mhurhangee/patent-ind-claim-en huggingface dataset:
Tuned mass damper, which can be variably adapted to an interference frequency and used in wind turbines, buildings, and turbine machinery having comparable vibration characteristics, comprising a chassis equipped with wheels or rollers (2.1), a mass-damper main mass , and a running device , - the mass-damper main mass being attached to the chassis or being an integral part of the chassis, - the running device for the chassis being substantially circular or concavely curved such that the chassis or the mass-damper main mass can be moved and displaced on this running device from a central position or apex position in accordance with the vibrational forces which trigger the movements acting in the direction of the running device, - the chassis or the mass-damper main mass having at least one disk-shaped, rotationally symmetrical driven rotary flywheel mass , which has an axis of rotation perpendicular to the plane of the circular path of the running device, and moving together with the mass-damper main mass , and - the at least one rotary flywheel mass comprising at least one rotating mass disk and having a rotational direction that substantially corresponds to the relevant direction of the moved chassis along the running device, characterized in that the disk-shaped rotary flywheel mass is driven by a belt drive device without active involvement of the wheels or rollers (2.1) of the chassis , the belt drive device being attached underneath the running device and the center of gravity of the rotary flywheel mass which is connected to the belt drive device being below the running device . - the mass-damper main mass being attached to the chassis or being an integral part of the chassis, - the running device for the chassis being substantially circular or concavely curved such that the chassis or the mass-damper main mass can be moved and displaced on this running device from a central position or apex position in accordance with the vibrational forces which trigger the movements acting in the direction of the running device, - the chassis or the mass-damper main mass having at least one disk-shaped, rotationally symmetrical driven rotary flywheel mass , which has an axis of rotation perpendicular to the plane of the circular path of the running device, and moving together with the mass-damper main mass , and - the at least one rotary flywheel mass comprising at least one rotating mass disk and having a rotational direction that substantially corresponds to the relevant direction of the moved chassis along the running device, characterized in that the disk-shaped rotary flywheel mass is driven by a belt drive device without active involvement of the wheels or rollers (2.1) of the chassis , the belt drive device being attached underneath the running device and the center of gravity of the rotary flywheel mass which is connected to the belt drive device being below the running device .
A compound of the formula: or a pharmaceutically acceptable salt or hydrate thereof.
A MEMS device comprising: a) a silicon substrate , a MEMS layer and a silicon cap sealed together, b) a mobile structure (7.1, 7.2) in the MEMS layer defined by openings (8.1, 8.2) in the MEMS layer , c) in the substrate at least one substrate cavity (6.1, 6.2) with an opening towards the mobile structure (7.1, 7.2), said substrate comprising conductive structures (11.1, 11.2, 11.3) configured to connect said MEMS layer ; d) in the cap at least one cap cavity with an opening towards the mobile structure (7.1, 7.2), wherein the cap cavity and the MEMS layer define an inner surface enclosing a space within the MEMS device, e) at least one getter layer (10.1, 10.2) arranged on said inner surface; wherein the at least one getter layer (10.1, 10.2) is arranged on a static part of the MEMS layer ; the depth of the at least one cap cavity being smaller than the thickness of the MEMS layer . a) a silicon substrate , a MEMS layer and a silicon cap sealed together, b) a mobile structure (7.1, 7.2) in the MEMS layer defined by openings (8.1, 8.2) in the MEMS layer , c) in the substrate at least one substrate cavity (6.1, 6.2) with an opening towards the mobile structure (7.1, 7.2), said substrate comprising conductive structures (11.1, 11.2, 11.3) configured to connect said MEMS layer ; d) in the cap at least one cap cavity with an opening towards the mobile structure (7.1, 7.2), wherein the cap cavity and the MEMS layer define an inner surface enclosing a space within the MEMS device, e) at least one getter layer (10.1, 10.2) arranged on said inner surface;
A catheter hub for use with a medical device and a catheter, the catheter hub comprising: a hub body defining a fluid passageway in communication with an aperture , the hub body adapted for attachment to the catheter, the fluid passageway and the catheter aligned for fluid flow therethrough, the aperture extending from and communicating with the fluid passageway to an exterior surface of the hub body; and a sealing element made of self-sealing material and configured to receive the medical device, the sealing element sized for and positioned in the aperture, wherein the sealing element and the aperture each have a corresponding complementary shape to form a fluid-tight seal between the sealing element and the aperture, the sealing element being fully retained within the aperture. a hub body defining a fluid passageway in communication with an aperture , the hub body adapted for attachment to the catheter, the fluid passageway and the catheter aligned for fluid flow therethrough, the aperture extending from and communicating with the fluid passageway to an exterior surface of the hub body; and a sealing element made of self-sealing material and configured to receive the medical device, the sealing element sized for and positioned in the aperture, wherein the sealing element and the aperture each have a corresponding complementary shape to form a fluid-tight seal between the sealing element and the aperture, the sealing element being fully retained within the aperture.
