mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for generating a network service monitoring model for a requested network service, the method comprising the following steps performed by a monitoring model generator: receiving an information model identifying measurable metrics in relation to a network in which the requested network service is to be deployed; determining, based on the received information model, network elements and measurable metrics in relation to the network elements for monitoring the requested network service; generating, based on the determined network elements and measurable metrics in relation to the network elements, an ontology schema identifying the measurable metrics in relation to the network elements, and conditions and arguments in relation to the measurable metrics in relation to the network elements; receiving a service deployment model for the requested network service, the service deployment model identifying a type of network service, constraints and points of connections for the requested network service; generating, based on the generated ontology schema and the received service deployment model, the network service monitoring model having conditions in relation to numerical values of the measurable metrics in relation to the network elements; and transmitting the network service monitoring model to an orchestrator for instantiation in the network in which the requested network service is to be deployed. receiving an information model identifying measurable metrics in relation to a network in which the requested network service is to be deployed; determining, based on the received information model, network elements and measurable metrics in relation to the network elements for monitoring the requested network service; generating, based on the determined network elements and measurable metrics in relation to the network elements, an ontology schema identifying the measurable metrics in relation to the network elements, and conditions and arguments in relation to the measurable metrics in relation to the network elements; receiving a service deployment model for the requested network service, the service deployment model identifying a type of network service, constraints and points of connections for the requested network service; generating, based on the generated ontology schema and the received service deployment model, the network service monitoring model having conditions in relation to numerical values of the measurable metrics in relation to the network elements; and transmitting the network service monitoring model to an orchestrator for instantiation in the network in which the requested network service is to be deployed.
Valve for controlling the inlet and/or outlet of a fluid medium, in particular air, into at least one or out of at least one first hollow chamber, which is formed between a first foil layer and a second foil layer of a coil pillow of a building casing element and is closed to be essentially fluid-tight, in which hollow chamber the fluid medium is charged with pressure, with a valve element attachable to the first foil layer, which valve element is designed to be movable relative to an opening provided in the first foil layer, and with a control element which is designed to move the valve element relative to the opening or to hold it in a first position at least partly releasing the opening, wherein the control element is designed for arranging on the second foil layer at a distance from the valve element, characterised in that the valve element comprises magnetisable material and the control element comprises magnetic material or the valve element comprises magnetic material and the control element comprises magnetisable material or the valve element and the control element each comprise magnetic material.
A pump having an adjustable delivery volume, comprising: a. a pump housing featuring a delivery chamber which comprises a delivery chamber inlet for a fluid and a delivery chamber outlet for the fluid; b. a delivery member, which can be rotated within the delivery chamber, for delivering the fluid; c. an adjusting device i. featuring a setting structure, which is mounted such that it can move back and forth within the pump housing in order to adjust the delivery volume of the pump, ii. and a helical spring (10; 20; 30; 40; 50; 60) for applying a spring force, which acts in a setting direction, to the setting structure, wherein d. the windings of the helical spring (10; 20; 30; 40; 50; 60) are enclosed by an envelope lying on the outside of the helical spring (10; 20; 30; 40; 50; 60), e. wherein the cross-sectional area of the envelope as measured transversely with respect to the longitudinal direction of the spring changes progressively in the longitudinal direction of the spring, characterised in that f. the envelope exhibits a concave profile in relation to the longitudinal direction of the spring over the entire length of the helical spring (10; 40; 50; 60), and the concave profile is concave throughout in the circumferential direction of the helical spring (10; 40; 50; 60), and in that g. the cross-sectional area of the envelope is at a maximum in a central region of the helical spring (10; 40; 50) in the longitudinal direction of the spring. a. a pump housing featuring a delivery chamber which comprises a delivery chamber inlet for a fluid and a delivery chamber outlet for the fluid; b. a delivery member, which can be rotated within the delivery chamber, for delivering the fluid; c. an adjusting device i. featuring a setting structure, which is mounted such that it can move back and forth within the pump housing in order to adjust the delivery volume of the pump, ii. and a helical spring (10; 20; 30; 40; 50; 60) for applying a spring force, which acts in a setting direction, to the setting structure, wherein i. featuring a setting structure, which is mounted such that it can move back and forth within the pump housing in order to adjust the delivery volume of the pump, ii. and a helical spring (10; 20; 30; 40; 50; 60) for applying a spring force, which acts in a setting direction, to the setting structure, wherein d. the windings of the helical spring (10; 20; 30; 40; 50; 60) are enclosed by an envelope lying on the outside of the helical spring (10; 20; 30; 40; 50; 60), e. wherein the cross-sectional area of the envelope as measured transversely with respect to the longitudinal direction of the spring changes progressively in the longitudinal direction of the spring, characterised in that f. the envelope exhibits a concave profile in relation to the longitudinal direction of the spring over the entire length of the helical spring (10; 40; 50; 60), and the concave profile is concave throughout in the circumferential direction of the helical spring (10; 40; 50; 60), and in that g. the cross-sectional area of the envelope is at a maximum in a central region of the helical spring (10; 40; 50) in the longitudinal direction of the spring.
