mhurhangee/ep-ind-claims huggingface dataset:
An intraocular lens insertion system comprising: an intraocular lens insertion apparatus configured to use a predetermined driving force to move an intraocular lens and insert the intraocular lens into an eyeball; and a driving source configured to deliver the predetermined driving force to the intraocular lens insertion apparatus; characterised by: an irrigating solution infusion apparatus configured to infuse irrigating solution into the eyeball; an irrigating solution source configured to deliver the irrigating solution to the irrigating solution infusion apparatus; and a switching unit configured to switch in a multistage manner a control of a delivery of the irrigating solution from the irrigating solution source to the irrigating solution infusion apparatus and a control of a delivery of the predetermined driving force from the driving source to the intraocular lens insertion apparatus. an intraocular lens insertion apparatus configured to use a predetermined driving force to move an intraocular lens and insert the intraocular lens into an eyeball; and a driving source configured to deliver the predetermined driving force to the intraocular lens insertion apparatus; characterised by: an irrigating solution infusion apparatus configured to infuse irrigating solution into the eyeball; an irrigating solution source configured to deliver the irrigating solution to the irrigating solution infusion apparatus; and a switching unit configured to switch in a multistage manner a control of a delivery of the irrigating solution from the irrigating solution source to the irrigating solution infusion apparatus and a control of a delivery of the predetermined driving force from the driving source to the intraocular lens insertion apparatus. an irrigating solution infusion apparatus configured to infuse irrigating solution into the eyeball; an irrigating solution source configured to deliver the irrigating solution to the irrigating solution infusion apparatus; and a switching unit configured to switch in a multistage manner a control of a delivery of the irrigating solution from the irrigating solution source to the irrigating solution infusion apparatus and a control of a delivery of the predetermined driving force from the driving source to the intraocular lens insertion apparatus.
A combination of a trailed agricultural implement and a pulling vehicle coupled to the trailed agricultural implement, wherein the vehicle comprises a vehicle pressure output and a vehicle load sense system with a vehicle sense input, the vehicle load sense system adapted to communicate with a vehicle hydraulic pump that adjusts the vehicle hydraulic pressure at the vehicle pressure output, wherein the implement comprises a hydraulically-driven element and a valve configured to regulate an implement hydraulic pressure to the hydraulically-driven element, wherein the valve is configured to receive the vehicle hydraulic pressure from the vehicle pressure output of the vehicle and to communicate the implement hydraulic pressure to the vehicle load sense system of the vehicle by means of a valve sense output of the valve coupled to the vehicle sense input of the vehicle load sense system, the vehicle load sense system adapted to adjust the vehicle hydraulic pressure to correspond to the implement hydraulic pressure, characterized in that the hydraulically-driven element of the implement is a hydraulically-driven pump for moving a fluid at an actual fluid rate, that the valve is an electro-hydraulic valve that, by regulating the vehicle hydraulic pressure to the implement hydraulic pressure, adjusts the actual fluid rate of the fluid moved by the pump and that a controller is configured to determine the actual fluid rate and communicate with the electro-hydraulic valve to adjust the actual fluid rate to correspond to a desired flow rate.
Use of a dinitromethane salt as additive to an active pyrotechnic composition for increasing the intensity of radiation produced during the burnup of said composition and for increasing a ratio of the intensity of radiation emitted during burnup of the active composition in the wavelength range from 3.7 to 5.1 μm to the intensity of radiation emitted during burnup of the active composition in the wavelength range from 1.9 to 2.3 μm, a cation of the dinitromethane salt being a base comprising at least the elements nitrogen and hydrogen.
A microfabricated structure comprising: a deflectable membrane; a first clamping layer (114B, 114C) disposed on a first surface of the deflectable membrane; a second clamping layer (110B, 110C) disposed on a second surface of the deflectable membrane; a first perforated backplate disposed on the first clamping layer (114B, 114C); and a second perforated backplate disposed on the second clamping layer (110B, 110C), characterized in that the first clamping layer (114B, 114C) comprises a first tapered edge portion having a negative slope between the first perforated backplate and the deflectable membrane and forming, within the first clamping layer (114B, 114C), an acute angle with the deflectable membrane, and the first clamping layer (114B, 114C) comprises a second tapered edge portion having a positive slope between the first perforated backplate and the deflectable membrane and forming, within the first clamping layer (114B, 114C), an acute angle with the first perforated backplate. a deflectable membrane; a first clamping layer (114B, 114C) disposed on a first surface of the deflectable membrane; a second clamping layer (110B, 110C) disposed on a second surface of the deflectable membrane; a first perforated backplate disposed on the first clamping layer (114B, 114C); and a second perforated backplate disposed on the second clamping layer (110B, 110C), characterized in that the first clamping layer (114B, 114C) comprises a first tapered edge portion having a negative slope between the first perforated backplate and the deflectable membrane and forming, within the first clamping layer (114B, 114C), an acute angle with the deflectable membrane, and the first clamping layer (114B, 114C) comprises a second tapered edge portion having a positive slope between the first perforated backplate and the deflectable membrane and forming, within the first clamping layer (114B, 114C), an acute angle with the first perforated backplate.
