mhurhangee/patent-ind-claim-en huggingface dataset:
Component consisting of a first ceramic substrate having an upper face and a lower face , a metallization being applied to the upper face , on which metallization the lower face of a Si circuit is mounted by means of a connecting means , a connecting means being applied to the upper face of the Si circuit , on which connecting means the lower face of a ceramic flat substrate is applied, and a second ceramic substrate being arranged on the flat substrate via a metallization and the ceramic flat substrate containing metal-filled thermal-electrical through-connections (vias) , characterized in that the metal-filled thermal-electrical through-connections (vias) are filled with Cu and the ceramic flat substrate is aluminum nitride.
A method for electrical discharge drilling of a hole in a part made of electroconductive material, in particular for an aircraft turbomachine, the method using an electrical discharge machine comprising a head that can move relative to the part and carrying a consumable EDM electrode which is of elongated shape and is moved in translation along its elongation axis, the method comprising the steps of: a) advancing the EDM electrode towards the part in order to drill a hole in the part, b) retracting the EDM electrode and removing the EDM electrode from the hole, c) laterally moving the head over a distance representing less than 100% of the diameter of the hole to be drilled, d) advancing the EDM electrode towards the part in order to scan the part, and e) calculating the effective depth of the hole drilled in step a) from a difference in the measured sides in a direction parallel to said axis, between a first position of the EDM electrode at the end of step a), and a second position of the EDM electrode in step d) when scanning the part. a) advancing the EDM electrode towards the part in order to drill a hole in the part, b) retracting the EDM electrode and removing the EDM electrode from the hole, c) laterally moving the head over a distance representing less than 100% of the diameter of the hole to be drilled, d) advancing the EDM electrode towards the part in order to scan the part, and e) calculating the effective depth of the hole drilled in step a) from a difference in the measured sides in a direction parallel to said axis, between a first position of the EDM electrode at the end of step a), and a second position of the EDM electrode in step d) when scanning the part.
Roadway delimitation element comprising a stationary element and a telescopic element , the telescopic element being movable relative to the stationary element , the telescopic element being displaceable in particular into a crash barrier element , the telescopic element and the stationary element being connected or connectable by means of a locking device , characterized in that the locking device is connected to a fluidic device by means of a force transmission element , in particular a traction drive , the locking device and the telescopic element being movable by the fluidic device , the fluidic device comprising a pressure accumulator .
A cap for a threaded neck container and for use in a closed transfer system, said cap comprising: - a main body having a cylindrical shape with a longitudinal axis (X-X') and comprising : - a first axial opening and a second axial opening facing the first axial opening - an outer skirt and an inner skirt concentrically extending toward the first axial opening and connected to each other, the inner skirt surrounding an inner axial bore - a cylindrical wall extending axially in a direction opposite to the first axial opening , and comprising a free end delimiting the second axial opening ; - an obturator with a circular section, centered around the longitudinal axis (X-X') and shaped to cooperate with the internal skirt of the main body so as to cover the internal axial bore in a sealed manner, the obturator being designed to cooperate with an external opening mechanism belonging to the closed transfer system; and - a protective cap covering the second axial opening ; said assembly being characterized in that : - the protective cap comprises : - a fixing collar ; - a hinge - a cover pivotally mounted with respect to the fixing collar by means of the hinge ; - the securing collar includes a thin web of material shaped to break under tension on the securing collar. - a main body having a cylindrical shape with a longitudinal axis (X-X') and comprising : - a first axial opening and a second axial opening facing the first axial opening - an outer skirt and an inner skirt concentrically extending toward the first axial opening and connected to each other, the inner skirt surrounding an inner axial bore - a cylindrical wall extending axially in a direction opposite to the first axial opening , and comprising a free end delimiting the second axial opening ; - an obturator with a circular section, centered around the longitudinal axis (X-X') and shaped to cooperate with the internal skirt of the main body so as to cover the internal axial bore in a sealed manner, the obturator being designed to cooperate with an external opening mechanism belonging to the closed transfer system; and - a protective cap covering the second axial opening ; - the protective cap comprises : - a fixing collar ; - a hinge - a cover pivotally mounted with respect to the fixing collar by means of the hinge ; - a fixing collar ; - a hinge - a cover pivotally mounted with respect to the fixing collar by means of the hinge ; - the securing collar includes a thin web of material shaped to break under tension on the securing collar.