A plasticizer composition comprising an epoxidized oil and a phthalate-based material, wherein the epoxidized oil and the phthalate-based material are included at a weight ratio of 70:30 to 30:70, wherein the phthalate-based material comprises one or more selected from the group consisting of diisodecyl phthalate (DIDP), diisononyl phthalate (DINP), and dipropylheptyl phthalate (DPHP).
A method of weaving fabric for use in the manufacture of a vehicle air-bag , the method comprising: providing a weaving reed having a plurality of adjacent cells ; introducing regular warp yarns (6, 10a - 10f) into at least some of the cells ; introducing an additional yarn into one of the cells that already includes a regular warp yarn (6, 10a - 10f); and carrying out a weaving process in which: weft yarns are interwoven with the regular warp yarns (6, 10a - 10f) and the additional warp yarns ; the regular warp yarns (6, 10a - 10f) each remain within one cell throughout the weaving process; and the additional warp yarn is moved from a first cell to a second cell during the weaving process. providing a weaving reed having a plurality of adjacent cells ; introducing regular warp yarns (6, 10a - 10f) into at least some of the cells ; introducing an additional yarn into one of the cells that already includes a regular warp yarn (6, 10a - 10f); and carrying out a weaving process in which: weft yarns are interwoven with the regular warp yarns (6, 10a - 10f) and the additional warp yarns ; the regular warp yarns (6, 10a - 10f) each remain within one cell throughout the weaving process; and the additional warp yarn is moved from a first cell to a second cell during the weaving process. weft yarns are interwoven with the regular warp yarns (6, 10a - 10f) and the additional warp yarns ; the regular warp yarns (6, 10a - 10f) each remain within one cell throughout the weaving process; and the additional warp yarn is moved from a first cell to a second cell during the weaving process.
A rotor , comprising: at least two rotor blades , wherein each rotor blade of the at least two rotor blades rotates around a rotor axis (Y) and performs pitching around a pitch axis (X), wherein the rotor axis (Y) and the pitch axis (X) intersect in a rotor center (P 0 ), characterized in that each rotor blade comprises: at least one permanent magnet having a first spherical magnet surface arranged such that the first spherical magnet surface has a first predetermined radius (R 1 ) from the rotor center (P 0 ); and a pitch control apparatus for controlling the pitching of the at least two rotor blades that comprises electrically controlled magnets having a second spherical magnet surface arranged such that the second spherical magnet surface has a second predetermined radius (R 2 ) from the rotor center (P 0 ); wherein the at least one permanent magnet and the electrically controlled magnets arranged opposing each other, form a gap between the first spherical magnet surface and the second spherical magnet surface , the gap being constant during control of the pitching of the at least two rotor blades . at least two rotor blades , wherein each rotor blade of the at least two rotor blades rotates around a rotor axis (Y) and performs pitching around a pitch axis (X), wherein the rotor axis (Y) and the pitch axis (X) intersect in a rotor center (P 0 ), characterized in that each rotor blade comprises: at least one permanent magnet having a first spherical magnet surface arranged such that the first spherical magnet surface has a first predetermined radius (R 1 ) from the rotor center (P 0 ); and a pitch control apparatus for controlling the pitching of the at least two rotor blades that comprises electrically controlled magnets having a second spherical magnet surface arranged such that the second spherical magnet surface has a second predetermined radius (R 2 ) from the rotor center (P 0 ); wherein the at least one permanent magnet and the electrically controlled magnets arranged opposing each other, form a gap between the first spherical magnet surface and the second spherical magnet surface , the gap being constant during control of the pitching of the at least two rotor blades .
Yeast extract obtained by extraction using ionic and non-ionic surfactant solutions for use in the treatment of allergies, wherein the extract is administered mucosally and the administration takes place within six hours, preferably within two hours, after the end of the exposure to the allergen.
Subsea power cable comprising a conductor surrounded by at least one layer of insulation and at least one layer of armouring , the conductor comprising at least a first conductor element and a second conductor element , where the first conductor element is made of a first material and the second conductor element is made of a second material and where the first and the second materials are different, characterized in that the conductor comprises a core, a first layer surrounding the core and a second layer surrounding the first layer, the first layer and the second layer each being made of first conductor elements and second conductor elements.
