mhurhangee/ep-ind-claims huggingface dataset:
A power factor correction stage comprising: an input terminal configured to receive an input signal; an output terminal configured to provide an output signal; a first converter stage and one or more further converter stages, wherein each of the converter stages (510, 512) is connected to the input terminal and the output terminal, and each converter stage comprises a switch (522, 524); and a controller configured to operate the switches (522, 524) of the converter stages (510, 512); wherein the controller is configured to operate the switch of the one or more further converter stages at a period of time after operation of the switch of the first converter stage for a current switching cycle, characterized in that the period of time corresponds to a proportion of the switching frequency fs for an earlier switching cycle that does not correspond to substantially the period of the earlier switching cycle divided by the number n of interleaved or parallel converter stages, i.e. the period of time varies by 1%, 2%, 3%, 5%, 10% or more, from the time period corresponding to an input terminal configured to receive an input signal; an output terminal configured to provide an output signal; a first converter stage and one or more further converter stages, wherein each of the converter stages (510, 512) is connected to the input terminal and the output terminal, and each converter stage comprises a switch (522, 524); and a controller configured to operate the switches (522, 524) of the converter stages (510, 512); wherein the controller is configured to operate the switch of the one or more further converter stages at a period of time after operation of the switch of the first converter stage for a current switching cycle, characterized in that the period of time corresponds to a proportion of the switching frequency fs for an earlier switching cycle that does not correspond to substantially the period of the earlier switching cycle divided by the number n of interleaved or parallel converter stages, i.e. the period of time varies by 1%, 2%, 3%, 5%, 10% or more, from the time period corresponding to
Device for treating a plate element, in a packaging production machine, the element moving at an operating speed, comprising - a hub rotating with respect to a substantially horizontal and transverse rotation axis, - two tools with a cutting blade (57, 58), mounted on the hub, and capable of cutting the element in a respective cutting position, and - drive means, capable of driving the hub and the two tools (57, 58) in rotation, and - a counter-tool, rotating with respect to a rotation axis that is substantially horizontal, transverse and parallel to the rotation axis of the hub, the element being engaged between the tools (57, 58) and the counter-tool, a speed of rotation of the hub that varies during a rotation cycle of the hub, by having - two constant-speed phases (67, 68), substantially equal to the operating speed, and during which each of the two tools (57, 58) is in the cutting position for successively cutting the element, and - at least one variable-speed phase (69, 71, 72, 74), during which each of the two tools (57, 58) is in an intermediate position between the respective cutting positions of each of the two tools (57, 58), characterised in that it is mounted on a lateral side of the packaging production machine, and in that the hub and the two tools (57, 58) are cantilevered above the element, in such a way as to produce a front lateral transverse cutting position and a rear lateral transverse cutting position on the element. - a hub rotating with respect to a substantially horizontal and transverse rotation axis, - two tools with a cutting blade (57, 58), mounted on the hub, and capable of cutting the element in a respective cutting position, and - drive means, capable of driving the hub and the two tools (57, 58) in rotation, and - a counter-tool, rotating with respect to a rotation axis that is substantially horizontal, transverse and parallel to the rotation axis of the hub, the element being engaged between the tools (57, 58) and the counter-tool, - two constant-speed phases (67, 68), substantially equal to the operating speed, and during which each of the two tools (57, 58) is in the cutting position for successively cutting the element, and - at least one variable-speed phase (69, 71, 72, 74), during which each of the two tools (57, 58) is in an intermediate position between the respective cutting positions of each of the two tools (57, 58),
A hot-melt coating method, in which disperse material is coated with a coating material to form a product consisting of surface-stable individual parts, characterized in that the coating material has a composition with at least 98 % by weight of one or more polyglycerol fatty acid esters each obtainable by complete or partial esterification of a linear or branched polyglycerol containing two to eight glycerol units with one or more fatty acid, each containing 6 to 22 carbon atoms, as the main constituent as a percentage by weight, wherein the gas or gas mixture used simultaneously to the spraying of the coating material has a temperature only 1°C to 3°C below the solidification temperature of the coating material during the spraying. the coating material has a composition with at least 98 % by weight of one or more polyglycerol fatty acid esters each obtainable by complete or partial esterification of a linear or branched polyglycerol containing two to eight glycerol units with one or more fatty acid, each containing 6 to 22 carbon atoms, as the main constituent as a percentage by weight, wherein the gas or gas mixture used simultaneously to the spraying of the coating material has a temperature only 1°C to 3°C below the solidification temperature of the coating material during the spraying.
