mhurhangee/ep-ind-claims huggingface dataset:
An in-line accessory structure for a subsea pipeline, the structure comprising: a subsea foundation arranged to support the structure in an installed orientation; a frame (44+42) attached to the foundation; an elongate pipe section supported by the frame (44+42), the pipe section being arranged to be integrated into the subsea pipeline and hence defining a flow axis through the structure; and at least one branch having a lower end in fluid communication with the pipe section and an upper end in fluid communication with a connector hub; wherein, in the installed orientation, the branch inclines inwardly in a transverse direction between its lower end and its upper end, toward an upright longitudinal plane containing the flow axis. a subsea foundation arranged to support the structure in an installed orientation; a frame (44+42) attached to the foundation; an elongate pipe section supported by the frame (44+42), the pipe section being arranged to be integrated into the subsea pipeline and hence defining a flow axis through the structure; and at least one branch having a lower end in fluid communication with the pipe section and an upper end in fluid communication with a connector hub; wherein, in the installed orientation, the branch inclines inwardly in a transverse direction between its lower end and its upper end, toward an upright longitudinal plane containing the flow axis.
A seat valve actuated by an electromagnet has a valve sleeve with at least one sealing seat, has at least one first sealing body connected in a force-fitting mannerto an armature of the electromagnet, and has at least two ports, namely the ports P and TNC, for fluid flows, wherein in a de-energized state of the electromagnet, a fluid flow from P to TNC occurs only if the pressure difference between the ports P and TNC exceeds a limit value of Δp G, wherein the force of the specified pressure difference overcomes the force of a spring and therefore pushes the first sealing body out of a first sealing seat, and in that in the energized state of the electromagnet, a fluid flow from P to TNC occurs even in the case of a pressure difference less than Δp G if the force of the electromagnet together with the force of the pressure difference between the ports P and TNC overcomes the force of the spring, wherein the sum of the specified forces pushes the first sealing body out of the first sealing seat, and in that no fluid flow from P to TNC occurs if the force of the spring exceeds the sum of the forces of the pressure difference from P to TNC and of the electromagnet, because then the sealing body seals off in its first sealing seat, characterized in that, between the ports P and TNC, a first seal, which is produced from an elastomer material and which is designed as a lip seal, is arranged in an outer groove of the valve sleeve, and the lip of said first seal, when the sealing function of the latter is being applied, bears against an installation bore, wherein, if the pressure at the port TNC exceeds the pressure at the port P, the seal loses its sealing function and opens up a fluid flow from the port TNC to the port P because the specified lip lifts off from the installation bore, and/or in that the seat valve has a further port TNO which, in the de-energized state of the electromagnet, is fluidically connected to the port P but, if the sum of all the forces on a second sealing body pushes said body into a second sealing seat, is not fluidically connected to the port P, wherein the following forces have a closing action or an opening action on the sealing body: • the force of the electromagnet, closing, • the force of the spring, opening, • the force of the pressure difference between P and TNO, opening, • the force of the pressure difference between P and TNC, closing, and in that, between the ports P and TNO, a second seal, which is produced from an elastomer material and which is designed as a lip seal, is arranged in a second outer groove on the valve sleeve, and the lip of said second seal, when the sealing function of the latter is being applied, bears against an installation bore, wherein, if the pressure at the port TNO exceeds the pressure at the port P, the seal loses its sealing function and opens up a fluid flow from the port TNO to the port P because the specified lip lifts off from the installation bore. • the force of the electromagnet, closing, • the force of the spring, opening, • the force of the pressure difference between P and TNO, opening, • the force of the pressure difference between P and TNC, closing,
Method for operating a binaural hearing apparatus with at least a left hearing device and at least a right hearing device, which comprises the following method steps: - warping of frequencies of the acoustic signal received by the left hearing device or a signal part of the received acoustic signal and - warping of frequencies of the acoustic signal received by the right hearing device or a signal part of the received acoustic signal, characterised in that - the frequency warps of the left and right hearing device (11, 12) are the same size and have different leading signs. - warping of frequencies of the acoustic signal received by the left hearing device or a signal part of the received acoustic signal and - warping of frequencies of the acoustic signal received by the right hearing device or a signal part of the received acoustic signal, characterised in that - the frequency warps of the left and right hearing device (11, 12) are the same size and have different leading signs.