A vacuum gripper for handling objects, wherein the vacuum gripper comprises the following: - a flexible suction cup which defines a suction chamber able to be connected to a vacuum source and a front end region adjacent a suction opening as well as an oppositely disposed rear end region; and - a suction cup holder connected to the rear end region of the suction cup , wherein the vacuum gripper is allocated a system for function monitoring which comprises at least one sensor element arranged in the vacuum gripper , wherein the at least one sensor element is designed to output a sensor signal which, in the dynamic range of the sensor element , depends directly or indirectly on the negative pressure value within the suction chamber , wherein the system for function monitoring comprises an evaluation device for evaluating the sensor signal output by the at least one sensor element , wherein the evaluation device derives an equivalent compressive force acting on the sensor element from the sensor signal output by the at least one sensor element and compares the derived compressive force value to a predefined or definable target value. - a flexible suction cup which defines a suction chamber able to be connected to a vacuum source and a front end region adjacent a suction opening as well as an oppositely disposed rear end region; and - a suction cup holder connected to the rear end region of the suction cup , wherein the vacuum gripper is allocated a system for function monitoring which comprises at least one sensor element arranged in the vacuum gripper , wherein the at least one sensor element is designed to output a sensor signal which, in the dynamic range of the sensor element , depends directly or indirectly on the negative pressure value within the suction chamber , wherein the system for function monitoring comprises an evaluation device for evaluating the sensor signal output by the at least one sensor element , wherein the evaluation device derives an equivalent compressive force acting on the sensor element from the sensor signal output by the at least one sensor element and compares the derived compressive force value to a predefined or definable target value.
A processing system for processing objects comprising: an infeed conveyor configured to lift a disorganized stream of objects onto a primary conveyor ; a singulation system including a first perception system and a robotic arm , wherein the first perception system is configured to monitor the disorganized stream of objects on the primary conveyor and select objects from among the disorganized stream of objects for removal, and wherein the robotic arm is configured to remove the selected objects to provide a singulated stream of objects on the primary conveyor; a second perception system including a drop scanner having a top opening and a bottom opening , wherein the drop scanner is configured to scan the singulated stream of objects dropped from the primary conveyor through the drop scanner for visually distinctive marks that identify the objects; and a primary transport system configured to receive the objects dropped through the drop scanner of the second perception system and transport the objects along a primary direction toward a plurality of processing locations assigned to the identified objects. an infeed conveyor configured to lift a disorganized stream of objects onto a primary conveyor ; a singulation system including a first perception system and a robotic arm , wherein the first perception system is configured to monitor the disorganized stream of objects on the primary conveyor and select objects from among the disorganized stream of objects for removal, and wherein the robotic arm is configured to remove the selected objects to provide a singulated stream of objects on the primary conveyor; a second perception system including a drop scanner having a top opening and a bottom opening , wherein the drop scanner is configured to scan the singulated stream of objects dropped from the primary conveyor through the drop scanner for visually distinctive marks that identify the objects; and a primary transport system configured to receive the objects dropped through the drop scanner of the second perception system and transport the objects along a primary direction toward a plurality of processing locations assigned to the identified objects.
A balloon for use in valvuloplasty of aortic stenosis comprising a catheter having two lumen running through its entire shaft and reaching to its external end that remains outside of the patient's body: wherein one lumen is used for the inflation of the balloon that is mount to the other end of the catheter, and the other lumen is used for passing a guide-wire over which the balloon is advanced from the entry site to the application site; wherein the balloon is shaped in the form of an hour-glass when inflated with its waist having a smaller diameter than of its ends, and wherein an antirestenotic drug is delivered to aortic valve tissues characterised in that , the drug against restenosis coats a portion of the external surface of the balloon, wherein only the surfaces of the middle segment of the balloon are coated with the antirestenotic drug, and the antirestenotic drug is delivered from the external surface of the balloon during the inflation of the balloon in performing valvuloplasty.
