mhurhangee/patent-ind-claim-en huggingface dataset:
Ring spinning machine for producing a core yarn , having: - a first material template for a fibre composite made of staple fibres; - at least one further material template for at least one thread to be fed to the fibre composite ; - a drawing frame for drawing the fibre composite ; - a clamping device having clamping rollers in contact with one another in a clamping line , wherein the clamping device is passed through by the fibre composite leaving the drawing frame and the at least one thread , and wherein both the fibre composite and the thread run between the clamping rollers ; - a rotation distribution device that twists the fibre composite leaving the clamping device and the at least one thread leaving the clamping device into a core yarn by wrapping the thread with the fibre composite ; wherein at least one surrounding groove that interrupts the clamping line is formed on the peripheral surface of at least one of the clamping rollers , said groove receiving the at least one thread as it runs between the clamping rollers , and guiding it past the clamping line without said thread being engaged via clamping by the clamping rollers in contact with one another, characterised in that the spacing of the at least one groove from the portion of the clamping line engaging the fibre composite by clamping can be varied according to the staple fibre length of the fibre composite by axially shifting the clamping roller having the groove . - a first material template for a fibre composite made of staple fibres; - at least one further material template for at least one thread to be fed to the fibre composite ; - a drawing frame for drawing the fibre composite ; - a clamping device having clamping rollers in contact with one another in a clamping line , wherein the clamping device is passed through by the fibre composite leaving the drawing frame and the at least one thread , and wherein both the fibre composite and the thread run between the clamping rollers ; - a rotation distribution device that twists the fibre composite leaving the clamping device and the at least one thread leaving the clamping device into a core yarn by wrapping the thread with the fibre composite ; wherein at least one surrounding groove that interrupts the clamping line is formed on the peripheral surface of at least one of the clamping rollers , said groove receiving the at least one thread as it runs between the clamping rollers , and guiding it past the clamping line without said thread being engaged via clamping by the clamping rollers in contact with one another, characterised in that
Method for storing information consisting of digital data on a data carrier and reading out the information from the data carrier , wherein the data carrier has an individual digital identifier , wherein, when storing, a signature generated from the individual identifier is filed, wherein the information has machine control data , wherein, when reading out via a first electronic data processing device , the signature is checked and the machine control data can only then be processed by a first electronic data processing device if the individual digital identifier and the signature are in a predetermined relationship to one another, wherein the first electronic data processing device is part of a food processor for food preparation that can be operated by an electric motor, wherein the machine control data comprise process parameters such as temperature, speed of the stirring mechanism and times of successive processing steps, and wherein the information has a food preparation recipe which is associated with the machine control data , can be reproduced in textual and/or pictorial form, and can be reproduced by a second electronic data processing device using a human-machine interface even if the signature and the identifier are not in the predetermined relationship to one another.
Apparatus for irrigation of lands, comprising a mobile unit to which an irrigation unit is coupled and is associated to a control unit adapted to control the irrigation unit , characterized in that a trenching device is coupled to said mobile unit , so that as said mobile unit moves from a water source (B), a channel (C) is dug which communicates with the water source (B) and, therefore, said channel (C) is filled with water so that the irrigation unit is directly fed by the channel just created and filled.
A system for automated model-based drilling comprising: a plurality of surface-based sensors configured to sense one or more rig parameters in real-time; a hydraulic modeler unit configured to generate a real-time model of an equivalent circulating density based on one or more rig parameters; a control module configured to continually determine whether the equivalent circulating density is within pre-determined safety margins of a safe pressure window; and a forward parameters simulator configured to, while the equivalent circulating density is within the pre-determined safety margins of the safe pressure window, determine an optimal sequence of drilling parameters to change and an optimal sequence of drilling parameter values by enumerating all permutations of sequential changes in drilling parameters, all combinations of drilling parameter value changes for each permutation, and the simulated equivalent circulating density for each; wherein the control module changes rig settings corresponding to the optimal sequence of drilling parameters to change in accordance with the optimal sequence of drilling parameter values automatically or outputs the optimal drilling parameter to change and the optimal drilling parameter value to a display for manual adjustment by a driller. a plurality of surface-based sensors configured to sense one or more rig parameters in real-time; a hydraulic modeler unit configured to generate a real-time model of an equivalent circulating density based on one or more rig parameters; a control module configured to continually determine whether the equivalent circulating density is within pre-determined safety margins of a safe pressure window; and a forward parameters simulator configured to, while the equivalent circulating density is within the pre-determined safety margins of the safe pressure window, determine an optimal sequence of drilling parameters to change and an optimal sequence of drilling parameter values by enumerating all permutations of sequential changes in drilling parameters, all combinations of drilling parameter value changes for each permutation, and the simulated equivalent circulating density for each; wherein the control module changes rig settings corresponding to the optimal sequence of drilling parameters to change in accordance with the optimal sequence of drilling parameter values automatically or outputs the optimal drilling parameter to change and the optimal drilling parameter value to a display for manual adjustment by a driller.