A method for assisting in multipoint data flow control in a wireless communication system having a number, n+1, where n≥1, of wireless-transmission points, wherein said method comprises the steps of: - obtaining, for each of said wireless-transmission points, a round trip time of a present sampling period for data travelling to a user equipment via a respective wireless-transmission point and an acknowledge message travelling back via said respective wireless-transmission point; - computing a round trip time skew for said present sampling period for each respective said wireless-transmission point; said round trip time skew being a difference between said obtained round trip time of each respective said wireless-transmit point and a reference value; - providing a separate reference round trip time value for each of said wireless-transmission points in dependence of said computed round trip time skews; and - based on the provided reference round trip time value generating a separate rate control signal, for each of said wireless-transmission points. - obtaining, for each of said wireless-transmission points, a round trip time of a present sampling period for data travelling to a user equipment via a respective wireless-transmission point and an acknowledge message travelling back via said respective wireless-transmission point; - computing a round trip time skew for said present sampling period for each respective said wireless-transmission point; - providing a separate reference round trip time value for each of said wireless-transmission points in dependence of said computed round trip time skews; and - based on the provided reference round trip time value generating a separate rate control signal, for each of said wireless-transmission points.
Oil suspension concentrate, comprising thickeners and thixotropic agents, and a) the herbicidally active compound diflufenican, b) one or more solvents from the group of the aliphatic hydrocarbons, and f) one or more sulfosuccinates from the group of the mono- and diesters of sulfosuccinic acid. a) the herbicidally active compound diflufenican, b) one or more solvents from the group of the aliphatic hydrocarbons, and f) one or more sulfosuccinates from the group of the mono- and diesters of sulfosuccinic acid.
A composition useful in oxidative desulfurization of gaseous, sulfur containing hydrocarbons, the said composition comprising: (i) a CuZnAl-O mixed oxide component comprising nominal copper oxide in an amount ranging from 10 weight percent (wt%) to 50 wt%, zinc oxide in an amount ranging from 5 wt% to less than 20 wt%, and aluminum oxide in an amount ranging from 20 wt% to 70 wt% of said mixed oxide component, wherein said catalytic composition has a highly dispersed spinel oxide phase with a formula Cu x Zn 1-x Al 2 O 4 wherein x ranges from 0 to 1, dispersed crystalline ZnO and CuO, and (ii) at least one zeolite in H form, the said zeolite content being 5-50 wt% of the composition, wherein the zeolite is a desilicated zeolite, and the silicate module (silicon to aluminum atomic ratio) before desilication is from 2 to 90, varied in the range of 15-90 w% by the desilication treatment.