A detector for determining a position of at least one object, comprising: - at least one longitudinal optical sensor, wherein the longitudinal optical sensor has at least one sensor region, wherein the longitudinal optical sensor is at least partially transparent, wherein the longitudinal optical sensor is designed to generate at least one longitudinal sensor signal in a manner dependent on an illumination of the sensor region by at least one light beam traveling from the object to the detector, wherein the longitudinal sensor signal, given the same total power of the illumination, is dependent on a beam cross-section of the light beam in the sensor region; - at least one illumination source adapted to illuminate the object with illumination light through the longitudinal optical sensor; and - at least one evaluation device, wherein the evaluation device is designed to generate at least one item of information on a longitudinal position of the object by evaluating the longitudinal sensor signal. - at least one longitudinal optical sensor, wherein the longitudinal optical sensor has at least one sensor region, wherein the longitudinal optical sensor is at least partially transparent, wherein the longitudinal optical sensor is designed to generate at least one longitudinal sensor signal in a manner dependent on an illumination of the sensor region by at least one light beam traveling from the object to the detector, wherein the longitudinal sensor signal, given the same total power of the illumination, is dependent on a beam cross-section of the light beam in the sensor region; - at least one illumination source adapted to illuminate the object with illumination light through the longitudinal optical sensor; and - at least one evaluation device, wherein the evaluation device is designed to generate at least one item of information on a longitudinal position of the object by evaluating the longitudinal sensor signal.
A luminaire (2a, 2b, 2c, 2d) comprising a housing with a first end surface, a second end surface, an at least partially circumferential surface extending between said first end surface and said second end surface, a longitudinal direction extending between said first end surface and said second end surface, and at least one connection device (3a, 3b; 3a', 3b'; 3a", 3b") for connecting said luminaire to a complementary connection device (3b, 3a; 3b', 3a'; 3b", 3a") of another corresponding luminaire, said at least one connection device being arranged on either of said first end surface and said second end surface of said luminaire, said connection device comprising an electrical connection element extending in an angle γ with respect to said longitudinal direction of said luminaire, said angle being comprised in the interval (0°; 90°]; wherein said connection device further comprises a first surface, wherein said first surface extends in an angle P with respect to said longitudinal direction of said luminaire, said angle P being comprised in the interval 0° < β < 90°; wherein said connection device further comprises a second surface, said second surface being chamfered or rounded, and wherein said first surface and said second surface meet in a tip point, the location of the tip point on the connection device satisfying the relation y 2 ≥ y 1 * 1 − sinβ, where y 1 is the height of the luminaire and y 2 is the shortest distance measured in a mounted condition of said luminaire between said tip point and a surface on which the luminaire is mounted.
Separation system, in particular a fat separation system, comprising a separation container which has a first and a second opening (3, 4), each of which openings is associated with a connection nozzle (5, 6), the first opening having a first overflow level and the second opening having a second overflow level, and one of the two connection nozzles (5, 6) defining a first wastewater level (C, D) and the other of the two connection nozzles (5, 6) defining a second wastewater level (C, D), it being possible to attach a connection nozzle (5, 6) to one of the two openings (3, 4) in a position in which its wastewater level (C, D) is at a different height from the wastewater level (C, D) of the connection nozzle (5, 6) attached to the other opening (3, 4), and the wastewater level (C, D) of this nozzle (5, 6) differing from the overflow level (A, B) of the opening (3, 4) to which this nozzle (5, 6) is attached, characterised in that the separation container has at least one coverable inspection opening on its upper face, which inspection opening is arranged in the region of the first opening and/or in the region of the second opening and extends obliquely upwards from this region towards the middle of the upper face of the separation container.
Placement device for the automatic depositing of fibre structures on a workpiece, having a plurality of support elements with respectively at least one placement head, said at least one placement head being provided to deposit fibre structures on the workpiece, and the plurality of support elements respectively being disposed on an annular path in a peripheral direction around the workpiece and being displaceable relative to one another in a longitudinal direction of the workpiece.
