mhurhangee/patent-ind-claim-en huggingface dataset:
Double-sided ring spinning machine with drafting systems on each machine side, which have several drafting system bottom rollers rotating at different speeds positioned one after the other in the running direction of a sliver which can be acted upon by drive devices positioned at the machine ends as well as at least one additional auxiliary drive device , whereby the drafting systems are each part of a workstation , of which several are positioned next to each other at each side of the machine, whereby the auxiliary drive device has an electromotive drive , a main transmission and two distribution transmissions , in which case one of the distribution transmissions is assigned to a drafting system bottom roller of the drafting system positioned on one machine side and the other distribution transmission to a drafting system bottom roller of the drafting system positioned on the other machine side, characterised in that, that the distribution transmissions are each fitted with fastening devices , which are connected to the relevant drafting system bottom roller at a bearing position at an initial empty space between two workstations for bearing mounting of the distribution transmissions , and that the distribution transmissions are each connected on a drive position at a second empty space between two workstations with the relevant drafting system bottom roller for transmission of a torque. whereby the auxiliary drive device has an electromotive drive , a main transmission and two distribution transmissions , in which case one of the distribution transmissions is assigned to a drafting system bottom roller of the drafting system positioned on one machine side and the other distribution transmission to a drafting system bottom roller of the drafting system positioned on the other machine side, characterised in that, that the distribution transmissions are each fitted with fastening devices , which are connected to the relevant drafting system bottom roller at a bearing position at an initial empty space between two workstations for bearing mounting of the distribution transmissions , and that the distribution transmissions are each connected on a drive position at a second empty space between two workstations with the relevant drafting system bottom roller for transmission of a torque.
A carrying case and handle for accommodating a portable topical negative pressure therapy apparatus comprising a device and a waste canister separable therefrom, the waste canister having an aspiration conduit connected thereto, the carrying case comprising: an apparatus receiving pouch , said pouch having opening and closing means at a lower portion thereof, said lower portion having an opening by which the apparatus may be inserted into the carrying case such that the waste canister is lowermost and having a window portion covered by a movable flap in the lower region of the pouch to permit viewing of the waste canister; and wherein the handle is configured to be directly attached to the apparatus.
A print bar for organic vapor jet OVJP deposition, the print bar comprising: a plurality of print head segments , each of the plurality of print head segments comprising an OVJP print head ; a plurality of articulations connecting a plurality of actuators to the plurality of print head segments such that each articulation is moved independently of the others in a direction normal to a substrate disposed below the print bar ; wherein the plurality of actuators is configured to move the plurality of articulations each disposed between the print head segments such that a distance of each articulation to the substrate remains constant along the direction normal to the substrate . a plurality of print head segments , each of the plurality of print head segments comprising an OVJP print head ; a plurality of articulations connecting a plurality of actuators to the plurality of print head segments such that each articulation is moved independently of the others in a direction normal to a substrate disposed below the print bar ; wherein the plurality of actuators is configured to move the plurality of articulations each disposed between the print head segments such that a distance of each articulation to the substrate remains constant along the direction normal to the substrate .
A blast deflector , for a military vehicle , comprising a central panel adjacent to two lateral panels arranged on either side of the central panel , in which deflector the panels can be tilted between a raised position capable of deflecting the blast and a lowered position in which the panels are substantially horizontal, the central panel being articulated with respect to the vehicle by means of a joint located on a lower edge of the central panel , each lateral panel being articulated with respect to a lateral edge of the central panel by means of a hinge , wherein an actuator connects the central panel to the vehicle and thus controls the movement for lowering or raising this central panel , in which deflector each lateral panel is provided with a guiding bar on which a plain bearing is able to slide and pivot, each bearing being connected to the actuator by a connecting rod which thus makes it possible, when the central panel is being lowered, to drivingly lower the lateral panels while moving them apart from the central panel so as to place all the panels , once lowered, inside a same plane (P) that is substantially horizontal, and, conversely, makes it possible to raise all the panels simultaneously while imparting them an angular arrangement with respect to each other to form a blast -protecting shell.