A screw press with a conveyor pipe in which a rotatable conveyor spiral is arranged, and with a conveyor-pipe cone to which the conveyor spiral conveys, wherein the conveyor spiral terminates at the transition from the conveyor spiral to the conveyor cone and drainage openings are arranged in the conveyor-pipe cone , characterized in that a temperature measuring device is arranged in the conveyor pipe and/or in the conveyor-pipe cone and that it comprises an adjustment device to adjust the size of a free passage area on the conveyor-pipe cone or, if a compactor is connected downstream of the conveyor-pipe cone , to adjust it on a compactor cone on the basis of the measured temperature, or to control the position or movement of movable flaps of the compactor on the basis of the measured temperature.
An aluminium alloy product comprising, in % by weight, Cu: 2.5-3.4; preferably 2.8-3.2; Li: 1.6-2.2; preferably 1.65-1.8; Mg: 0.4-0.9; preferably 0.5-0.8; Mn: 0.2-0.6; preferably 0.3-0.6; Zr: 0.08-0.18; preferably 0.12-0.16; Zn: <0.4, preferably 0.05-0.4; more preferably 0.2-0.4; Ag: <0.15; preferably <0.1; yet more preferably <0.05; Fe + Si ≤ 0.20; at least one element selected from Ti, Sc, Cr, Hf and V, the content of the element, if it is selected, being: Ti: 0.01 - 0.15; preferably 0.01-0.05; Sc: 0.01-0.15, preferably 0.02-0.1; Cr: 0.01 - 0.3, preferably 0.02-0.1; Hf: 0.01-0.5; preferably 0.02-0.1; V: 0.01-0.3, preferably 0.01-0.05; other elements ≤ 0.05 each and ≤ 0.15 in total, the rest being aluminium. Cu: 2.5-3.4; preferably 2.8-3.2; Li: 1.6-2.2; preferably 1.65-1.8; Mg: 0.4-0.9; preferably 0.5-0.8; Mn: 0.2-0.6; preferably 0.3-0.6; Zr: 0.08-0.18; preferably 0.12-0.16; Zn: <0.4, preferably 0.05-0.4; more preferably 0.2-0.4; Ag: <0.15; preferably <0.1; yet more preferably <0.05; Fe + Si ≤ 0.20; at least one element selected from Ti, Sc, Cr, Hf and V, the content of the element, if it is selected, being: Ti: 0.01 - 0.15; preferably 0.01-0.05; Sc: 0.01-0.15, preferably 0.02-0.1; Cr: 0.01 - 0.3, preferably 0.02-0.1; Hf: 0.01-0.5; preferably 0.02-0.1; V: 0.01-0.3, preferably 0.01-0.05; Ti: 0.01 - 0.15; preferably 0.01-0.05; Sc: 0.01-0.15, preferably 0.02-0.1; Cr: 0.01 - 0.3, preferably 0.02-0.1; Hf: 0.01-0.5; preferably 0.02-0.1; V: 0.01-0.3, preferably 0.01-0.05; other elements ≤ 0.05 each and ≤ 0.15 in total, the rest being aluminium.
A conveyor system including a cart that moves along a rail , the rail comprising: a top panel upon which a vertical wheel of the cart is supported; a first side panel defining a C-shaped channel within which a horizontal wheel of the cart is retained; and one or more connector rails extending along the rail , the cart electrically connected to the one or more connector rails. a top panel upon which a vertical wheel of the cart is supported; a first side panel defining a C-shaped channel within which a horizontal wheel of the cart is retained; and one or more connector rails extending along the rail , the cart electrically connected to the one or more connector rails.
A fuel assembly for a boiling water reactor, the fuel assembly extending along a fuel assembly axis (L) and comprising a base including a lower tie plate , a head including an upper tie plate and a lift handle , a bundle of fuel rods extending axially between the lower tie plate and the upper tie plate , and a water channel extending within the bundle of fuel rods with axially connecting the base to the head such that the load of the base is transferred to the head via the water channel forming a main load chain, wherein the fuel assembly further comprises a tie rod extending between the base and the head and forming an auxiliary load chain that transfers load between the base and the head in case of breakage of the main load chain defined by the water channel , the tie rod being axially fixed to the base and connected to the head via a connection assembly comprising a stopping member configured to abut an abutting surface of the head for limiting a downward movement of the base relative to the head during lifting of the fuel assembly , in case of a breakage of the water channel .