A urinary catheter assembly, comprising: a catheter shaft extending between proximal and distal ends (14, 16); a drainage funnel secured to the distal end of the catheter shaft; and a gripping member including a proximal end, a distal end, and an extendable portion extending between the proximal and distal ends (24 26), wherein the distal end of the gripping member is fixedly secured to the drainage funnel, the extendable portion of the gripping member is configured to allow the proximal end of the gripping member to be moved along the length of the catheter shaft toward and away from the proximal end of the catheter shaft, the extendable portion of the gripping member encircles at least a portion of the catheter shaft when the proximal end of the gripping member is moved toward the proximal end of the catheter shaft, and the extendable portion of the gripping member is configured as a helix or provided in a lattice pattern arranged in a tube around the catheter shaft and configured to resiliently move from an extended condition to a less extended condition. a catheter shaft extending between proximal and distal ends (14, 16); a drainage funnel secured to the distal end of the catheter shaft; and a gripping member including a proximal end, a distal end, and an extendable portion extending between the proximal and distal ends (24 26), wherein the distal end of the gripping member is fixedly secured to the drainage funnel, the extendable portion of the gripping member is configured to allow the proximal end of the gripping member to be moved along the length of the catheter shaft toward and away from the proximal end of the catheter shaft, the extendable portion of the gripping member encircles at least a portion of the catheter shaft when the proximal end of the gripping member is moved toward the proximal end of the catheter shaft, and the extendable portion of the gripping member is configured as a helix or provided in a lattice pattern arranged in a tube around the catheter shaft and configured to resiliently move from an extended condition to a less extended condition.
Method of producing a metal strip by casting and rolling, in which initially a slab with nominal slab thickness (d) is cast in a casting machine by extracting metal at a nominal casting speed (v) from a mould, wherein the slab in the region of a strip guide is subjected to a thickness reduction by a number of rollers, wherein the slab is subsequently subjected to temperature influencing in a furnace of defined length, wherein the slab behind the furnace is rolled in a rolling train and wherein, in particular, the slab behind the casting machine and in front of the furnace is subjected in a roughing mill to a thickness reduction to a nominal reshaped slab thickness or pre-strip thickness, characterised in that for temporary reduction, particularly for temporary interruption, of the feed of rolling stock to the rolling train a decrease of the thickness reduction of the slab in the roughing mill is carried out, wherein the thickness reduction of the slab in the roughing mill is taken back to zero, or at least two of the measures in combination are carried out: a) increasing the slab thickness (d 0) behind the casting machine by decreasing the thickness reduction of the slab in the region of the strip guide; b) lowering the casting speed from the nominal casting speed (v 0) to a decreased value; c) decreasing the thickness reduction of the slab in the roughing mill. a) increasing the slab thickness (d 0) behind the casting machine by decreasing the thickness reduction of the slab in the region of the strip guide; b) lowering the casting speed from the nominal casting speed (v 0) to a decreased value; c) decreasing the thickness reduction of the slab in the roughing mill.
A liquid separation membrane installation body comprising: a porous base material; and a liquid separation membrane provided on the porous base material, the liquid separation membrane being a porous sintered membrane formed of dispersible layered inorganic compounds, the membrane thickness of the liquid separation membrane being in the range of 0.1 to 1.5 μm, wherein the liquid separation membrane is formed of sheet-like dispersible layered inorganic compounds having a thickness of 0.1 to 100 nm, a major diameter of 0.01 to 5 μm, and an aspect ratio (the major diameter/the thickness) of 3 or more on the porous base material, and the dispersible layered inorganic compounds are provided on the surface of the porous base material, do not enter pores of the porous base material and are superimposed on each other to form the pores of the liquid separation membrane, wherein the dispersible layered inorganic compounds have, as a unit structure, a structure where two or more layers are laminated, each layer having a structure in which a plurality of tetrahedrons and/or octahedrons of metal oxide are bonded in the form of a plane and spread in the form of a sheet, and one unit or two or more units of this unit structure are laminated, wherein in the dispersible layered inorganic compounds, alkali metal ions, alkaline earth metal ions or ammonium ions coexist between the layers, wherein the average pore diameter of the liquid separation membrane is in the range of 0.1 to 10 nm, and wherein a vacuum reaching pressure is 1000 Pa or less at a time when one of the surfaces of the liquid separation membrane is set to an atmospheric pressure and a pressure of the other surface thereof is reduced at an exhaust rate of 1.5 L/cm 2 •minute.