A laser welding head for fastening under a focusing lens for focusing the laser, configured to be fastened against said focusing lens without any lateral opening between the focusing lens and said protective chamber , and comprising at least: • an annular nozzle for injecting a protective gas and arranged around an unobstructed optical axis (O) passing through the laser welding head ; and • a protective chamber for protecting the focusing lens by means of a transverse flow of air, the chamber having air admission and air exhaust in register with the air admission in a plane that is substantially perpendicular to said optical axis (O); this laser welding head being characterized in that it is, and in that it presents a distance (d) of at least 100 mm between an outlet of the annular nozzle and said protective chamber , in that it comprises a second nozzle for injecting protective gas, arranged behind the annular nozzle relative to a direction of advance (A) of the laser welding head , and in that said air exhaust is oriented in a direction opposite from the direction of advance (A) of the laser welding head . • an annular nozzle for injecting a protective gas and arranged around an unobstructed optical axis (O) passing through the laser welding head ; and • a protective chamber for protecting the focusing lens by means of a transverse flow of air, the chamber having air admission and air exhaust in register with the air admission in a plane that is substantially perpendicular to said optical axis (O); this laser welding head being characterized in that it is, and in that it presents a distance (d) of at least 100 mm between an outlet of the annular nozzle and said protective chamber , in that it comprises a second nozzle for injecting protective gas, arranged behind the annular nozzle relative to a direction of advance (A) of the laser welding head , and in that said air exhaust is oriented in a direction opposite from the direction of advance (A) of the laser welding head .
A process for producing a modified coal ash, the process comprising: collecting a bulk quantity of the coal ash, the coal ash having been previously generated by combustion of coal, the coal ash having 9% Loss-on-Ignition of carbon or less; forming the collected coal ash into a coal ash stream; selecting a range of a sublimation exposure time to reduce the Loss-on-Ignition of the coal ash to 3% or less, wherein the selected range of the sublimation exposure time is between 10 and 30 minutes; removing at least 50% of the carbon from the coal ash in a non-self-sustaining sublimation of the carbon, by subjecting the coal ash stream to a sublimation heat from a power plant, kiln or cooler ranging between 454° C (850° F) and 649° C (1200° F) and during the selected range of the sublimation exposure time; and removing the coal ash stream from the sublimation heat upon completion of the selected range of the sublimation exposure time to form a modified coal ash. collecting a bulk quantity of the coal ash, the coal ash having been previously generated by combustion of coal, the coal ash having 9% Loss-on-Ignition of carbon or less; forming the collected coal ash into a coal ash stream; selecting a range of a sublimation exposure time to reduce the Loss-on-Ignition of the coal ash to 3% or less, wherein the selected range of the sublimation exposure time is between 10 and 30 minutes; removing at least 50% of the carbon from the coal ash in a non-self-sustaining sublimation of the carbon, by subjecting the coal ash stream to a sublimation heat from a power plant, kiln or cooler ranging between 454° C (850° F) and 649° C (1200° F) and during the selected range of the sublimation exposure time; and removing the coal ash stream from the sublimation heat upon completion of the selected range of the sublimation exposure time to form a modified coal ash.
A mouse for communication with a processor-based device, the mouse comprising: a housing having a base portion ; a plurality of mouse foot protrusions integrally molded with the housing and forming a portion of the base portion , the plurality of mouse foot protrusions protruding from an exterior surface of the base portion ; and a layer of metal comprising A) a metal coating coated on at least a portion of an interior surface of the base portion that is facing an inner cavity enclosed by the housing , or B) a metal plate embedded in the base portion with at least a portion of a surface of the metal plate exposed from the interior surface of the base portion to face the inner cavity enclosed by the housing , or C) a metal plate fully encapsulated inside the base portion of the housing , wherein the layer of metal is connected to an electric ground potential to cause the base portion to prevent a build up of static electricity in a manner so as to provide an anti-static property to the base portion for preventing or reducing accumulation of dust at the plurality of mouse foot protrusions at the base portion due to static charges. a housing having a base portion ; a plurality of mouse foot protrusions integrally molded with the housing and forming a portion of the base portion , the plurality of mouse foot protrusions protruding from an exterior surface of the base portion ; and a layer of metal comprising A) a metal coating coated on at least a portion of an interior surface of the base portion that is facing an inner cavity enclosed by the housing , or B) a metal plate embedded in the base portion with at least a portion of a surface of the metal plate exposed from the interior surface of the base portion to face the inner cavity enclosed by the housing , or C) a metal plate fully encapsulated inside the base portion of the housing , A) a metal coating coated on at least a portion of an interior surface of the base portion that is facing an inner cavity enclosed by the housing , or B) a metal plate embedded in the base portion with at least a portion of a surface of the metal plate exposed from the interior surface of the base portion to face the inner cavity enclosed by the housing , or C) a metal plate fully encapsulated inside the base portion of the housing , wherein the layer of metal is connected to an electric ground potential to cause the base portion to prevent a build up of static electricity in a manner so as to provide an anti-static property to the base portion for preventing or reducing accumulation of dust at the plurality of mouse foot protrusions at the base portion due to static charges.