An agricultural working machine comprising an environment detecting device for surveying regions of an environment and one or more controllable functional elements , wherein the environment detecting device generates environment detecting signals which can be processed in a controlling and regulating device associated with the agricultural working machine , wherein the environment detecting device is configured as a scanner which scans the environment in scanning planes and wherein the control of functional elements is associated with each scanning plane , characterized in that the environment detecting device scans the region-wise surveyed environment in four scanning planes and wherein the environment surveyed in regions by the environment detecting device comprises a close range , a medium range , and remote range and zero, one or more scanning planes are associated with each region.
A power control method, comprising: computing a power value of device to device, D2D, transmission of a user equipment performing D2D communication in an i-th subframe in a serving cell; and transmitting a data signal at the computed power value to another user equipment , characterized in that the power value of D2D transmission is computed using a Transmit Power Command, TPC, command transmitted by a D2D grant by copying a power control adjustment state ƒ c ( i - 1) of a PUSCH uplink channel in a wide area network, WAN, (i-1)-th subframe previous to the i-th subframe, and using one of a first set of parameters for D2D transmission mode 1 and a second set of parameters for D2D transmission mode 2, wherein the D2D transmission mode 1 is a transmission mode where a scheduling of the D2D communication is performed by a base station, and the D2D transmission mode 2 is another transmission mode where a scheduling of the D2D communication is performed by the user equipment; and the first set of parameters and the second set of parameters are configured independently. computing a power value of device to device, D2D, transmission of a user equipment performing D2D communication in an i-th subframe in a serving cell; and transmitting a data signal at the computed power value to another user equipment , characterized in that the power value of D2D transmission is computed using a Transmit Power Command, TPC, command transmitted by a D2D grant by copying a power control adjustment state ƒ c ( i - 1) of a PUSCH uplink channel in a wide area network, WAN, (i-1)-th subframe previous to the i-th subframe, and using one of a first set of parameters for D2D transmission mode 1 and a second set of parameters for D2D transmission mode 2, wherein the D2D transmission mode 1 is a transmission mode where a scheduling of the D2D communication is performed by a base station, and the D2D transmission mode 2 is another transmission mode where a scheduling of the D2D communication is performed by the user equipment; and the first set of parameters and the second set of parameters are configured independently.
A washing machine comprising: a first rotary tub ; a first driver configured to rotate the first rotary tub ; a second rotary tub ; a second driver configured to rotate the second rotary tub ; and at least one processor configured to control the first driver and the second driver in a manner that the first rotary tub and the second rotary tub rotate, characterized in that the at least one processor is configured to control the second driver such that a rotation speed of the second rotary tub increases to a target speed (E10) when a rotation speed of the first rotary tub is equal to or higher than a first reference speed (F10) and control the second driver such that the rotation speed of the second rotary tub decreases when the rotation speed of the second rotary tub reaches the target speed. a first rotary tub ; a first driver configured to rotate the first rotary tub ; a second rotary tub ; a second driver configured to rotate the second rotary tub ; and at least one processor configured to control the first driver and the second driver in a manner that the first rotary tub and the second rotary tub rotate, characterized in that the at least one processor is configured to control the second driver such that a rotation speed of the second rotary tub increases to a target speed (E10) when a rotation speed of the first rotary tub is equal to or higher than a first reference speed (F10) and control the second driver such that the rotation speed of the second rotary tub decreases when the rotation speed of the second rotary tub reaches the target speed.
A vehicle radar system comprising at least one transceiver arrangement arranged to generate and transmit radar signals , and to receive reflected radar signals , where the transmitted radar signals have been reflected by one or more objects , where the radar system is arranged to provide azimuth angle (θ) and radial velocity (v r ) for a plurality of measurement points at said objects , where the radar system is arranged to calculate a difference between a minimum radial velocity (V rmin ', V rmin ") and maximum radial velocity (V rmax ', V rmax ") for said measurement points for a plurality of azimuth angle intervals, and to select those azimuth angle intervals (Δθ A , Δθ B ) where said difference exceeds a certain threshold,, characterized in that the radar system is arranged in a host vehicle and is arranged to calculate an estimation of a relative velocity (ΔV') in a certain direction between the host vehicle and another object , where the radar system is arranged to omit the measurement points (9', 9") in the selected angle intervals (Δθ A , Δθ B ) when performing said calculation.
A particle having a thickness in the range 0.7 to 5 microns and having a width in the range of 1 to 15 microns, the particle including a plurality of stacked sub-structures, each sub-structure including a stack of graphene layers, in which the separation between successive stacked sub-structures is greater than the separation between successive graphene layers in each sub-structure; wherein the separation between successive stacked sub-structures is in the range 2 to 100nm; the sub-structures each have a stack thickness which is in the range 0.7 to 15nm; and wherein the sub-structures have a nett negative charge.
