mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a mass spectrometer having an elongated rod set, the rod set having an entrance end, an exit end, a plurality of rods (22, 122, 222) and a longitudinal axis, the method comprising: (a) admitting ions into the entrance end of the rod set; (b) producing an RF field between the plurality of rods to radially confine the ions in the rod set; (c) providing a static axial electric field within the rod set, the static axial electric field oriented substantially parallel to the longitudinal axis; and (d) separating the ions into a first group of ions and a second group of ions by providing an oscillating axial electric field within the rod set to counteract the static axial electric field, wherein the oscillating axial electric field varies along the longitudinal axis of the rod set, wherein depending on the mass to charge ratio of the selected ions of interest at least one of the static and the oscillating axial electric fields are adjusted to provide the desired ion separation; (e) trapping the selected ions of interest in the rod set by producing an exit field at an exit member (25, 125, 225) at or adjacent to the exit end of the rod set. (a) admitting ions into the entrance end of the rod set; (b) producing an RF field between the plurality of rods to radially confine the ions in the rod set; (c) providing a static axial electric field within the rod set, the static axial electric field oriented substantially parallel to the longitudinal axis; and (d) separating the ions into a first group of ions and a second group of ions by providing an oscillating axial electric field within the rod set to counteract the static axial electric field, wherein the oscillating axial electric field varies along the longitudinal axis of the rod set, wherein depending on the mass to charge ratio of the selected ions of interest at least one of the static and the oscillating axial electric fields are adjusted to provide the desired ion separation; (e) trapping the selected ions of interest in the rod set by producing an exit field at an exit member (25, 125, 225) at or adjacent to the exit end of the rod set.
A method for improving the transportability of heavy crude oil, wherein a viscosity-reducing agent is added to the heavy crude oil, characterized in that the agent is a water-containing hydrocarbon mixture with a chain length of predominantly C4 to C12 that contains no oxygen-containing compounds and is prepared from generated natural gas and/or crude oil associated gas as well as from a sub-quantity of heavy crude oil, wherein a first synthesis gas and a second synthesis gas are produced in parallel, in each case as intermediate products, from natural gas and/or crude oil associated gas and from the branched-off sub-quantity of heavy crude oil, are merged, mixed in a mixer and subsequently compressed, and then the synthesis gas is catalytically converted into methanol, and this is converted by condensation into a methanol/water mixture (crude methanol), which is processed into a distillate with a high water and alcohol content of greater than 90% and is catalytically converted into a dimethyl ether/methanol/water mixture, and the water-containing hydrocarbon mixture with a chain length of C4 to C12 is formed by dehydration, which is added to the heavy crude oil either in an untreated form or subsequent to degassing and/or dewatering, thereby obtaining, from the heavy crude oil, a crude oil that is light in its quality and that is transported via pipelines to a refinery and that increases the produced quantity of gasoline by the hydrocarbons contained in the water-containing hydrocarbon mixture during the subsequent refining process of the light crude oil into conventional gasoline.