An LED light bulb, comprising: an LED module including a substrate and an ultraviolet to violet light-emitting LED chip mounted on a surface of the substrate; a base part on which the LED module is disposed; a globe, attached to the base part to cover the LED module, having a shape in which a cross section in a direction in parallel to the surface of the substrate is circular; a phosphor screen, provided on an inner surface of the globe separately from the LED chip, emitting white light by absorbing ultraviolet to violet light emitted from the LED chip; a lighting circuit provided in the base part and lighting the LED chip; and a bayonet cap electrically connected to the lighting circuit, wherein the globe includes a hemispherical dome portion, an attaching part to the base part, and a narrowing portion provided to connect the dome portion and the attaching part and of which edges of a cross section in a direction perpendicular to the surface of the substrate are straight, the globe has a shape in which a ratio D2/D1 is in a range of 1.07 to 1.61, and a ratio H/(D2 - D1) is in a range of 0.147 to 3.125, where D1 is a diameter at the attaching part, D2 is a maximum diameter of the dome portion, and H is a height of the narrowing portion, and a light distribution angle of the white light emitted from the LED light bulb is 180 degrees or more. an LED module including a substrate and an ultraviolet to violet light-emitting LED chip mounted on a surface of the substrate; a base part on which the LED module is disposed; a globe, attached to the base part to cover the LED module, having a shape in which a cross section in a direction in parallel to the surface of the substrate is circular; a phosphor screen, provided on an inner surface of the globe separately from the LED chip, emitting white light by absorbing ultraviolet to violet light emitted from the LED chip; a lighting circuit provided in the base part and lighting the LED chip; and a bayonet cap electrically connected to the lighting circuit,
A liquid crystal antenna, including a first substrate and a second substrate which are oppositely arranged and a liquid crystal layer positioned between the first substrate and the second substrate, wherein a first metal film layer is arranged on one side, facing the second substrate, of the first substrate, a second metal film layer is arranged on one side, facing the first substrate, of the second substrate, the first substrate and the second substrate are glass substrates, a seed layer is arranged between the first substrate and the first metal film layer, and between the second substrate and the second metal film layer, wherein the first metal film layer and the second metal film layer are each composed of a chemically deposited layer and a metal layer which are sequentially laminated on the seed layer of the corresponding substrate, characterised in that the metal layer is an electroplated metal layer, the material of the seed layers is metal oxide, and the thickness of the seed layers is less than 50 nm.
Method for suppressing interference signals in a magnetic resonance recording with a magnetic resonance tomography scanner, wherein the magnetic resonance tomography scanner has a controller, a receiver, an antenna and an interference signal sensor, wherein the method has the steps: receiving a reference interference signal by means of the receiver via the interference signal sensor; receiving a magnetic resonance signal of an examination object by means of the receiver via the antenna; reducing a portion of the interference signal in the magnetic resonance signal by means of the receiver as a function of the reference interference signal, wherein the reduction of the interference signal takes place as a function of a portion of the magnetic resonance signal in the reference interference signal received by the interference signal sensor, characterised in that the method further has the steps populating a k-space with scan data of an image acquisition by means of an MR scan, and interpolating a portion of the magnetic resonance signal in the reference interference signal onto the scan data in the k-space with the aid of gridding. receiving a reference interference signal by means of the receiver via the interference signal sensor; receiving a magnetic resonance signal of an examination object by means of the receiver via the antenna; reducing a portion of the interference signal in the magnetic resonance signal by means of the receiver as a function of the reference interference signal, wherein the reduction of the interference signal takes place as a function of a portion of the magnetic resonance signal in the reference interference signal received by the interference signal sensor, characterised in that the method further has the steps populating a k-space with scan data of an image acquisition by means of an MR scan, and interpolating a portion of the magnetic resonance signal in the reference interference signal onto the scan data in the k-space with the aid of gridding.
A crane guide assembly for an overhead crane, having at least one crane guide profile for guiding at least one carriage having a plurality of rollers, each guided along a corresponding path of the crane guide profile, the carriage having at least two mutually inclined castors (8, 9) as rollers, the inclined castors (8, 9) forming approximately a reversed V-shape in cross section, wherein their axes of rotation intersect, each carriage having a plurality of pairs of castors arranged successively in the direction of travel, the carriage having a profiled guide roller which is arranged centrally with respect to the two pairs of castors and which is guided along a corresponding path of the crane guide profile, wherein the castors (8, 9) and the guide roller are arranged to each other such that the effective axis of the profiled castor and the effective axis of the non-profiled castor and the effective axis of the guide roller intersect in a common intersection point, wherein one of the two inclined castors (8, 9) is profiled, wherein rod profiles are provided as paths, which are embedded in the crane guide profile, and wherein the rod profiles for the castors (8, 9) and the guide roller in the cross-section are arranged approximately in a triangular shape to each other in the interior of the crane guide profile.