Separation disc for a centrifuge , in particular for a separator, wherein the separation disc is provided to be arranged in a separation disc stack in a drum interior of a drum of the centrifuge for clarifying or separating a mixture of substances, wherein the separation disc has a frustoconical shell-like main body which is created in a forming process and has a smaller diameter d and a large diameter D, as well as an inner surface and an outer surface and has at least one or more spacers , wherein radial outer projections are arranged circumferentially distributed on the large diameter D of the main body in the region of the spacers and the respective projection is arranged in extension of the outer surface of the main body of the separation disc , characterized in that the spacers are arranged in the form of tabs at an angle α to the surface line M, wherein a. the projections are arranged at the angle α to the surface line M and that in the region of the projection , the respective tab follows the angular orientation of the projection , so that the respective tab extends in a line with the projection , or b. in the region of the projection , the respective tab is designed to be angled by the complementary angle β of the angle α, so that the respective tab has a first section and a second section . a. the projections are arranged at the angle α to the surface line M and that in the region of the projection , the respective tab follows the angular orientation of the projection , so that the respective tab extends in a line with the projection , or b. in the region of the projection , the respective tab is designed to be angled by the complementary angle β of the angle α, so that the respective tab has a first section and a second section .
Optical position measuring device with a reflection material measure and a scanning unit which is movable relative thereto in at least one measurement direction (x), - wherein the reflection material measure has an incremental measurement graduation and, at at least one reference position (x REF ), a reference mark , and - wherein the scanning unit comprises, in addition to scanning means (30.1, 30.2) for the incremental signal generation, at least one light source , an imaging optical unit , a stop structure arranged in a stop plane, and a plurality of detector elements (27.1, 27.2, 27.3) for the reference signal generation, and the reference mark is imaged onto the stop structure via the imaging optical unit, characterized - in that the reference mark is arranged on the reflection material measure such that it is integrated in the incremental measurement graduation , and - in that the imaging optical unit has, along a transverse direction (y) oriented perpendicular to the measurement direction (x), a changing object-side focal length, and - in that the object-side focal lengths of the imaging optical unit are selected such that, for each scanning distance between the scanning unit and the reflection material measure , the object-side focal length lies in the plane of the neutral point of rotation (N) of the incremental scan, wherein the neutral point of rotation (N) of the incremental scan is defined as that point about which tilting of the scanning unit or of the reflection material measure is possible without a position error in the generated incremental signals (INC A , INC B ) occurring as a result. - wherein the reflection material measure has an incremental measurement graduation and, at at least one reference position (x REF ), a reference mark , and - wherein the scanning unit comprises, in addition to scanning means (30.1, 30.2) for the incremental signal generation, at least one light source , an imaging optical unit , a stop structure arranged in a stop plane, and a plurality of detector elements (27.1, 27.2, 27.3) for the reference signal generation, and the reference mark is imaged onto the stop structure via the imaging optical unit, - in that the reference mark is arranged on the reflection material measure such that it is integrated in the incremental measurement graduation , and - in that the imaging optical unit has, along a transverse direction (y) oriented perpendicular to the measurement direction (x), a changing object-side focal length, and - in that the object-side focal lengths of the imaging optical unit are selected such that, for each scanning distance between the scanning unit and the reflection material measure , the object-side focal length lies in the plane of the neutral point of rotation (N) of the incremental scan, wherein the neutral point of rotation (N) of the incremental scan is defined as that point about which tilting of the scanning unit or of the reflection material measure is possible without a position error in the generated incremental signals (INC A , INC B ) occurring as a result.
A method for producing a formed component, comprising at least the following steps: (A) Providing a flat steel product, (B) Skin pass the steel flat product from step (A), (C) Application of a functional coating to the flat steel product from step (B), (D) Forming the steel flat product from step (C) to produce a formed component, (E) Removing the functional coating of step from the formed component, (F) Application of activation particles to the formed component from step (E), and (G) Application of a phosphate coating to the formed component from step (F), characterized in that additional activation particles are applied to the flat steel product before and/or during step (B) and/or before and/or during step (C). (A) Providing a flat steel product, (B) Skin pass the steel flat product from step (A), (C) Application of a functional coating to the flat steel product from step (B), (D) Forming the steel flat product from step (C) to produce a formed component, (E) Removing the functional coating of step from the formed component, (F) Application of activation particles to the formed component from step (E), and (G) Application of a phosphate coating to the formed component from step (F),
Handle cord for a battery box having a cord and a closure which is protected against possible opening and is composed of two closure parts , which are attached to the two ends of the cord and of which the first closure part consists of a body which has a diameter larger than that of the cord and can be inserted into a chamber in the second closure part , wherein, to insert the body of the first closure part into the chamber of the second closure part , the second closure part has a through-opening , which is arranged transversely in relation to the longitudinal axis (L) of said second closure part, allows the passage of the body of the first closure part , and is connected to the chamber for receiving the body of the first closure part via an axial constriction having approximately the width of the cord, wherein both the chamber and the constriction are open towards the bottom side of the through-opening , are closed towards the top side of the through-opening , and are, however, preferably also closed towards the side, wherein the first closure part and/or the second closure part are/is designed such that, in a state when the body of the first closure part is received in the chamber of the second closure part , a force component acting on the body of the first closure part in the direction of the top side of the chamber is generated when the cord is subjected to tensile loading, wherein at least one wall delimiting the chamber and/or the wall at the free end of the body of the first closure part has a force deflection slope , which is designed such that a force acting on this wall by means of the body of the first closure part is deflected at least partially into a force component acting in the direction of the top side of the chamber when the cord is subjected to tensile loading.
