - at least one main screw blade which multiply surrounds the screw body and forms a plurality of screw flights (X1, X2, X...,...), - the screw flights (X1, X2,...) forming a conveying path for transporting a centrifuging stock to be processed, - additional blade segments (27, 29) being arranged in the conveying path in portions in the screw flights, - and the screw blade being provided in the region of the screw blade segments (27, 29) with clearances which are designed in such a way that they allow a throughflow of the centrifuging stock between adjacent screw flights (X, X + 1,...), characterized in that - the blade segments (27, 29) are arranged in the conveying path in only a few, preferably in only two screw flights (X5, X6), - part of the blade segments in a first screw flight which lies nearer in the direction of a tapering portion than the other screw flight or screw flights with the blade segments being oriented so as to be turned forward in relation to the main screw blade, and - a further part of the blade segments in the next screw flight directly following axially further away from the tapering portion being formed preferably parallel to the main screw blade. - a rotatable drum with a tapering and a cylindrical region (9, 11), - a likewise rotatable screw with a screw body, - at least one main screw blade which multiply surrounds the screw body and forms a plurality of screw flights (X1, X2, X...,...), - the screw flights (X1, X2,...) forming a conveying path for transporting a centrifuging stock to be processed, - additional blade segments (27, 29) being arranged in the conveying path in portions in the screw flights, - and the screw blade being provided in the region of the screw blade segments (27, 29) with clearances which are designed in such a way that they allow a throughflow of the centrifuging stock between adjacent screw flights (X, X + 1,...), - the blade segments (27, 29) are arranged in the conveying path in only a few, preferably in only two screw flights (X5, X6), - part of the blade segments in a first screw flight which lies nearer in the direction of a tapering portion than the other screw flight or screw flights with the blade segments being oriented so as to be turned forward in relation to the main screw blade, and - a further part of the blade segments in the next screw flight directly following axially further away from the tapering portion being formed preferably parallel to the main screw blade.
A system, comprising: an electric submersible pump (ESP; 102); an ESP controller capable of varying a speed of the ESP; a processor; a memory; and a gas lock resolution module including a gas lock detector and characterised in being configured to eliminate a gas lock in the ESP by electrically communicating with the ESP controller while the ESP is operating as a pump when the gas lock detector senses an increase in electric submersible pump intake pressure. an electric submersible pump (ESP; 102); an ESP controller capable of varying a speed of the ESP; a processor; a memory; and a gas lock resolution module including a gas lock detector and characterised in being configured to eliminate a gas lock in the ESP by electrically communicating with the ESP controller while the ESP is operating as a pump when the gas lock detector senses an increase in electric submersible pump intake pressure.