A modified polyisobutylene polymer for rubber compounding, prepared by mixing: polyisobutylene having isobutylene as a main chain; unsaturated dicarboxylic anhydride; and a silane compound; wherein the polyisobutylene has a terminal vinylidene content of 80 to 99 mol% based on 13 C-NMR. polyisobutylene having isobutylene as a main chain; unsaturated dicarboxylic anhydride; and a silane compound; wherein the polyisobutylene has a terminal vinylidene content of 80 to 99 mol% based on 13 C-NMR.
A cooking appliance comprising: a cooking chamber ; a heating element ; a viewing window ; an image sensor arranged to enable image capture of food received in the cooking chamber through the viewing window; and a circulation system , the cooking appliance being characterized in that said circulation system is arranged to circulate air heated by the heating element in the cooking chamber; and in that a flow guiding element is arranged in a path of an airflow provided by the circulation system in a direction of the viewing window, the flow guiding element comprising a ramp arranged to displace at least part of the airflow away from the viewing window and guide said at least part of the airflow across the viewing window. a cooking chamber ; a heating element ; a viewing window ; an image sensor arranged to enable image capture of food received in the cooking chamber through the viewing window; and a circulation system , the cooking appliance being characterized in that said circulation system is arranged to circulate air heated by the heating element in the cooking chamber; and in that a flow guiding element is arranged in a path of an airflow provided by the circulation system in a direction of the viewing window, the flow guiding element comprising a ramp arranged to displace at least part of the airflow away from the viewing window and guide said at least part of the airflow across the viewing window.
A blade extending heightwise from a blade root to a blade tip and lengthwise from a leading edge to a trailing edge , the blade comprising a blade body and a leading-edge shield assembled on the blade body , the blade body being made of anisotropic material, and the leading-edge shield being made of a material with better point impact resistance than the anisotropic material of the blade body , said leading-edge shield including two wings , each extending along a height (H) from a bottom edge to a top edge and lengthwise from the leading edge to a respective rear edge , the wings being connected together over the leading edge , and at least one of said wings presenting a segment (S1), adjacent to the top edge , the blade being characterized in that the segment (S1) extends from the top edge over at least 6% of the height (H), the respective rear edge within the segment (S1) sloping in the direction of the top edge towards the leading edge in such a manner that an angle of intersection (α) between a tangent (t51) in the direction of the leading edge to the top edge and a tangent (t42) in the direction of the top edge to any point of the rear edge in said segment (S1) is less than 75°, the anisotropic material comprising at least one layer with a main strength direction that is substantially parallel to an inside surface of a wing adjacent to said segment (S1) and presenting an angle (β) between said main strength direction in the direction of the blade tip and a tangent in the direction of the leading edge to said top edge that is substantially greater than a maximum value for said angle of intersection (α) in said segment (S1) .
A method for dynamic deploying a module of a Manufacturing Operation Management, MOM, application across a plurality of physical layers on which a MOM system is deployed, wherein the physical layers comprise a field layer, an on-site layer and an off-site layer 1 , the method comprising the following steps: a) providing a MOM/MES application comprising a plurality of modules (21;31,32) organized in a hierarchical architecture, wherein each module is independently deployable in at least two layers of the plurality of layers ; b) for each module and for each layer wherein the module (21;31,32) is deployable, defining a set of production parameters relevant for recommending a layer for module deployment; c) defining for each module a layer-deploying function, having as input variables values of the production parameter sets for the module and having as output variable a recommended layer wherein the module (21;31,32) is to be deployed; d) upon request, for a specific module (21;31,32)and for a specific time-point, calculating the recommended deploying layer with the layer-deploying function by using values of the input variables at the requested specific time-point. a) providing a MOM/MES application comprising a plurality of modules (21;31,32) organized in a hierarchical architecture, wherein each module is independently deployable in at least two layers of the plurality of layers ; b) for each module and for each layer wherein the module (21;31,32) is deployable, defining a set of production parameters relevant for recommending a layer for module deployment; c) defining for each module a layer-deploying function, having as input variables values of the production parameter sets for the module and having as output variable a recommended layer wherein the module (21;31,32) is to be deployed; d) upon request, for a specific module (21;31,32)and for a specific time-point, calculating the recommended deploying layer with the layer-deploying function by using values of the input variables at the requested specific time-point.