A method performed in a base station of a wireless communications network, the method comprising: identifying a first downlink control channel assigned to a User Equipment, UE, in carrier aggregated communication between the base station and the UE using a first carrier component and a second carrier component; tracking physical downlink control channel, PDCCH, allocations, wherein PDCCH allocations determine physical uplink control channel, PUCCH, resources to be used by the UE, wherein the determined PUCCH resources include a first determined PUCCH resource for acknowledgement / negative acknowledgement, ACK/NACK, transmission corresponding to the first carrier component and a second determined PUCCH resource for ACK/NACK transmission corresponding to the second carrier component, and wherein the first and second PUCCH resources are on the same carrier component; determining, based on tracking the PDCCH allocations, that a PUCCH resource collision will occur at the UE between the first determined PUCCH resource and the second determined PUCCH resource; and assigning, to the UE, a second downlink control channel that replaces the first downlink control channel and avoids the PUCCH resource collision. identifying a first downlink control channel assigned to a User Equipment, UE, in carrier aggregated communication between the base station and the UE using a first carrier component and a second carrier component; tracking physical downlink control channel, PDCCH, allocations, wherein PDCCH allocations determine physical uplink control channel, PUCCH, resources to be used by the UE, wherein the determined PUCCH resources include a first determined PUCCH resource for acknowledgement / negative acknowledgement, ACK/NACK, transmission corresponding to the first carrier component and a second determined PUCCH resource for ACK/NACK transmission corresponding to the second carrier component, and wherein the first and second PUCCH resources are on the same carrier component; determining, based on tracking the PDCCH allocations, that a PUCCH resource collision will occur at the UE between the first determined PUCCH resource and the second determined PUCCH resource; and assigning, to the UE, a second downlink control channel that replaces the first downlink control channel and avoids the PUCCH resource collision.
A pipetting system comprising: - at least one pipette tip receptacle having a pipette tip arranged therein, which pipette tip extending along a vertical axis, - at least one gripper (1,2;5;6) comprising: - a mechanical coupling having a body extending along the vertical axis, the gripper with the coupling being connected to the at least one pipette tip receptacle, and - at least one gripping element (2;5;6) arranged laterally on the body of the coupling and extending vertically downwardly from the coupling and comprising at least one substantially vertical portion (20;50;60), wherein the coupling comprises in the body a through channel extending along the vertical axis over the entire length of the coupling and wherein the pipette tip extends at least partially along the through channel of the coupling. - at least one pipette tip receptacle having a pipette tip arranged therein, which pipette tip extending along a vertical axis, - at least one gripper (1,2;5;6) comprising: - a mechanical coupling having a body extending along the vertical axis, the gripper with the coupling being connected to the at least one pipette tip receptacle, and - at least one gripping element (2;5;6) arranged laterally on the body of the coupling and extending vertically downwardly from the coupling and comprising at least one substantially vertical portion (20;50;60), - a mechanical coupling having a body extending along the vertical axis, the gripper with the coupling being connected to the at least one pipette tip receptacle, and - at least one gripping element (2;5;6) arranged laterally on the body of the coupling and extending vertically downwardly from the coupling and comprising at least one substantially vertical portion (20;50;60),
A device in a rack oven for adjusting the distance between a support comprising horizontal heat preserving plates and a bread-carrying rack comprising levels of bread-supporting material, which device comprises a first connection point for connection to the heat preserving support inside the oven; a first driving arrangement for regulating the height of the first connection point and the heat preserving plates of said support from a first, passive position where bread supporting material is not in contact with the heat preserving plates to a second, active position where said bread-supporting material can be in contact with the heat preserving plates, characterised in a second driving arrangement including a second connection point for connection to the bread-carrying rack, wherein the second driving arrangement is arranged to adjust the height of the second connection point with respect to the first connection point in order to simultaneously adjust the distance between all the horizontal heat preserving plates of the support and the levels of bread-supporting material of the bread-carrying rack.