Device for storing heat energy by phase change material comprising a storage chamber comprising: - a retention volume comprising at least one PCM, - circulation zones passing through the PCM and intended to contain a heat-transfer fluid to make it circulate in the retention volume comprising the PCM, characterised in that it comprises cross-sectional restriction elements (9, 15) arranged at least partially inside at least some zones for circulating the heat-transfer fluid so as to reduce the cross-section for the passage of the heat-transfer fluid in at least one part of the circulation zones, at least one cross-sectional restriction element (9, 15) comprising at least one heating element (9, 16) supplied with electricity and configured to heat at least partially the cross-sectional restriction element (9, 15). - a retention volume comprising at least one PCM, - circulation zones passing through the PCM and intended to contain a heat-transfer fluid to make it circulate in the retention volume comprising the PCM,
A relief valve comprising: a valve body including a first port through which fluid flows into the relief valve and a second port through which fluid is discharged from the relief valve; a sleeve accommodated within the valve body and having an inlet being conmmnicatable with the first port and an outlet being communicatable with the sec- ond port; a valve, accommodated within the sleeve, being movable to approach the inlet in order to restrict a communication between the inlet and the outlet so and being movable away from the inlet in order to allow the communication between the inlet and the outlet; a biasing member applying a biasing force to the valve so as to move it toward the inlet; and a valve position adjusting mechanism actuated for changing position of the sleeve relative to the valve body ' by operating of fluid pressure of the first port so as to act on the sleeve in a direction of the biasing force of the biasing member, wherein the valve position adjusting mechanism is actuated for operating the fluid pressure so as to act on the sleeve in order to thereby reduce the biasing force of the biasing member. a valve body including a first port through which fluid flows into the relief valve and a second port through which fluid is discharged from the relief valve; a sleeve accommodated within the valve body and having an inlet being conmmnicatable with the first port and an outlet being communicatable with the sec- ond port; a valve, accommodated within the sleeve, being movable to approach the inlet in order to restrict a communication between the inlet and the outlet so and being movable away from the inlet in order to allow the communication between the inlet and the outlet; a biasing member applying a biasing force to the valve so as to move it toward the inlet; and a valve position adjusting mechanism actuated for changing position of the sleeve relative to the valve body ' by operating of fluid pressure of the first port so as to act on the sleeve in a direction of the biasing force of the biasing member, wherein the valve position adjusting mechanism is actuated for operating the fluid pressure so as to act on the sleeve in order to thereby reduce the biasing force of the biasing member.
Trim device for a motor vehicle, having a trim part which has an accommodation region for the arrangement of an ultrasonic sensor, and having a damping apparatus for damping a vibration generated as a result of an ultrasound signal emitted by the ultrasonic sensor, the damping apparatus at least partly surrounding the accommodation region, the damping apparatus having movement elements which are connected to the trim part, a respective shape and/or a mechanical property of the movement elements being designed such that at least some of the movement elements can be excited to move by the vibration, characterized in that the damping apparatus has a cover element, which is connected to the movement elements on a side of the movement elements that is opposite the trim part.
A method for treating soil comprising the following steps: a tube is supplied having a distal end; a borehole is made in the soil, the borehole having a bottom (Fa), a lateral wall (Fb), a borehole depth (Pf) and extending in a boring direction; the tube is positioned in the borehole at a first predetermined depth less than the borehole depth; at least one first blocking element is introduced into the borehole at a second predetermined depth comprised between the first predetermined depth and the borehole depth, so that it extends between the distal end of the tube and the bottom of the borehole, said at least one first blocking element being configured to block the borehole in order to define an injection zone located between said at least one first blocking element, the bottom of the borehole and the lateral wall of the borehole; said method for treating a soil being characterized in that an injection fluid is injected into the injection zone while carrying out a step of removing the cuttings located between the tube and the lateral wall of the borehole, the step of removing the cuttings comprising the cleaning of the outer surface of the tube, the step of cleaning the outer surface of the tube comprising the injection of a washing fluid around the tube. a tube is supplied having a distal end; a borehole is made in the soil, the borehole having a bottom (Fa), a lateral wall (Fb), a borehole depth (Pf) and extending in a boring direction; the tube is positioned in the borehole at a first predetermined depth less than the borehole depth; at least one first blocking element is introduced into the borehole at a second predetermined depth comprised between the first predetermined depth and the borehole depth, so that it extends between the distal end of the tube and the bottom of the borehole, said at least one first blocking element being configured to block the borehole in order to define an injection zone located between said at least one first blocking element, the bottom of the borehole and the lateral wall of the borehole; said method for treating a soil being characterized in that an injection fluid is injected into the injection zone while carrying out a step of removing the cuttings located between the tube and the lateral wall of the borehole, the step of removing the cuttings comprising the cleaning of the outer surface of the tube, the step of cleaning the outer surface of the tube comprising the injection of a washing fluid around the tube.