A method for manufacturing a registered embossed decorative panel, said method comprising the following steps: i) providing a substrate having a printed design, ii) applying a coating on the surface of the substrate provided with printing, iii) applying a release foil on the coating provided according to step ii), iv) curing said coating and thereby positioning said release foil on said substrate and maintaining said position, v) printing a resin on the release foil provided in step iii), wherein the resin thus applied is in register with the printed design of the substrate according to step i), vi) consolidating the composite according to step v) under heat and pressure, vii) removing the release foil from the composite thus consolidated according to step vi). i) providing a substrate having a printed design, ii) applying a coating on the surface of the substrate provided with printing, iii) applying a release foil on the coating provided according to step ii), iv) curing said coating and thereby positioning said release foil on said substrate and maintaining said position, v) printing a resin on the release foil provided in step iii), wherein the resin thus applied is in register with the printed design of the substrate according to step i), vi) consolidating the composite according to step v) under heat and pressure, vii) removing the release foil from the composite thus consolidated according to step vi).
A production facility for workpieces comprising at least one production area (202, 204) in which a number of machine tools (206, 208) provided with a machine control (212, 214) are disposed, a data processing unit, which is coupled with the machine controls (212, 214) of the machine tools (206, 208) via a communication path, and has a program, which provides, to the machine tools (206, 208), CNC machining program complexes for the machining of workpieces, characterized in that the data processing unit is included in a production organization system, which organizes the machining of workpieces on the machine tools (206, 208) of the at least one production area (202, 204), in that the program is a production organization program, in that at least one simulation system (250, 260) is associated with the production facility, which simulation system is coupled with the production organization system, in that the simulation system (250, 260) represents actions of machining units of one of the machine tools, in particular actions in the machining of a workpiece, in accordance with a CNC machining program complex by means of at least one first visualization unit in the form of actions of virtual machining units of a virtual machine tool, in that the simulation system (250, 260) comprises an action control, which has at least one first data processing unit, which establishes control commands for actions of the virtual machining units by a control program processing CNC blocks of the CNC machining program complex, in that the simulation system (250, 260) comprises a visualization control, which has at least one second data processing unit, which represents actions of the virtual machining units on the first visualization unit by a visualization program on the basis of configuration data of a stored machine model and the control commands determined by the action control, in that the simulation system comprises an operating control with a third data processing unit, which operates the action control by an operating program, and in that the operating program has a program management function, which transfers at least program parts of the CNC machining program complex in a workpiece-related manner from said CNC machining program complex stored in a memory of the third data processing unit to the action control for executing said program complex.
A method of displaying information about a power system, the method comprising: receiving new renewal energy power information from a new renewal energy unit; receiving battery power information and battery connection state information from a battery unit comprising a plurality of batteries; generating a GUI based monitoring image based on the new renewal energy power information, the battery power information and the battery connection state information; displaying the monitoring image; and receiving power system information from a power management unit, wherein the battery power information comprises battery charging information about a battery charging state converted into a percentage value and at least one of active and reactive power values and a charge state provided from the battery unit, and wherein the battery connection state information comprises information about a connection state and a disconnection state between the batteries. receiving new renewal energy power information from a new renewal energy unit; receiving battery power information and battery connection state information from a battery unit comprising a plurality of batteries; generating a GUI based monitoring image based on the new renewal energy power information, the battery power information and the battery connection state information; displaying the monitoring image; and receiving power system information from a power management unit, wherein the battery power information comprises battery charging information about a battery charging state converted into a percentage value and at least one of active and reactive power values and a charge state provided from the battery unit, and wherein the battery connection state information comprises information about a connection state and a disconnection state between the batteries.