An ambisonic encoder for a sound wave having a plurality of reflections, comprising: - a logic for frequency transformation of the sound wave; - a logic for calculating spherical harmonics of the sound wave and of the plurality of reflections on the basis of a position of a source of the sound wave and of positions of obstacles to propagation of the sound wave; - a plurality of filtering logics in the frequency domain receiving, as input, spherical harmonics of the plurality of reflections, each filtering logic consisting of an attenuation and a delay of a reflection, and being parameterized by an acoustic coefficient and a delay of said reflection; - a logic of adding spherical harmonics of the sound wave and outputs from the filtering logics into a set of spherical harmonics representative of both the sound wave and the plurality of reflections in the frequency domain; - a multiplication logic of said set of spherical harmonics representative of both the sound wave and the plurality of reflections in the frequency domain by sound intensity values of the wave at the output of the frequency transformation to obtain a set of ambisonic coefficients ( B 00 , B 1-1 , B 10 , B 11 , ..., B MM ) representative of both the sound wave and the plurality of reflections. - a logic for frequency transformation of the sound wave; - a logic for calculating spherical harmonics of the sound wave and of the plurality of reflections on the basis of a position of a source of the sound wave and of positions of obstacles to propagation of the sound wave; - a plurality of filtering logics in the frequency domain receiving, as input, spherical harmonics of the plurality of reflections, each filtering logic consisting of an attenuation and a delay of a reflection, and being parameterized by an acoustic coefficient and a delay of said reflection; - a logic of adding spherical harmonics of the sound wave and outputs from the filtering logics into a set of spherical harmonics representative of both the sound wave and the plurality of reflections in the frequency domain; - a multiplication logic of said set of spherical harmonics representative of both the sound wave and the plurality of reflections in the frequency domain by sound intensity values of the wave at the output of the frequency transformation to obtain a set of ambisonic coefficients ( B 00 , B 1-1 , B 10 , B 11 , ..., B MM ) representative of both the sound wave and the plurality of reflections.
A method of preparing a nonaqueous lithium power storage element, comprising: providing a nonaqueous lithium power storage element comprising a positive electrode precursor containing a lithium compound other than an active material, a negative electrode, a separator, a nonaqueous electrolytic solution containing lithium ions, and a casing; and applying a voltage to the nonaqueous lithium power storage element, to decompose the lithium compound in the positive electrode precursor and pre-dope the negative electrode with the lithium ions, while releasing a gas generated from decomposition of the lithium compound either (i) out of the casing, with a portion of the casing in an open state, or (ii) through a degassing valve or gas permeable film, with the casing being equipped with the degassing valve or gas permeable film. providing a nonaqueous lithium power storage element comprising a positive electrode precursor containing a lithium compound other than an active material, a negative electrode, a separator, a nonaqueous electrolytic solution containing lithium ions, and a casing; and applying a voltage to the nonaqueous lithium power storage element, to decompose the lithium compound in the positive electrode precursor and pre-dope the negative electrode with the lithium ions, while releasing a gas generated from decomposition of the lithium compound either (i) out of the casing, with a portion of the casing in an open state, or (ii) through a degassing valve or gas permeable film, with the casing being equipped with the degassing valve or gas permeable film.
A freeze-dried powder composition for the preparation of gas-filled microvesicles, said composition comprising a phospholipid and a polyethylene glycol, wherein said polyethylene glycol is a PEG4000 having an average molecular weight in number (Mn) of at least 4000 g/mol and has a percentage of folded polymeric chains higher than 35%.
A method, comprising: creating a segregated one-stage and two-stage standard cell library comprising creating pruned and augmented cells, said cells comprising Fin-Shaped Field Transistor, FinFET, transistors, wherein creating pruned cells comprises eliminating higher driver version of one-stage cells in the library and presenting only the minimum drive one-stage cells, and wherein creating augmented cells comprises eliminating one-stage arcs of high drive cells by identifying timing arcs of non-minimum drive cells that form a one-stage cell to the cell output, and wherein for each such arc, a minimum size input stage inverter or buffer is added, and the resulting two stage cell and a complement of the resulting cell are included in the library; creating an integrated circuit design for an integrated circuit comprising a plurality of logic paths by selecting and using standard cells from the library; creating a physical implementation using the integrated circuit design. creating a segregated one-stage and two-stage standard cell library comprising creating pruned and augmented cells, said cells comprising Fin-Shaped Field Transistor, FinFET, transistors, wherein creating pruned cells comprises eliminating higher driver version of one-stage cells in the library and presenting only the minimum drive one-stage cells, and wherein creating augmented cells comprises eliminating one-stage arcs of high drive cells by identifying timing arcs of non-minimum drive cells that form a one-stage cell to the cell output, and wherein for each such arc, a minimum size input stage inverter or buffer is added, and the resulting two stage cell and a complement of the resulting cell are included in the library; creating an integrated circuit design for an integrated circuit comprising a plurality of logic paths by selecting and using standard cells from the library;