mhurhangee/ep-ind-claims huggingface dataset:
A method for making an enhanced efficacy antiperspirant active, said method comprising the steps of: (a) providing a flowing stream of an aqueous solution of aluminum hydroxyhalide salt having a Band III polymer concentration of at least 20% as analyzed using Gel Permeation Chromatography, wherein the aluminum hydroxyhalide salt is present in the aqueous solution in an amount of at least 10% and wherein the aluminum hydroxyhalide salt is an aluminum chlorohydroxide selected from the group consisting of aluminum chlorohydrate and aluminum sesquichlorohydrate; (b) providing a flowing stream of an aqueous solution of a monomeric aluminum salt and mixing said stream with the stream of step a) via a static mixer to form a mixture with a contact time before step c) of from 1 sec to 30 minutes; and (c) rapidly drying the mixture in a spray drier to form a powdered product. (a) providing a flowing stream of an aqueous solution of aluminum hydroxyhalide salt having a Band III polymer concentration of at least 20% as analyzed using Gel Permeation Chromatography, wherein the aluminum hydroxyhalide salt is present in the aqueous solution in an amount of at least 10% and wherein the aluminum hydroxyhalide salt is an aluminum chlorohydroxide selected from the group consisting of aluminum chlorohydrate and aluminum sesquichlorohydrate; (b) providing a flowing stream of an aqueous solution of a monomeric aluminum salt and mixing said stream with the stream of step a) via a static mixer to form a mixture with a contact time before step c) of from 1 sec to 30 minutes; and (c) rapidly drying the mixture in a spray drier to form a powdered product.
A method of treating an exhaust gas containing methane by oxidation, the exhaust gas being produced by a natural gas engine, which method comprises: contacting the exhaust gas with a catalytic material comprising a molecular sieve and a platinum group metal supported on the molecular sieve, wherein the molecular sieve has a framework consisting of silicon, oxygen and heteroatom T-atoms (tetrahedrally coordinated atoms), wherein the heteroatom T-atoms are not silicon and not oxygen, wherein the framework has a content of heteroatom T-atoms of ≤ 0.20 mol%.
Micromechanical component, comprising: a holder with a stretched membrane which, in the case of a pressure equality on a first membrane side of the membrane and a second membrane side of the membrane, is present in its initial form and can be bent out of its initial form against a membrane counterforce (Fm) according to a membrane spring constant of the membrane by means of a pressure difference between the first membrane side and the second membrane side; and at least one actuator electrode which is connected to the membrane and is connected to the holder by means of at least one spring in such a way that the at least one actuator electrode can be adjusted by means of bending of the membrane out of its respective initial position against a spring force (Fs) according to at least one spring constant of the at least one spring; wherein a total system spring constant can be defined as the sum of the spring membrane constant of the membrane and the spring constant of the single spring or a total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder, characterized in that the spring constant of the single spring or the total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder is at least 5% of the total system spring constant. a holder with a stretched membrane which, in the case of a pressure equality on a first membrane side of the membrane and a second membrane side of the membrane, is present in its initial form and can be bent out of its initial form against a membrane counterforce (Fm) according to a membrane spring constant of the membrane by means of a pressure difference between the first membrane side and the second membrane side; and at least one actuator electrode which is connected to the membrane and is connected to the holder by means of at least one spring in such a way that the at least one actuator electrode can be adjusted by means of bending of the membrane out of its respective initial position against a spring force (Fs) according to at least one spring constant of the at least one spring; wherein a total system spring constant can be defined as the sum of the spring membrane constant of the membrane and the spring constant of the single spring or a total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder, characterized in that the spring constant of the single spring or the total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder is at least 5% of the total system spring constant.