A non-naturally occurring or engineered composition for expression in a cell, comprising: a single polynucleotide comprising sequences for expression of two or more CRISPR-Cas9 system guides from a single promoter, wherein each system guide is a chimeric RNA (chiRNA) and comprises from 5' to 3' a guide sequence that hybridizes to a DNA target at a locus of interest, a tracr mate sequence, and a tracr sequence, and wherein the tracr sequence of a first chiRNA is linked to the guide sequence of a second chiRNA by a linker sequence.
An internal check mirror for an overhead bin installed above a seat in a passenger aircraft, comprising a Fresnel mirror having a convex mirror function which comprises a substrate of a transparent resin, a plurality of minute grooves having V-shaped cross-sections formed on a back surface side of the substrate, a reflective film covering a surface of the plurality of minute grooves and a protective layer covering the reflective film, a thickness of the Fresnel mirror is from 0.1 to 1.0 mm, characterized in that a radius of curvature of a virtual arc based on inclined surfaces of the plurality of the minute grooves is from 200 to 1000 mm, in that the Fresnel mirror has a width direction dimension of from 200 to 800 mm and a longitudinal directional dimension of from 150 to 600 mm, in that a rigid plate of fiber-reinforced resin composite material is bonded to a back surface of the Fresnel mirror, in that a thickness of the rigid plate is from 0.1 to 0.5 mm, and in that a total thickness of the Fresnel mirror, the rigid plate, and an adhesion layer that is interposed between the Fresnel mirror and the rigid plate is from 0.2 to 1.0 mm.
A binder mixture for producing molded parts by injection molding methods, comprising at least one polymeric compound A selected from the group comprising at least one polyethylene including HDPE, LDPE, MDPE and UHMW-HDPE, and/or at least one polypropylene in an amount within a range of about 10% by weight to about 60% by weight, based on the total amount of the binder mixture, with a first softening range measured according to DIN ISO 4625 and a first melt viscosity measured according to DIN 54811; at least one polymeric compound B selected from the group comprising at least one poly(vinyl acetate) in an amount of about 10% by weight to about 65% by weight, based on the total amount of the binder mixture, with a second softening range measured according to DIN ISO 4625 and a second melt viscosity measured according to DIN 54811; at least one non-polymeric compound C selected from the group comprising at least one natural, synthetic and/or chemically modified wax, especially paraffin wax including hard paraffin, microwax, montan wax, ceresin, ozokerite and/or montan ester wax, in an amount of about 10% by weight to about 65% by weight, based on the total amount of the binder mixture, wherein said first softening range of compound A and said second softening range of compound B are between about 80 °C and about 200 °C, the ratio of the second melt viscosity of compound B to the first melt viscosity of compound A is from about 0.1:1 to about 100:1, and compound B and compound C are soluble in a solvent selected from the group comprising acetone, xylene, turpentine, tetrahydrofuran and/or ethyl acetate in a temperature range of from about 20 °C to about 90 °C.
A modified substrate for binding of a target molecule thereon, the substrate including: - a surface that is hydrophobic wherein the substrate is composed of a metal, a metal or metalloid composite, a synthetic polymer, a plastic, or carbon, and - a chromium complex including a chromium ion, the chromium ion having: (i) one or more co-ordination sites occupied by a hydrophobic ligand for binding the metal complex to the hydrophobic surface wherein the hydrophobic ligand is of the form R-X, where X is a carboxylic acid and R is independently selected from alkyl, heteroalkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aryl, heteroaryl, aralkyl and heteroaralkyl groups which groups are optionally substituted, and (ii) one or more co-ordination sites available for binding to a target molecule, wherein the hydrophobic ligand binds to the hydrophobic surface by non-covalent and non-coordinative interactions such that the co-ordination sites available for binding to a target molecule are directed away from the hydrophobic surface, optionally wherein the modified substrate includes a target molecule bound thereto. - a surface that is hydrophobic wherein the substrate is composed of a metal, a metal or metalloid composite, a synthetic polymer, a plastic, or carbon, and - a chromium complex including a chromium ion, the chromium ion having: (i) one or more co-ordination sites occupied by a hydrophobic ligand for binding the metal complex to the hydrophobic surface wherein the hydrophobic ligand is of the form R-X, where X is a carboxylic acid and R is independently selected from alkyl, heteroalkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aryl, heteroaryl, aralkyl and heteroaralkyl groups which groups are optionally substituted, and (ii) one or more co-ordination sites available for binding to a target molecule, (i) one or more co-ordination sites occupied by a hydrophobic ligand for binding the metal complex to the hydrophobic surface wherein the hydrophobic ligand is of the form R-X, where X is a carboxylic acid and R is independently selected from alkyl, heteroalkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, alkylcycloalkyl, heteroalkylcycloalkyl, aryl, heteroaryl, aralkyl and heteroaralkyl groups which groups are optionally substituted, and (ii) one or more co-ordination sites available for binding to a target molecule,