A device for implementing medium-temperature pyrolysis with a cylindrical pyrolysis furnace, the inner surfaces of which are equipped with an insulating layer made from an anorganic thermal insulation material, wherein heating elements are arranged on top of or on the inner surfaces of the insulating layers, with a reaction container with a cylindrical form that is insertable into the pyrolysis furnace, which is open at the top and closable with a lid in the form of a curved base, wherein the lid features at least one gas outlet opening that is connectable to a gas discharge line out of the pyrolysis furnace, and in the lid, a strainer body is arranged which encloses the gas outlet opening, which with its outer edges creates a closure with the inner surface of the lid, in the reaction container above the product to be carbonised, a device for separating pure fine carbon black is further arranged, which consists of a perforated metal sheet (19.1) which is supported on the side on the reaction container wall, and on which perforated metals sheets (19.2) are arranged which point vertically and upwards, with at least one cooling coil connected to the gas discharge line for evaporating the pyrolysis oil, with at least one pyrolysis catchment container and with a gas collector for the remaining gas, and with a control unit for controlling and regulating the heating elements, wherein the control unit is coupled with means for detecting the pyrolysis gas development and at least one temperature sensor for determining the pyrolysis gas temperature, in such a manner that depending on the detected pyrolysis gas development and/or specified pyrolysis gas temperatures and/or a specified time, a step-by-step reduction of the heating capacity of heating elements through to the shutdown of all heating elements can be controlled or regulated.
A masterbatch composition comprising: a propylene (co)polymer as component containing 0 to 3 wt% of ethylene or one or more C4-C10-α-olefin-derived units; and a propylene-ethylene copolymer as component comprising 25 to 35 wt% of ethylene-derived units, and wherein the masterbatch composition satisfies the following requirements: 1) the composition has a melt flow rate (230°C, load: 21.18 N) of 5 to 30 g/10 minutes; 2) xylene insolubles of the composition have an Mw of 10 × 10 4 to 30 × 10 4 and an Mw/Mn of 6 to 20 as measured by GPC; and 3) xylene solubles of the composition have an intrinsic viscosity of 5.5 to 9.0 dl/g; Wherein the masterbatch composition comprises 67 to 75 wt% of component and 25 to 33 wt% of component. a propylene (co)polymer as component containing 0 to 3 wt% of ethylene or one or more C4-C10-α-olefin-derived units; and a propylene-ethylene copolymer as component comprising 25 to 35 wt% of ethylene-derived units, and wherein the masterbatch composition satisfies the following requirements: 1) the composition has a melt flow rate (230°C, load: 21.18 N) of 5 to 30 g/10 minutes; 2) xylene insolubles of the composition have an Mw of 10 × 10 4 to 30 × 10 4 and an Mw/Mn of 6 to 20 as measured by GPC; and 3) xylene solubles of the composition have an intrinsic viscosity of 5.5 to 9.0 dl/g; 1) the composition has a melt flow rate (230°C, load: 21.18 N) of 5 to 30 g/10 minutes; 2) xylene insolubles of the composition have an Mw of 10 × 10 4 to 30 × 10 4 and an Mw/Mn of 6 to 20 as measured by GPC; and 3) xylene solubles of the composition have an intrinsic viscosity of 5.5 to 9.0 dl/g; Wherein the masterbatch composition comprises 67 to 75 wt% of component and 25 to 33 wt% of component.