A method for estimating the vulcanization degree of a rubber compound, comprising a measuring process in which a measured vulcanization curve which is a change curve of the vulcanization degree of the rubber compound with vulcanizing time is obtained by actually measuring the shearing resistance (or torque) of the rubber compound during vulcanization, an invariable determining process in which values of the invariables K1, K2 and m of the following expression are determined which values minimize the error between the measured vulcanization curve and an estimated vulcanization curve which is a curve of the expression, ln 1 1 − X dX dt − K 1 = ln K 2 + m ln X wherein x: vulcanization degree t: vulcanizing time wherein the invariable determining process comprises an invariable calculating process in which each of different real numbers is assigned to the invariable K1 of the expression, wherein the real numbers are more than 0 and less than 1, and a linear expression, whose gradient and intercept are equal to m and K2 respectively, is transformed from the expression and is approximated to the measured vulcanization curve, and then from the approximated expression, a set of values of the invariables K1, K2 and m are obtained, whereby plural sets of the values corresponding to the respective real numbers are obtained, and a fitted curve determining process in which a plurality of the estimated vulcanization curves are obtained by assigning the plural sets of the values to the expression, and from a plurality of the estimated vulcanization curves, an estimated vulcanization curve 3s whose error from the measured vulcanization curve is smallest, is found out. x: vulcanization degree t: vulcanizing time
A method comprising: forwarding, from a first data-processing system, a call to a second data-processing system; receiving, at said first data-processing system, an indication from said second data processing system that said call has been answered; wherein in dependence on the time interval between: (i) when said call is forwarded to said second data processing system, and (ii) when said indication is received by said first data processing system that said call has been answered being no greater than a threshold; ending, at said first data-processing system, said call to said second data processing system; and forwarding said call to a voice mail system that is associated with said first data-processing system. forwarding, from a first data-processing system, a call to a second data-processing system; receiving, at said first data-processing system, an indication from said second data processing system that said call has been answered; wherein in dependence on the time interval between: (i) when said call is forwarded to said second data processing system, and (ii) when said indication is received by said first data processing system that said call has been answered being no greater than a threshold; (i) when said call is forwarded to said second data processing system, and (ii) when said indication is received by said first data processing system that said call has been answered being no greater than a threshold; ending, at said first data-processing system, said call to said second data processing system; and forwarding said call to a voice mail system that is associated with said first data-processing system.
A biometric image processing apparatus comprising: a touch panel; a biometric sensor configured to capture images of a part of a living body; a first calculation unit configured to calculate an amount of movement of the part of the living body that moves on the touch panel while coming into contact with the touch panel; a second calculation unit configured to calculate an amount of movement of each region in images captured by the biometric sensor in the period in which the part of the living body moves on the touch panel while coming into contact with the touch panel; and a detection unit configured to detect a noise region in the captured images based on a comparison, for the each region, between a change in the amount of movement calculated by the first calculation unit and a change in the amount of movement calculated by the second calculation unit, wherein the detection unit detects a region where the change in the amount of movement calculated by the second calculation unit does not match the change in the amount of movement calculated by the first calculation unit as the noise region. a touch panel; a biometric sensor configured to capture images of a part of a living body; a first calculation unit configured to calculate an amount of movement of the part of the living body that moves on the touch panel while coming into contact with the touch panel; a second calculation unit configured to calculate an amount of movement of each region in images captured by the biometric sensor in the period in which the part of the living body moves on the touch panel while coming into contact with the touch panel; and a detection unit configured to detect a noise region in the captured images based on a comparison, for the each region, between a change in the amount of movement calculated by the first calculation unit and a change in the amount of movement calculated by the second calculation unit, wherein the detection unit detects a region where the change in the amount of movement calculated by the second calculation unit does not match the change in the amount of movement calculated by the first calculation unit as the noise region.