A transport refrigeration system comprising: a vehicle having a refrigerated cargo space ; a refrigeration unit in operative association with the refrigerated cargo space, the refrigeration unit providing conditioned air to the refrigerated cargo space; a first engine configured to power the refrigeration unit; characterized by : a plurality of first fuel tanks fluidly connected to the first engine, the plurality of first fuel tanks configured to supply fuel to the first engine, wherein each of the plurality of first fuel tanks includes a lock off valve and a pressure sensor configured to detect a pressure level within each of the first fuel tanks; and one or more engine controllers in electronic communication with each pressure sensor and lock off valve, the one or more engine controllers being configured to adjust at least one of the lock off valves in response to a pressure level detected by at least one of the pressure sensors. a vehicle having a refrigerated cargo space ; a refrigeration unit in operative association with the refrigerated cargo space, the refrigeration unit providing conditioned air to the refrigerated cargo space; a first engine configured to power the refrigeration unit; characterized by : a plurality of first fuel tanks fluidly connected to the first engine, the plurality of first fuel tanks configured to supply fuel to the first engine, wherein each of the plurality of first fuel tanks includes a lock off valve and a pressure sensor configured to detect a pressure level within each of the first fuel tanks; and one or more engine controllers in electronic communication with each pressure sensor and lock off valve, the one or more engine controllers being configured to adjust at least one of the lock off valves in response to a pressure level detected by at least one of the pressure sensors. a plurality of first fuel tanks fluidly connected to the first engine, the plurality of first fuel tanks configured to supply fuel to the first engine, wherein each of the plurality of first fuel tanks includes a lock off valve and a pressure sensor configured to detect a pressure level within each of the first fuel tanks; and one or more engine controllers in electronic communication with each pressure sensor and lock off valve, the one or more engine controllers being configured to adjust at least one of the lock off valves in response to a pressure level detected by at least one of the pressure sensors.
A cell population comprising pluripotent stem cells which can be isolated from mesodermal tissue or mesenchymal tissue using the presence of SSEA-3 expressed on the surface of the cell as an index, wherein said pluripotent stem cells are present in an amount corresponding to 50% or more of said population.
Valve assembly for an injection valve , comprising - a valve body comprising a central longitudinal axis (L) and a cavity with a fluid inlet portion and a fluid outlet portion , - a valve needle axially movable in the cavity , the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit provided for actuating the valve needle , the actuator unit comprising an armature , the armature being axially movable in the cavity and comprising a main body and a flange being axially distanced from the main body , the flange being fixedly coupled to the main body and having an inner surface facing the main body , and - a stop element being fixedly coupled to the valve needle and being arranged in the cavity axially between the main body and the flange of the armature , and - an armature spring being arranged in the cavity axially between the main body and the flange , and the armature spring being operable to provide a force acting on the stop element to bring the stop element in contact with the inner surface of the flange , wherein an overlapping area (A) of the stop element and the inner surface is bounded by an inner contour and an outer contour and an area content (Ao) enclosed by the outer contour is at least three times as large as an area content (Ai) enclosed by the inner contour , characterised in that an upper guide element is arranged in the cavity and is fixedly coupled to the valve needle , the upper guide element being designed to form a guide element for the valve needle relative to the armature , wherein the main body has a central opening and the upper guide element is arranged in the central opening , wherein the stop element is in one piece with the upper guide element . - a valve body comprising a central longitudinal axis (L) and a cavity with a fluid inlet portion and a fluid outlet portion , - a valve needle axially movable in the cavity , the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit provided for actuating the valve needle , the actuator unit comprising an armature , the armature being axially movable in the cavity and comprising a main body and a flange being axially distanced from the main body , the flange being fixedly coupled to the main body and having an inner surface facing the main body , and - a stop element being fixedly coupled to the valve needle and being arranged in the cavity axially between the main body and the flange of the armature , and - an armature spring being arranged in the cavity axially between the main body and the flange , and the armature spring being operable to provide a force acting on the stop element to bring the stop element in contact with the inner surface of the flange ,
Method for observing the presence of molecular and/or atomic hydrogen at at least one predeterminable measuring point (19; 21; 23) of a heating appliance , which has a burner operated with hydrogen or a hydrogen-containing fuel gas, characterised in that (a) after igniting the burner at least one optical emission line of a known wavelength of the atomic hydrogen (H) and/or molecular hydrogen (H2) and/or (b) when the burner is switched off an absorption line of a known wavelength of the atomic hydrogen (H) and/or molecular hydrogen (H 2 ) is observed and the presence of hydrogen is deduced from its intensity. (a) after igniting the burner at least one optical emission line of a known wavelength of the atomic hydrogen (H) and/or molecular hydrogen (H2) and/or (b) when the burner is switched off an absorption line of a known wavelength of the atomic hydrogen (H) and/or molecular hydrogen (H 2 ) is observed and the presence of hydrogen is deduced from its intensity.
A combination therapy comprising; a) a therapeutically effective amount of a compound of formula (I): an enantiomer thereof or a pharmaceutically acceptable salts of any one of the same, and b) a chemotherapeutic agent or a combination of chemotherapeutic agents, for use in sensitising a human cancer patient to chemotherapy, wherein the chemotherapeutic agent is a platinum based chemotherapeutic. a) a therapeutically effective amount of a compound of formula (I): an enantiomer thereof or a pharmaceutically acceptable salts of any one of the same, and b) a chemotherapeutic agent or a combination of chemotherapeutic agents, for use in sensitising a human cancer patient to chemotherapy, wherein the chemotherapeutic agent is a platinum based chemotherapeutic.