A method for producing a dialkyl carbonate by reacting at least one of urea and alkyl carbamate with an aliphatic alcohol in the presence of a catalyst, the method comprising: a gas introduction step in which a gas for expelling ammonia generated by the reaction is introduced into a reactor in which the reaction is being conducted; and a discharge step in which the ammonia generated in the reactor and the introduced gas are simultaneously discharged, wherein the dialkyl carbonate has an alkyl group having 2 to 4 carbon atoms, the reaction being conducted so that the gas introduction step satisfies formula below: 52.0 < A + B × 22400 + L × M / 17.03 × 22400 / L < 91.0 wherein A, B, L and M are as defined below: A: an amount of decrease in urea per unit time [mol/min] B: an amount of increase in the dialkyl carbonate per unit time [mol/min] L: an amount of the aliphatic alcohol contained in a liquid condensed in a condenser tube and refluxed to the reactor per unit time [g/min] M: the solubility of ammonia in the aliphatic alcohol (ROH) at a condenser tube temperature and under a pressure condition at the time of conducting the reaction [NH 3 -g/ROH-g] a gas introduction step in which a gas for expelling ammonia generated by the reaction is introduced into a reactor in which the reaction is being conducted; and a discharge step in which the ammonia generated in the reactor and the introduced gas are simultaneously discharged, wherein the dialkyl carbonate has an alkyl group having 2 to 4 carbon atoms, the reaction being conducted so that the gas introduction step satisfies formula below: 52.0 < A + B × 22400 + L × M / 17.03 × 22400 / L < 91.0 wherein A, B, L and M are as defined below: A: an amount of decrease in urea per unit time [mol/min] B: an amount of increase in the dialkyl carbonate per unit time [mol/min] L: an amount of the aliphatic alcohol contained in a liquid condensed in a condenser tube and refluxed to the reactor per unit time [g/min] M: the solubility of ammonia in the aliphatic alcohol (ROH) at a condenser tube temperature and under a pressure condition at the time of conducting the reaction [NH 3 -g/ROH-g] A: an amount of decrease in urea per unit time [mol/min] B: an amount of increase in the dialkyl carbonate per unit time [mol/min] L: an amount of the aliphatic alcohol contained in a liquid condensed in a condenser tube and refluxed to the reactor per unit time [g/min] M: the solubility of ammonia in the aliphatic alcohol (ROH) at a condenser tube temperature and under a pressure condition at the time of conducting the reaction [NH 3 -g/ROH-g]
An in vitro method for diagnosing or identifying gastric cancer in a subject, said method comprising determining the level or amount of methylation of the MSC-AS1 gene and of at least one gene selected from the group consisting of : the ZNF790-AS1 gene and the KCNA3 gene, in a biological sample of said subject.
A system for heating a sample comprising: a heated stage assembly configured to be attached to a microscope stage holder , the heated stage assembly configured to position the sample over an objective lens of the microscope stage holder , the heated stage assembly comprising: a mounting adapter element for attaching the heated stage assembly to the microscope stage holder; a sample holder element mounted within the mounting adapter element , the sample holder element including a first surface opposed to a second surface , the first surface including a sample receiving area configured to receive a microscope slide ; one or more heating elements attached to the mounting adapter element ; and a thermally conducting optical window holder element disposed on the first surface and positioned above the sample receiving area and at least partially enclosing an optical window element of the system, wherein the optical window element is configured to contact the sample and is configured to be heated by the thermally conducting optical window holder element configured to uniformly distribute heat to the sample, characterised in that the one or more heating elements are in contact with at least a portion of the second surface . a mounting adapter element for attaching the heated stage assembly to the microscope stage holder; a sample holder element mounted within the mounting adapter element , the sample holder element including a first surface opposed to a second surface , the first surface including a sample receiving area configured to receive a microscope slide ; one or more heating elements attached to the mounting adapter element ; and a thermally conducting optical window holder element disposed on the first surface and positioned above the sample receiving area and at least partially enclosing an optical window element of the system, wherein the optical window element is configured to contact the sample and is configured to be heated by the thermally conducting optical window holder element configured to uniformly distribute heat to the sample,
Cracking furnace comprising both a vertical tubular enclosure that includes an inlet for introducing a gas for treatment and an outlet for discharging said gas from the enclosure, and also means for heating said gas that comprise a heater tube extending vertically inside the enclosure and coaxially with the enclosure, the heater tube being shaped so as to have its bottom end closed and being arranged so that its bottom end is arranged inside the enclosure and so that its top end is connected to a burner of the heater means, which burner is arranged outside the enclosure, comprising removal means for removing unwanted solid particles contained in the gas for treatment, wherein said removal means comprise a filter extending vertically inside the enclosure , coaxially with said enclosure and with the heater tube , so that the heater tube extends inside the filter inside the enclosure, so that the enclosure and the heater tube define between them an inside space forming a treatment zone for treating the gas and so that the filter and the heater tube further define between them a filtering zone for filtering the gas, the inlet opening out into said zone for filtering the gas and the outlet opening out into the treatment zone and outside the filtering zone .