A heat exchanger comprising: a plurality of parallel tubes for conveying a fluid, inlet and outlet core plates (11, 21), each having a plurality of openings into which respective ends of the tubes are inserted in a fluid-tight manner, and inlet and outlet header tanks (13, 23) joined to the inlet and outlet core plates (11, 21), respectively, in a fluid-tight manner, said inlet and outlet header tanks cooperating with the inlet and outlet core plates to form a fluid inlet chamber and a fluid outlet chamber, respectively, wherein fluid flow restricting means are provided on said inlet core plate, said fluid flow restricting means placing differentiated restrictions in front of the openings of the inlet core plate in such a way that said restrictions cooperate with the openings of the inlet core plate to define fluid flow passages having different flow cross-sections, wherein said flow restricting means comprise a flow distributing plate arranged on said inlet core plate, in said flow distributing plate there being formed a plurality of holes having different flow cross-sections, said holes being positioned in front of the openings of the inlet core plate, characterized in that a peripheral portion of the flow distributing plate is formed in one piece with a gasket interposed between the inlet core plate and the inlet header tank. a plurality of parallel tubes for conveying a fluid, inlet and outlet core plates (11, 21), each having a plurality of openings into which respective ends of the tubes are inserted in a fluid-tight manner, and inlet and outlet header tanks (13, 23) joined to the inlet and outlet core plates (11, 21), respectively, in a fluid-tight manner, said inlet and outlet header tanks cooperating with the inlet and outlet core plates to form a fluid inlet chamber and a fluid outlet chamber, respectively, wherein fluid flow restricting means are provided on said inlet core plate, said fluid flow restricting means placing differentiated restrictions in front of the openings of the inlet core plate in such a way that said restrictions cooperate with the openings of the inlet core plate to define fluid flow passages having different flow cross-sections, wherein said flow restricting means comprise a flow distributing plate arranged on said inlet core plate, in said flow distributing plate there being formed a plurality of holes having different flow cross-sections, said holes being positioned in front of the openings of the inlet core plate, characterized in that a peripheral portion of the flow distributing plate is formed in one piece with a gasket interposed between the inlet core plate and the inlet header tank.
An automatic working system, the automatic working system comprises a self-moving device, the self-moving device moving and working in a working area, comprising: an image detection module, detecting an environment around the self-moving device to generate an environmental image; a first recognition module, recognizing a specific object in the image based on the environmental image to generate a first recognition signal; a first communication module, selectively sending the environmental image and/or the first recognition signal to the server and receiving a second recognition signal corresponding to the environmental image; and a control module, controlling an action of the self-moving device based on the first recognition signal and/or the second recognition signal, wherein when the control module determines that the first recognition signal does not meet a preset condition, the control module controls the first communication module to send the environmental image to the server and receive the second recognition signal, wherein the preset condition comprises that the first recognition signal is generated within a first preset time. an image detection module, detecting an environment around the self-moving device to generate an environmental image; a first recognition module, recognizing a specific object in the image based on the environmental image to generate a first recognition signal; a first communication module, selectively sending the environmental image and/or the first recognition signal to the server and receiving a second recognition signal corresponding to the environmental image; and a control module, controlling an action of the self-moving device based on the first recognition signal and/or the second recognition signal, wherein when the control module determines that the first recognition signal does not meet a preset condition, the control module controls the first communication module to send the environmental image to the server and receive the second recognition signal, wherein the preset condition comprises that the first recognition signal is generated within a first preset time.
A method of plasma generation in liquids using the jet system consisting of a dielectric cylindrical rod with a first conically bevelled end and second plane end or with both ends plane, wherein an orifice with a diameter from 0.1 to 2 mm is made along the whole longitudinal axis of the rod, a metal electrode is inserted in the orifice from the plane end of the rod so that a free space is created between the electrode end and the other end of the cylindrical rod and the system further consists of a second electrode which is coaxially mounted to the dielectric cylindrical rod wherein one of the electrodes (2 or 4) is grounded, and a voltage of at least 700 V is applied to the other electrode (4 or 2), wherein the dielectric cylindrical rod and both electrodes (2,4) are immersed into a liquid with conductivity of 10 - 15 000 μS/cm, whereas the induced electric current passes through the liquid in the orifice of the dielectric cylindrical rod, in the free space between the end of the rod and the end of the electrode inside the rod microbubbles are created and an electric discharge in these microbubbles is ignited at the amplitude of voltage applied on the electrode (2 or 4), and consequently, the microbubbles expansion through the orifice in the dielectric cylindrical rod into the liquid induces plasma emitting electromagnetic radiation with the maximal wavelength of 1100 nm.
A heating installation for hydrocarbon extraction tubing via a well linking the surface to an extraction zone, comprising a substantially cylindrical casing consolidating said drill hole, a hydrocarbon extraction means and means to enable a hot fluid to be made to circulate from the surface to the well zone to be heated, wherein the circulation means comprise in the casing a first thermally insulated heating tubing open at its distal end to inject the hot fluid from the surface to the required depth and a second heating tubing closed at its distal end by a transversal wall and surrounding the first tubing to bring the hot fluid towards the surface and wherein the extraction means comprise a pumping tubing surrounding the first and second heating tubing (8, 11) for the extraction of hydrocarbons, characterised in that the first heating tubing is constituted by a first inner pipe surrounded by a second concentric outer pipe and an insulation housed in the space between the two pipes and in that the first heating tubing is fitted with an electric heating wire arranged against the inner wall of the inner pipe.