A hydrogel bioink composition for bioprinting, comprising 10% by weight or more of collagen with respect to the total amount of the hydrogel bioink composition, wherein the hydrogel bioink composition has an elastic modulus in a range of 3,000 Pa to 10,000 Pa.
A high-pressure resistant integrated leak-free rotary compensator, comprising an inner pipe, an outer sleeve, a connecting pipe and a stuffing flange; the outer sleeve being sleeved on the inner pipe; one end of the inner pipe passing through the outer sleeve and being inserted into the connecting pipe; the stuffing flange being sleeved on the inner pipe, with one end extending into the outer sleeve; the outer sleeve being provided with an annular inner projection on the inner surface; a sealing stuffing being disposed between the annular inner projection and one end of the stuffing flange extending into the outer sleeve; the outer sleeve and the connecting pipe being integrally molded to form an integrated structure, characterized in that, an impact plate is disposed between the sealing stuffing and the annular inner projection; and wear-resistant carbon fiber layers are respectively disposed between the sealing stuffing and the outer surface of the inner pipe and between the sealing stuffing and the inner surface of the outer sleeve.
Substrate for a power electronic circuit, comprising a slice made of electrically insulating material, said slice having a face carrying one or more conductor tracks which are directly connected to one or more power electronic components, said conductor tracks being obtained by fine metallisation, of a thickness of less than 150 μm, of said face, characterised in that the bottom face of the slice comprises striae forming channels in which a cooling fluid flows.
A magnetic actuator (100, 200, 300, 400) comprising: - a core section (101, 201, 301) having an annular yoke (102, 202, 302) and radially directed teeth (103, 203, 303) joining the annular yoke, - coils (104, 204, 304) having radially directed magnetic axes and surrounding the radially directed teeth, and - a mechanical structure having a first section (105, 205, 305) attached to the annular yoke and extending axially from the annular yoke and a second section (106, 206, 306, 406) joining the first section and extending radially from the first section in a same direction in which the radially directed teeth extend radially from the annular yoke, wherein the first section is suitable for conducting magnetic flux axially and the second section is suitable for conducting the magnetic flux radially in a direction opposite to a direction of the magnetic flux in the radially directed teeth, characterized in that the magnetic actuator comprises a mechanical safety bearing (107, 207, 307, 407) that is, in an axial direction of the magnetic actuator, between the second section of the mechanical structure and the radially directed teeth of the core section. - a core section (101, 201, 301) having an annular yoke (102, 202, 302) and radially directed teeth (103, 203, 303) joining the annular yoke, - coils (104, 204, 304) having radially directed magnetic axes and surrounding the radially directed teeth, and - a mechanical structure having a first section (105, 205, 305) attached to the annular yoke and extending axially from the annular yoke and a second section (106, 206, 306, 406) joining the first section and extending radially from the first section in a same direction in which the radially directed teeth extend radially from the annular yoke,
A system for conditioning blades, the system defining an orthogonal coordinate system comprising an X-axis, a Y-axis and a Z-axis, the system comprising: a gripper assembly for gripping a cutting device comprising a blade, the gripper assembly movable along and about the X-axis, the Y-axis and the Z-axis; a first measuring device operable to measure a width and a thickness of the blade, wherein the gripper assembly orients the blade for measurement by the first measuring device; a second measuring device operable to measure the width and a length of the blade, wherein the gripper assembly orients the blade for measurement by the second measuring device, wherein the second measuring device comprises an imaging device and a light source; and a processor configured for: creating a current edge profile based on the width, thickness and length measurements; and adjusting the current edge profile to a modified edge profile. a gripper assembly for gripping a cutting device comprising a blade, the gripper assembly movable along and about the X-axis, the Y-axis and the Z-axis; a first measuring device operable to measure a width and a thickness of the blade, wherein the gripper assembly orients the blade for measurement by the first measuring device; a second measuring device operable to measure the width and a length of the blade, wherein the gripper assembly orients the blade for measurement by the second measuring device, wherein the second measuring device comprises an imaging device and a light source; and a processor configured for: creating a current edge profile based on the width, thickness and length measurements; and adjusting the current edge profile to a modified edge profile. creating a current edge profile based on the width, thickness and length measurements; and adjusting the current edge profile to a modified edge profile.