A fuel cell separator precursor comprising a porous sheet containing an electroconductive filler, a resin composition containing a thermoplastic resin and an electroconductive filler, wherein the resin composition is impregnated in the porous sheet, and the electroconductive filler contained in the resin composition has an average particle size of 5 to 200 μm, as measured by a method set out in the description.
A resource configuration method, wherein the method comprises: receiving , by a receive end device, configuration information from a transmit end device, wherein the configuration information indicates a resource block group, RBG, size, the RBG size belongs to a RBG size set, and the RBG size set corresponds to a system bandwidth parameter and comprises at least two RBG sizes; and determining , by the receive end device, a RBG size based on the configuration information, wherein the RBG size is a resource scheduling frequency domain size. receiving , by a receive end device, configuration information from a transmit end device, wherein the configuration information indicates a resource block group, RBG, size, the RBG size belongs to a RBG size set, and the RBG size set corresponds to a system bandwidth parameter and comprises at least two RBG sizes; and determining , by the receive end device, a RBG size based on the configuration information, wherein the RBG size is a resource scheduling frequency domain size.
A package of absorbent units (5; 11), said package comprising an outer enclosure enclosing said absorbent units (5; 11) and being at least partially non opaque, wherein said outer enclosure has a thickness (t) which is not more than approximately 70 μm, wherein said outer enclosure supports a first graphical item and at least one of said absorbent units (5; 11) supports a second graphical item (9; 9'), characterized in that said absorbent unit (5; 11) supporting said second graphical item (9; 9') is configured so that said second graphical item (9; 9') is positioned in a manner so that it is generally not visible for a viewer from outside the outer enclosure and wherein said second graphical item (9; 9 ') is covered by the first graphical item and wherein said outer enclosure is manufactured from a material with an opacity which is not higher than approximately 70%.
A method performed by a first network entity, comprising: sending a first request targeting resource context or session context to a second network entity; and receiving a first rejection response from the second network entity or an alternative second network entity, wherein the first rejection response includes information comprising: a first parameter indicating whether the first request should be retried or not with any of the second network entity and any other alternative second network entity; and/or a second parameter indicating whether to use the alternative second network entity for a subsequent request targeting the same resource context or session context, wherein the first rejection response including information comprising the second parameter is received from the alternative second network entity. sending a first request targeting resource context or session context to a second network entity; and receiving a first rejection response from the second network entity or an alternative second network entity, wherein the first rejection response includes information comprising: a first parameter indicating whether the first request should be retried or not with any of the second network entity and any other alternative second network entity; and/or a second parameter indicating whether to use the alternative second network entity for a subsequent request targeting the same resource context or session context, wherein the first rejection response including information comprising the second parameter is received from the alternative second network entity. a first parameter indicating whether the first request should be retried or not with any of the second network entity and any other alternative second network entity; and/or a second parameter indicating whether to use the alternative second network entity for a subsequent request targeting the same resource context or session context, wherein the first rejection response including information comprising the second parameter is received from the alternative second network entity.