A method of preparing a copolymer of ethylene and α-olefin using a transition metal catalyst composition comprising a transition metal compound represented by Chemical Formula 1 below: wherein M is titanium; R 1 and R 2 are independently a (C1-C7) alkyl group; D is -N(R 5)-, in which R 5 is a (C1-C20)alkyl group; R 3 and R 4 are independently a (C1-C20)alkyl group; X is independently a halogen atom or a (C1-C20)alkyl group; and n is an integer of 2; and a co-catalyst selected from among an aluminum compound, a boron compound, and mixtures thereof, wherein the α-olefin is one or more selected from among 1-butene, 1-pentene, 1-hexene, 1-heptene, 1-octene, 1-decene, and the copolymer of ethylene and α-olefin has an ethylene content of 50 wt% or more, a density of 0.860 to 0.940 g/ml, a weight average molecular weight of 80,000 ~ 500,000 and a molecular weight distribution (Mw/Mn) of 1.5 ~ 4.1. wherein M is titanium; R 1 and R 2 are independently a (C1-C7) alkyl group; D is -N(R 5)-, in which R 5 is a (C1-C20)alkyl group; R 3 and R 4 are independently a (C1-C20)alkyl group; X is independently a halogen atom or a (C1-C20)alkyl group; and n is an integer of 2;
A securing system for axial positioning and securing of a spindle or a pin on a bushing of a stand device, comprising at least one securing element (10; 110; 210), a cover (20, 120) coupable with the bushing, and at least one coupling element (30; 130) that is supportable on the cover and/or on the bushing, which is formed to correspond geometrically to at least one coupling portion (11, 12; 111, 112; 211, 212) of the securing element for the purpose of form-fitting, wherein the cover comprises a first supporting portion (21, 21a, 21b) which is formed to correspond geometrically to a second supporting portion (17; 117; 217) of the securing element and is configured to guide the securing element in the radial direction and to position and hold it in the axial direction in a predefined axial position., wherein the securing element (10; 110; 210) comprises - a second supporting portion (17; 117; 217) configured to arrange the securing element in a predefined axial position on a bushing of the stand device; - an engagement portion (15; 115; 215) configured to interact with a spindle or a pin of the stand device that is rotatably supportable in the bushing around an axis of rotation to secure the spindle or the pin rotatably within the bushing in the predefined axial position relative to the supporting apparatus; wherein the securing element (10; 110; 210) is configured to be supported in at least one radial position on the bushing predefined by the securing element, wherein the engagement portion (15; 115; 215) is adapted to interact with the spindle or the pin by engagement in the radial direction. - a second supporting portion (17; 117; 217) configured to arrange the securing element in a predefined axial position on a bushing of the stand device; - an engagement portion (15; 115; 215) configured to interact with a spindle or a pin of the stand device that is rotatably supportable in the bushing around an axis of rotation to secure the spindle or the pin rotatably within the bushing in the predefined axial position relative to the supporting apparatus;
Veranda equipped with a gutter comprising an outer edge and a base forming the water discharge surface, and a box of a roller shutter, characterised in that it houses on the outer edge of the gutter, said roller shutter box placed in relation to the gutter such that its rotational axis (Av) is positioned in front of the outer edge and above the base of said gutter.
A cryogenic radio-frequency resonator system comprising: an inductive device disposed at least partially within a thermally conductive substrate; a cryogenic capacitive device coupled to the inductive device to form a cryogenic resonant circuit with an associated circuit impedance value; a radio-frequency, RF, input port configured to route an input RF signal to the cryogenic resonant circuit, the cryogenic resonant circuit being configured to provide impedance matching between an external RF source generating the input RF signal and an external cryogenic device and to generate an impedance-matched RF signal; and an RF output port configured to provide the impedance-matched RF signal to the external cryogenic device, characterized in that the cryogenic radio-frequency resonator system further comprises a thermally conductive enclosure including a cavity filled with the thermally conductive substrate, the inductive device being disposed in the cavity. an inductive device disposed at least partially within a thermally conductive substrate; a cryogenic capacitive device coupled to the inductive device to form a cryogenic resonant circuit with an associated circuit impedance value; a radio-frequency, RF, input port configured to route an input RF signal to the cryogenic resonant circuit, the cryogenic resonant circuit being configured to provide impedance matching between an external RF source generating the input RF signal and an external cryogenic device and to generate an impedance-matched RF signal; and an RF output port configured to provide the impedance-matched RF signal to the external cryogenic device, characterized in that the cryogenic radio-frequency resonator system further comprises a thermally conductive enclosure including a cavity filled with the thermally conductive substrate, the inductive device being disposed in the cavity.
A plug-in unit, comprising: a stab assembly comprising at least one stab configured to engage a bus bar; a stab shaft coupled with a base of the at least one stab, the stab shaft comprising a plurality of molded stab shaft segments, wherein the molded stab shaft segments interlock with each other and are configured to allow self-alignment of the at least one stab with the bus bar; and a stab translation mechanism configured to rotate the stab shaft such that the at least one stab rotationally transitions from a retracted position to an extended position. a stab assembly comprising at least one stab configured to engage a bus bar; a stab shaft coupled with a base of the at least one stab, the stab shaft comprising a plurality of molded stab shaft segments, wherein the molded stab shaft segments interlock with each other and are configured to allow self-alignment of the at least one stab with the bus bar; and a stab translation mechanism configured to rotate the stab shaft such that the at least one stab rotationally transitions from a retracted position to an extended position.