Use of an ethylene copolymer having a melt flow index of at most ≤ 45 g/10min as measured according to ISO1133:2011 measured at 190 °C and 2.16 kg and / or having an average molecular weight Mw ≥ 50 kg/mol for production of packaging applications, production of food packages or production of film applications, wherein the ethylene copolymer is obtained via a process for the production of ethylene copolymers in a free-radical high-pressure polymerization in a tubular reactor, wherein • the process comprises a feed composition comprising ethylene and one or more co-monomers as reactants wherein at least one of the co-monomers is a compound having the structure of Formula: wherein R 1 = H or CH 3; X=O or NH; n=1-10 R 2, R 3 = H or CH 3 or saturated aliphatic structure consisting of hydrogen atoms and 1-10 carbon atoms, wherein the aliphatic structure can be linear, branched and/or cyclic; and wherein R 2 and R 3 can be individually selected; and wherein • the tubular reactor is operated at a pressure of ≥ 200 and ≤ 280 MPa; • the average reaction peak temperature is ≥ 220°C and ≤ 300°C; • the composition comprising one or more of co-monomers is fed to the reactor in one or more feed inlets of said tubular reactor; and • each co-monomer according to Formula is fed to the tubular reactor in quantities of ≤ 2.0 mol % with regard to the total feed composition of ethylene and the one or more co-monomers, wherein the production of packaging applications, production of food packages or production of film applications is performed by converting the ethylene copolymer into a film. • the process comprises a feed composition comprising ethylene and one or more co-monomers as reactants wherein at least one of the co-monomers is a compound having the structure of Formula: wherein R 1 = H or CH 3; X=O or NH; n=1-10 R 2, R 3 = H or CH 3 or saturated aliphatic structure consisting of hydrogen atoms and 1-10 carbon atoms, wherein the aliphatic structure can be linear, branched and/or cyclic; and wherein R 2 and R 3 can be individually selected; and wherein R 1 = H or CH 3; X=O or NH; n=1-10 R 2, R 3 = H or CH 3 or saturated aliphatic structure consisting of hydrogen atoms and 1-10 carbon atoms, wherein the aliphatic structure can be linear, branched and/or cyclic; and wherein R 2 and R 3 can be individually selected; and wherein • the tubular reactor is operated at a pressure of ≥ 200 and ≤ 280 MPa; • the average reaction peak temperature is ≥ 220°C and ≤ 300°C; • the composition comprising one or more of co-monomers is fed to the reactor in one or more feed inlets of said tubular reactor; and • each co-monomer according to Formula is fed to the tubular reactor in quantities of ≤ 2.0 mol % with regard to the total feed composition of ethylene and the one or more co-monomers,
Electric transformer core (49; 59) of the cut-and-stack type, characterized in that it comprises two stacks (53, 57; 60, 61) or groups of stacks (70, 71; 82, 84, 88, 89, 92, 93), each having a first thickness, the stacks (53, 57; 60, 61, 70, 71; 82, 84, 88, 89, 92, 93) each consisting of a single flat part or several identical flat parts isolated from each other, whose main cut directions are rectilinear and are either parallel or perpendicular to each other, the stacks (53, 57; 60, 61) or groups of stacks (70, 71; 82, 84, 88, 89, 92, 93) facing each other and having at least one residual or calibrated air gap (ε) with a maximum value of 10 mm between them, the flat parts being of at least one austenitic FeNi alloy containing Ni = 30-80% by weight %, preferably Ni = 40-60% by weight %, and at most 10% by weight %, preferably at most 2% by weight %, of alloying elements and impurities resulting from the preparation, the remainder being iron, the flat parts each having a crystallographic plane, the alloy having an acute cubic texture <001>, of which at least 80% of the grains, preferably at least 95% of the grains, deviate by an angle (ω) equal to at most 20° with respect to the ideal orientation <001>, the two main cutting directions of the flat pieces being substantially parallel to either the rolling direction or the transverse