A process for producing a purified chlorogenic acid-containing preparation, comprising: a first step of dispersing or dissolving a chlorogenic acid-containing composition as a starting material in the presence of acid clay or activated clay in a mixed solvent of 10 to 95 mass% of ethanol and water, a second step of removing a deposit from a dispersion or solution obtained by the first step, a third step of adjusting a concentration of chlorogenic acids and pH in a solution, which has been obtained by the second step, to from 1.5 to 10 mass% and from 2 to 4, respectively, and a fourth step of separating the deposit formed in a concentration-adjusted solution obtained by the third step; further comprising, after the second step and until completion of the third step, a step of adjusting a concentration of the ethanol in the solution, which has been obtained by the second step, to 5 mass% or lower. a first step of dispersing or dissolving a chlorogenic acid-containing composition as a starting material in the presence of acid clay or activated clay in a mixed solvent of 10 to 95 mass% of ethanol and water, a second step of removing a deposit from a dispersion or solution obtained by the first step, a third step of adjusting a concentration of chlorogenic acids and pH in a solution, which has been obtained by the second step, to from 1.5 to 10 mass% and from 2 to 4, respectively, and a fourth step of separating the deposit formed in a concentration-adjusted solution obtained by the third step; further comprising, after the second step and until completion of the third step, a step of adjusting a concentration of the ethanol in the solution, which has been obtained by the second step, to 5 mass% or lower.
A collection liner (3, 21) for a medical or a surgical operation, the collection liner (3, 21) comprising a closed flexible bag portion (12, 22), the closed flexible bag portion (12, 22) has a width direction and a length direction, and an upper part of the bag portion in the length direction and a lower part of the bag portion in the length direction, the lower part comprising a lower volume, characterized in that the lower part of the bag portion (12, 22) is folded inside the upper part of the bag portion (12, 22) in such a manner that the entire lower volume of the lower part is upside down inside the upper part.
A device including a hollow body, an inner volume, and an ambient volume; a) the inner volume including an electronic component; b) the hollow body i) enclosing the inner volume, ii) including a first component, a second component, and an electrode; c) the first component being electrically conductive; d) the second component electrically insulating the electrode from the first component; e) the electrode i) including a cermet, ii) electrically conductively connecting the inner volume to the ambient volume, iii) including a contact surface; f) the contact surface i) being designed to contact a eukaryotic tissue, ii) having a maximum distance from the electronic component of less than 80 mm; the electrode being designed as a single piece; the device including the electronic component, the first component, the second component, and the electrode; characterized in that the contact surface or a partial surface (501, 502) of the contact surface or both has/have an open pore density in a range of 1000 to 80,000 ppi. a) the inner volume including an electronic component; b) the hollow body i) enclosing the inner volume, ii) including a first component, a second component, and an electrode; i) enclosing the inner volume, ii) including a first component, a second component, and an electrode; c) the first component being electrically conductive; d) the second component electrically insulating the electrode from the first component; e) the electrode i) including a cermet, ii) electrically conductively connecting the inner volume to the ambient volume, iii) including a contact surface; i) including a cermet, ii) electrically conductively connecting the inner volume to the ambient volume, iii) including a contact surface; f) the contact surface i) being designed to contact a eukaryotic tissue, ii) having a maximum distance from the electronic component of less than 80 mm; i) being designed to contact a eukaryotic tissue, ii) having a maximum distance from the electronic component of less than 80 mm; the electrode being designed as a single piece; the device including the electronic component, the first component, the second component, and the electrode; characterized in that the contact surface or a partial surface (501, 502) of the contact surface or both has/have an open pore density in a range of 1000 to 80,000 ppi.
Carrier for an LED, having a main body, wherein the carrier has an upper side, on which at least one contact area for attaching an LED is arranged, wherein the contact area for attaching the LED has a stack construction having at least one gold layer and one tin layer, wherein the heights of the at least one gold layer and of the at least one tin layer are chosen such that a ratio of gold to tin of between 75:25 and 85:15 is obtained in the stack construction, wherein a protective apparatus for protecting an LED attached to the carrier from electrostatic discharges is integrated into the main body, wherein the carrier has metallic areas (10, 11) for electrical contact with the LED, which are arranged on the main body and extend from an upper side of the main body to a lower side of the main body, wherein the metallic areas (10, 11) have a layer structure having silver, nickel and gold.