A synthetic nutritional composition for infants comprising: a. 13.8-17 mg/100ml n-6 eicosatrienoic acid, b. 0.2-0.25 mg/100ml GD-3, c. 0.2-0.25 mg/100ml GM-3, d. GM-3 and GD-3 in a GM3:GD-3 ratio of 1.1 to 1.45, and e. 0.4-0.52 mg/100ml GD-3+GM-3, wherein the composition is especially adapted to the nutritional needs of infants less than three months old. a. 13.8-17 mg/100ml n-6 eicosatrienoic acid, b. 0.2-0.25 mg/100ml GD-3, c. 0.2-0.25 mg/100ml GM-3, d. GM-3 and GD-3 in a GM3:GD-3 ratio of 1.1 to 1.45, and e. 0.4-0.52 mg/100ml GD-3+GM-3,
Loading crane comprising: - an articulated arm, comprising at least one first and one second bodies (103") successively connected in order to form an open kinematic chain, wherein the second body is translatingly or rotatably movable with respect to the first body; - a hydraulic circuit adapted to convey a working fluid for actuating the articulated arm, wherein said hydraulic circuit comprises a segment associated to one of the first and second bodies comprising: - at least one sliding rigid tube slidingly translatingly connected to the body to which the segment of the hydraulic circuit is associated; - at least one stationary tube integrally connected to the body to which the segment of the hydraulic circuit is associated; - a flexible tube fluidically interconnecting the sliding rigid tube and the stationary tube , and characterised in that said hydraulic circuit further comprises a further segment associated to the other of the first and second bodies (103") and a joining segment comprising at least one joining flexible tube fluidically interconnecting said further segment of the hydraulic circuit and said at least one sliding rigid tube , wherein said joining segment is arranged at the interface between the first body and the second body (103") where the relative movement thereof occurs. - an articulated arm, comprising at least one first and one second bodies (103") successively connected in order to form an open kinematic chain, wherein the second body is translatingly or rotatably movable with respect to the first body; - a hydraulic circuit adapted to convey a working fluid for actuating the articulated arm, - at least one sliding rigid tube slidingly translatingly connected to the body to which the segment of the hydraulic circuit is associated; - at least one stationary tube integrally connected to the body to which the segment of the hydraulic circuit is associated; - a flexible tube fluidically interconnecting the sliding rigid tube and the stationary tube , and characterised in that said hydraulic circuit further comprises a further segment associated to the other of the first and second bodies (103") and a joining segment comprising at least one joining flexible tube fluidically interconnecting said further segment of the hydraulic circuit and said at least one sliding rigid tube , wherein said joining segment is arranged at the interface between the first body and the second body (103") where the relative movement thereof occurs.
Mixing device , in particular for mixing solids in a mixing container , having a stirring device comprising at least two helix-shaped stirring blades connected to a shaft to be driven by a motor, wherein the stirring blades comprise a first section , a second section and a third section , wherein each of the sections has a constant pitch (m1, m2, m3) having a steepness or a pitch (m1, m2, m3) with a curvature differing from a constant pitch, and wherein at least one of the constant pitches (m1, m2, m3) has a steepness different from the at least one other constant pitch (m1, m2, m3), or one of the differing pitches (m1, m2, m3) has a curvature different from the at least one other different pitch (m1, m2, m3), wherein at a first end of the stirring blades strippers and at a second end of the stirring blades bottom reamers are arranged, and with a mixing container, characterized in that the mixing container has a cylindrically extending housing wall , a conically extending housing wall , and a valve , wherein the conically extending housing wall is arranged between the cylindrically extending housing wall and the valve , wherein the strippers are arranged parallel to the cylindrically extending housing wall .
An access hub for a flow system in a subsea oil and gas production system, the access hub comprising: a body defining a conduit therethrough; a first connector configured to connect the body to a flowline connector for a jumper flowline of the flow system; a second connector configured to connect the body to an intervention apparatus ; and a third connector for connecting the access hub to the jumper flowline ; wherein the access hub is configured to be in fluid communication with the jumper flowline ; and wherein, in use, the conduit provides an intervention path from the intervention apparatus to the flow system. a body defining a conduit therethrough; a first connector configured to connect the body to a flowline connector for a jumper flowline of the flow system; a second connector configured to connect the body to an intervention apparatus ; and a third connector for connecting the access hub to the jumper flowline ; wherein the access hub is configured to be in fluid communication with the jumper flowline ; and wherein, in use, the conduit provides an intervention path from the intervention apparatus to the flow system.
A method for monitoring a track line by means of a monitoring device which is connected to a sensor extending along the track line , wherein the sensor which is set in vibration delivers measurement data for the monitoring device , wherein a rail vehicle travels on the track line , during which vibrations having known vibration values (a, Q A , Q S ) are introduced into the track line and transmitted to the sensor , that position data (x) of the rail vehicle are recorded, and that, by means of an evaluation device , a characteristic of the vibration transmission is derived from the known vibration values (a, Q A , Qs), the measurement data delivered by the sensor and the position data (x) for the track line and wherein the characteristic of the vibration transmission is stored as a transmission function (T) in the monitoring device .