direction perpendicular to the rolling direction, said crystallographic plane deviating at most 20° from the rolling plane, preferably at most 10°, better at most 5°, and the axes or and respectively the rolling direction or the transverse direction deviating from an angle (α) at most equal to 20°, preferably at most equal to 10°, better not more than 5°, the flat parts having magnetic losses in sinusoidal induction waves of the magnetic core, for a maximum induction of 1 T, less than 20 W/kg at 400 Hz, preferably less than 15 W/kg, and better, less than 10 W/kg, the apparent magnetostriction for a maximum induction of 1.2 T (λ s 1.2T) being less than 5 ppm, preferably less than 3 ppm, preferably 1 ppm, when the measurement is performed on an elongated rectangular sample, the field being applied in the direction of the long side of the sample and this direction being parallel to the lamination direction, the apparent magnetostriction for a maximum induction of 1.2 T (λ s 1.2T) being less than 5 ppm, preferably less than 3 ppm, preferably less than 1 ppm, when the measurement is made on an elongated rectangular sample, the field being applied in the direction of the long side of the sample and this direction being parallel to the transverse direction perpendicular to the rolling direction and located in the rolling plane, and the apparent magnetostriction for a maximum induction of 1.2 T (λ s 1.2T) being less than 10 ppm, preferably less than 8 ppm, preferably less than 6 ppm, when the measurement is made on an elongated rectangular sample, the field being applied in the long direction of the sample and this direction being parallel to the intermediate direction at 45° of the rolling direction and the transverse direction.
A temperature sensor (1;2) comprising: a temperature-sensitive element including an element main body and a pair of lead wires that is drawn out from the element main body; a case (20;80) accommodating the temperature-sensitive element and having a heat transfer surface configured to come into contact with a measurement object for a temperature measurement; a pair of lead frames (40;60) electrically connected with each of the lead wires and drawn out from the case (20;80); and a filler covering the temperature-sensitive element accommodated in the case (20;80) and a part of the lead frames (40;60) and holding the temperature-sensitive element and the lead frames (40;60) in the case (20;80) while maintaining a state of the connections, wherein the lead frames (40;60) have a higher rigidity than electrical lead wires and are configured to be fixed to a circuit board and to be electrically connected with a corresponding circuit portion of the circuit board; the case (20;80) includes a lug terminal having the heat transfer surface configured to come into contact with the measurement object for the temperature measurement, the lug terminal being configured to fix the case (20;80) to the measurement object. a temperature-sensitive element including an element main body and a pair of lead wires that is drawn out from the element main body; a case (20;80) accommodating the temperature-sensitive element and having a heat transfer surface configured to come into contact with a measurement object for a temperature measurement; a pair of lead frames (40;60) electrically connected with each of the lead wires and drawn out from the case (20;80); and a filler covering the temperature-sensitive element accommodated in the case (20;80) and a part of the lead frames (40;60) and holding the temperature-sensitive element and the lead frames (40;60) in the case (20;80) while maintaining a state of the connections, wherein the lead frames (40;60) have a higher rigidity than electrical lead wires and are configured to be fixed to a circuit board and to be electrically connected with a corresponding circuit portion of the circuit board; the case (20;80) includes a lug terminal having the heat transfer surface configured to come into contact with the measurement object for the temperature measurement, the lug terminal being configured to fix the case (20;80) to the measurement object.