A feeding device for feeding animals, said device comprising a feed container for accommodating feed, the feed container being provided with a side wall having a closable dispensing opening, and a feed removing device for removing feed from the feed container, the feed removing device being provided outside of the side wall near the dispensing opening and having a rotatable, substantially cylindrical body with feed catching teeth and a drive unit for the body, wherein the teeth are provided in a movable way relative to the body during its rotation in such a way that, during a first part of each rotation of the body, the teeth are protruding from the body through slots to catch feed and that, during a second part of each rotation of the body, the teeth are positioned substantially completely within the circumference of the body.
Apparatus for the recovery of energy from hot wort or hot mash, for a beer brewery, comprising: a first heat exchanger device (1, 100) for a heat transfer medium W, which is adapted such that the heat transfer medium can be heated while, wort or mash are cooled down, wherein at least one heat consumer (6, 7, 60, 70, 80) of the brewery is heatable with this heat transfer medium W, and the heat transfer medium W cooled down during the heating of the heat consumer can be supplied in circuit K back to the first heat exchanger device (1, 100). a first heat exchanger device (1, 100) for a heat transfer medium W, which is adapted such that the heat transfer medium can be heated while, wort or mash are cooled down, wherein at least one heat consumer (6, 7, 60, 70, 80) of the brewery is heatable with this heat transfer medium W, and the heat transfer medium W cooled down during the heating of the heat consumer can be supplied in circuit K back to the first heat exchanger device (1, 100).
A disposable bidirectional ratchet comprising: a handle comprising a tubular front body affixed to a tubular back body; the tubular front body having an interior wall, the interior wall comprising teeth extending periodically from the interior wall; a toggle within the handle; a knob that moves the toggle; a plurality of pins on an end of the toggle formed collinearly with the tubular front body; a plurality of plastic actuators, each comprising; fingers, levers, toes, and a head having a post guide formed therein; a plurality of posts affixed to a clutch; and, wherein the actuators are movably affixed to the clutch via the posts, and the pin position selects the direction of engagement via adjustment of the actuator position via applying force to the levers, which moves the lateral edges of the actuator towards or away from the teeth. a handle comprising a tubular front body affixed to a tubular back body; the tubular front body having an interior wall, the interior wall comprising teeth extending periodically from the interior wall; a toggle within the handle; a knob that moves the toggle; a plurality of pins on an end of the toggle formed collinearly with the tubular front body; a plurality of plastic actuators, each comprising; fingers, levers, toes, and a head having a post guide formed therein; a plurality of posts affixed to a clutch; and, wherein the actuators are movably affixed to the clutch via the posts, and the pin position selects the direction of engagement via adjustment of the actuator position via applying force to the levers, which moves the lateral edges of the actuator towards or away from the teeth.
A computer-implemented method for predicting a plurality of surface multiples for a plurality of traces in a record of seismic data, the method comprising: providing a plurality of target traces at a nominal offset; predicting a plurality of two dimensional surface multiples for a plurality of input subsurface lines; characterised in that the method further comprises: sorting the predicted two dimensional surface multiples according to their offsets into one or more planes, wherein each plane has an associated nominal offset; and applying a two dimensional operator to the predicted two dimensional surface multiples. providing a plurality of target traces at a nominal offset; predicting a plurality of two dimensional surface multiples for a plurality of input subsurface lines; characterised in that the method further comprises: sorting the predicted two dimensional surface multiples according to their offsets into one or more planes, wherein each plane has an associated nominal offset; and applying a two dimensional operator to the predicted two dimensional surface multiples. sorting the predicted two dimensional surface multiples according to their offsets into one or more planes, wherein each plane has an associated nominal offset; and applying a two dimensional operator to the predicted two dimensional surface multiples.
A vehicle control system that controls a vehicle of a steer-by-wire type, the vehicle control system comprising one or more processors configured to execute: reaction force control that applies a steering reaction force to a steering wheel of the vehicle; and driving assist control that assists driving of the vehicle, wherein the reaction force control includes road information transmission control that applies a steering reaction force component corresponding to an oscillation caused by road surface unevenness to the steering wheel, the one or more processors are further configured to set the steering reaction force component caused by the road information transmission control to zero when a deactivation condition is satisfied, characterised in that the deactivation condition is that the driving assist control is in operation and a steering parameter reflecting a steering intention of a driver of the vehicle is less than a threshold (Tth_RI), or the deactivation condition is that the driving assist control that vibrates the steering wheel for notifying the driver of a possibility of a lane departure is in operation. reaction force control that applies a steering reaction force to a steering wheel of the vehicle; and driving assist control that assists driving of the vehicle, wherein the reaction force control includes road information transmission control that applies a steering reaction force component corresponding to an oscillation caused by road surface unevenness to the steering wheel, the one or more processors are further configured to set the steering reaction force component caused by the road information transmission control to zero when a deactivation condition is satisfied, characterised in that the deactivation condition is that the driving assist control is in operation and a steering parameter reflecting a steering intention of a driver of the vehicle is less than a threshold (Tth_RI), or the deactivation condition is that the driving assist control that vibrates the steering wheel for notifying the driver of a possibility of a lane departure is in operation.