A joint method of cultivating microalgae and denitrating an industrial waste gas, comprising the steps of: a cultivation step of cultivating microalgae; a separation step of separating a microalgae suspension obtained from step into a wet microalgae (microalgae biomass) and a residual cultivation solution; a NOx immobilizing step of denitrating the industrial waste gas with the residual cultivation solution obtained from step, comprising: (i) a sub-step of converting NOx in the industrial waste gas into nitric acid and/or nitrous acid; and (ii) mixing the residual cultivation solution obtained from step with the nitric acid and/or nitrous acid obtained from step (i), so as to achieve denitration of the industrial waste gas; optionally, a drying step of drying the microalgae biomass obtained from step to provide a microalgae product; wherein a NOx immobilized nutrient stream obtained from step is used to provide nitrogen source to the microalgae cultivation of step, wherein no CO2, or a pH regulator, is provided at the late stage during the microalgae cultivation, which causes the microalgae suspension to be alkaline at the terminal of cultivation through metabolism of the microalgae, wherein the culture medium of microalgae contains one of alkali nitrate, alkali nitrite, alkali carbonate, alkali bicarbonate, alkali phosphate and alkali biphosphate or a combination thereof. a cultivation step of cultivating microalgae; a separation step of separating a microalgae suspension obtained from step into a wet microalgae (microalgae biomass) and a residual cultivation solution; a NOx immobilizing step of denitrating the industrial waste gas with the residual cultivation solution obtained from step, comprising: (i) a sub-step of converting NOx in the industrial waste gas into nitric acid and/or nitrous acid; and (ii) mixing the residual cultivation solution obtained from step with the nitric acid and/or nitrous acid obtained from step (i), so as to achieve denitration of the industrial waste gas; (i) a sub-step of converting NOx in the industrial waste gas into nitric acid and/or nitrous acid; and (ii) mixing the residual cultivation solution obtained from step with the nitric acid and/or nitrous acid obtained from step (i), so as to achieve denitration of the industrial waste gas; optionally, a drying step of drying the microalgae biomass obtained from step to provide a microalgae product;
Method for producing cell connectors, comprising the steps of: a) providing a strip-shaped, electrically conductive blank having predetermined dimensions in a longitudinal direction and a width direction; b) clamping the blank in a predetermined first holding region (A 1) by means of a first clamping device and in a predetermined second holding region (A 2) by means of a second clamping device; c) relative movement of the first clamping device and the second clamping device towards one another substantially in the longitudinal direction of the blank, as a result of which the blank bulges and thus a geometric shape (10a, 10b) extending substantially in the width direction of the blank is formed; d) releasing the blank by means of the two clamping devices (22, 24); and e) ejecting the cell connector formed in this way, the first clamping device remaining substantially stationary during step c), while the second clamping device is displaced in the longitudinal direction of the blank, and during step c) a punch being inserted into the plane of the blank between the first and the second clamping device (22, 24), characterised in that the insertion movement of the punch extends at an angle to the plane of the blank and comprises a component in the direction of the first clamping device. a) providing a strip-shaped, electrically conductive blank having predetermined dimensions in a longitudinal direction and a width direction; b) clamping the blank in a predetermined first holding region (A 1) by means of a first clamping device and in a predetermined second holding region (A 2) by means of a second clamping device; c) relative movement of the first clamping device and the second clamping device towards one another substantially in the longitudinal direction of the blank, as a result of which the blank bulges and thus a geometric shape (10a, 10b) extending substantially in the width direction of the blank is formed; d) releasing the blank by means of the two clamping devices (22, 24); and e) ejecting the cell connector formed in this way, the first clamping device remaining substantially stationary during step c), while the second clamping device is displaced in the longitudinal direction of the blank, and during step c) a punch being inserted into the plane of the blank between the first and the second clamping device (22, 24),
An installation for producing a medical preparation, in particular for producing a parenteral nutrition preparation, comprising at least one hose pump, with which liquids can be transferred from a plurality of source containers into a target container, wherein the installation has a modular construction and comprises at least one balance module and a screen module and a main module with the pump, characterized in that the installation comprises a frame, on which the balance module and the main module can be placed, and on which the balance module and the main module are arranged in a defined position relative to each other, wherein the frame has a seat for the main module and a seat for the balance module, wherein the seat for the main module and the seat for the balance module have form-fit elements, into which form-fit elements of the balance module and of the main module engage.
A bouillon tablet comprising: i) 20-70 wt% crystalline salt by weight of the composition; ii) 10-70 wt% pieces of plant material by weight of the composition; iii) up to 7 wt% fat by weight of the composition; iv) up to 15 wt% crystalline sugar by weight of the composition; wherein the crystalline salt has a median particle diameter Dv50 in the range of 0.7 to 3.5 mm; wherein the crystalline sugar has a median particle diameter Dv50 in the range of 0.5 to 3.5 mm; and the pieces of plant material have a median particle diameter Dv50 in the range of 0.7 to 9.0 mm, obtainable by a process comprising the following steps: a) Mixing all ingredients together; b) Adjust water content of the mix to an amount between 4.0 to 13.0 wt% by weight of the composition and further mix, wherein the water content is based on the method ISO 1666:1996; c) Forming a bouillon tablet; d) Drying the bouillon tablet. i) 20-70 wt% crystalline salt by weight of the composition; ii) 10-70 wt% pieces of plant material by weight of the composition; iii) up to 7 wt% fat by weight of the composition; iv) up to 15 wt% crystalline sugar by weight of the composition; a) Mixing all ingredients together; b) Adjust water content of the mix to an amount between 4.0 to 13.0 wt% by weight of the composition and further mix, wherein the water content is based on the method ISO 1666:1996; c) Forming a bouillon tablet; d) Drying the bouillon tablet.