Method of following a transfer orbit or a phase of orbital placement of a space vehicle comprising the following steps: a) tracking at least one GNSS signal (s gnss) and using it to determine at least one pseudorange between the space vehicle and one or more GNSS satellite(s) transmitting the or each signal; b) using an estimation model to jointly estimate a set (ξ) of state parameters of the space vehicle comprising a plurality of position parameters, a plurality of velocity parameters, at least one clock parameter, and at least one thrust error parameter characterizing a discrepancy between an actual thrust force of the space vehicle and a nominal thrust force, by taking the pseudorange or pseudoranges as an input data item of the estimation model; characterized in that the thrust is a continuous thrust of the electric type. a) tracking at least one GNSS signal (s gnss) and using it to determine at least one pseudorange between the space vehicle and one or more GNSS satellite(s) transmitting the or each signal; b) using an estimation model to jointly estimate a set (ξ) of state parameters of the space vehicle comprising a plurality of position parameters, a plurality of velocity parameters, at least one clock parameter, and at least one thrust error parameter characterizing a discrepancy between an actual thrust force of the space vehicle and a nominal thrust force, by taking the pseudorange or pseudoranges as an input data item of the estimation model;
An air data probe system, comprising: a pitot static system configured to sense at least one total pressure value of a flow at one or more locations, at least one static pressure value of the flow at the one or more locations, and, directly or indirectly, at least one differential static pressure value of the flow at the one or more locations; and an angle of slip module configured to determine a local angle of slip (LAOS) value at each location based on the at least one total pressure value at each location, the at least one static pressure value at each location, and the at least one differential static pressure value at each location, wherein the AOS module is configured to determine a local angle of attack (LAOA) value at each location based on the at least one differential pressure value at each location, or to receive an LAOA value from the pitot static system; characterised in that: the AOS module is configured to determine the LAOS at each location based on a comparison of total pressure to static pressure ratio (P t /P s) against LAOA at a given speed, altitude, and temperature. a pitot static system configured to sense at least one total pressure value of a flow at one or more locations, at least one static pressure value of the flow at the one or more locations, and, directly or indirectly, at least one differential static pressure value of the flow at the one or more locations; and an angle of slip module configured to determine a local angle of slip (LAOS) value at each location based on the at least one total pressure value at each location, the at least one static pressure value at each location, and the at least one differential static pressure value at each location, wherein the AOS module is configured to determine a local angle of attack (LAOA) value at each location based on the at least one differential pressure value at each location, or to receive an LAOA value from the pitot static system; characterised in that: the AOS module is configured to determine the LAOS at each location based on a comparison of total pressure to static pressure ratio (P t /P s) against LAOA at a given speed, altitude, and temperature.
A method for the dry forming of a fiber web in which a multiplicity of fibers or fiber mixtures are fed to a forming head by means of an air flow, in which a fiber/air mixture is produced by the forming head and is introduced into a clearance of a forming zone as a fiber stream, in which the fibers of the fiber stream in the forming zone are intercepted by an air permeable laydown belt, in which the air on an underside of the laydown belt is suctioned and in which the fiber layer produced on an upper side of the laydown belt is conveyed by the laydown belt from the forming zone, characterized in that the fibers of the fiber stream within the forming zone run through the clearance with free sections of differing length, and the clearance of the forming zone on the inflow side is kept open to the surroundings for guiding the fibers.
A mononuclear cell preparation method, comprising the steps of: passing blood through a mononuclear cell preparation device from an inlet side to an outlet side of the device, thereby capturing granulocytes in the mononuclear cell preparation device; and passing a washing solution comprising a divalent cation through the mononuclear cell preparation device from the inlet side to the outlet side of the device, thereby recovering mononuclear cells remaining in the mononuclear cell preparation device, wherein the mononuclear cell preparation device comprises a container provided with an inlet and an outlet and is packed with a mononuclear cell preparation material for removing granulocytes from blood to prepare mononuclear cells, wherein the mononuclear cell preparation material comprises a nonwoven fabric made of a polyamide resin and having an air permeability of at least 10 mL/cm 2 /sec but not more than 75 mL/cm 2 /sec. passing blood through a mononuclear cell preparation device from an inlet side to an outlet side of the device, thereby capturing granulocytes in the mononuclear cell preparation device; and passing a washing solution comprising a divalent cation through the mononuclear cell preparation device from the inlet side to the outlet side of the device, thereby recovering mononuclear cells remaining in the mononuclear cell preparation device,