A method of manufacturing a printed circuit board comprising: (a) attaching a plurality of metal layer carriers to form a first subassembly comprising at least one first copper foil pad on a first surface; (b) applying a first encapsulation material onto the first surface of the first subassembly; (c) curing the first encapsulation material on the first subassembly; (d) applying a first lamination adhesive to a surface of the cured first encapsulation material; (e) forming at least one first via in the first lamination adhesive and the cured first encapsulation material to expose the at least one first copper foil pad; (f) filling the at least one first via with a conductive material; (g) attaching a plurality of metal layer carriers to form a second subassembly comprising a first surface and at least one second copper foil pad on a second surface opposite to the first surface; and (h) attaching the first subassembly and the second subassembly using the first lamination adhesive such that the at least one first and second copper foil pads (102,202) are electrically connected through the conductive material, wherein the method does not comprise the steps of (i) applying a second encapsulation material onto the second surface of the second subassembly; (ii) curing the second encapsulation material on the second subassembly; and (iii) applying a second lamination adhesive to a surface of the cured second encapsulation material. (a) attaching a plurality of metal layer carriers to form a first subassembly comprising at least one first copper foil pad on a first surface; (b) applying a first encapsulation material onto the first surface of the first subassembly; (c) curing the first encapsulation material on the first subassembly; (d) applying a first lamination adhesive to a surface of the cured first encapsulation material; (e) forming at least one first via in the first lamination adhesive and the cured first encapsulation material to expose the at least one first copper foil pad; (f) filling the at least one first via with a conductive material; (g) attaching a plurality of metal layer carriers to form a second subassembly comprising a first surface and at least one second copper foil pad on a second surface opposite to the first surface; and (h) attaching the first subassembly and the second subassembly using the first lamination adhesive such that the at least one first and second copper foil pads (102,202) are electrically connected through the conductive material, wherein the method does not comprise the steps of (i) applying a second encapsulation material onto the second surface of the second subassembly; (ii) curing the second encapsulation material on the second subassembly; and (iii) applying a second lamination adhesive to a surface of the cured second encapsulation material.
A method for the manufacture of a microfluidic device comprises one, two, three or more enclosed microchannel structures, each of which comprises: a) an inlet arrangement with an inlet opening to ambient atmosphere, b) a reaction microchamber downstream to the inlet opening, c) an upstream section that is located between the inlet opening and the reaction microchamber, and d) an outlet opening, by joining two or more essentially planar substrates made of plastic material to each other such that the corresponding part in each microchannel structure is defined between the same pair of substrates, comprising the steps of: i) providing two essentially planar substrates I and II made of plastic material, each of which comprises on one side, side a I and side a II, respectively, surface areas that together will define said upstream section of each of the microchannel structures; ii) introducing a base layer that is hydrophilic and comprises metal oxide on said surface areas of at least one of side a I and side a II; iii) apposing and adhering side a I to side a II to form said upstream section of each of said microchannel structures, and iv) optionally joining further planar substrates to complete the microchannel structures characterized in that v) one or more additional layers are introduced on top of said base layer before or after step (iii), wherein the top layer is a polymer layer exposing non-ionic hydrophilic groups on its surface. a) an inlet arrangement with an inlet opening to ambient atmosphere, b) a reaction microchamber downstream to the inlet opening, c) an upstream section that is located between the inlet opening and the reaction microchamber, and d) an outlet opening, i) providing two essentially planar substrates I and II made of plastic material, each of which comprises on one side, side a I and side a II, respectively, surface areas that together will define said upstream section of each of the microchannel structures; ii) introducing a base layer that is hydrophilic and comprises metal oxide on said surface areas of at least one of side a I and side a II; iii) apposing and adhering side a I to side a II to form said upstream section of each of said microchannel structures, and iv) optionally joining further planar substrates to complete the microchannel structures characterized in that v) one or more additional layers are introduced on top of said base layer before or after step (iii), wherein the top layer is a polymer layer exposing non-ionic hydrophilic groups on its surface.