mhurhangee/patent-ind-claim-en huggingface dataset:
A combined virtual reality and cell phone case comprising: a casing fixing a cell phone body ; an ocular plate configured to maintain a variable distance from a rear surface of the casing; and a screen-distance adjustment member interposed between the casing and the ocular plate, and configured to move the ocular plate between a retracted state in which the ocular plate comes into close contact with the casing and an extended state in which the ocular plate maintains a predetermined distance from the casing, wherein the casing includes an inner frame configured to directly accommodate the cell phone body and a main frame configured to rotatably accommodate the inner frame so that the inner frame is rotatably reversed in accordance with the cell phone body including the main display disposed on the front surface, and, when the ocular plate is in the separated state, the main display of the cell phone body reversed along with the inner frame is oriented rearward and implements a virtual reality function, wherein the cell phone body in the inner frame is rotated with the inner frame on an axis of the main frame. a casing fixing a cell phone body ; an ocular plate configured to maintain a variable distance from a rear surface of the casing; and a screen-distance adjustment member interposed between the casing and the ocular plate, and configured to move the ocular plate between a retracted state in which the ocular plate comes into close contact with the casing and an extended state in which the ocular plate maintains a predetermined distance from the casing, wherein the casing includes an inner frame configured to directly accommodate the cell phone body and a main frame configured to rotatably accommodate the inner frame so that the inner frame is rotatably reversed in accordance with the cell phone body including the main display disposed on the front surface, and, when the ocular plate is in the separated state, the main display of the cell phone body reversed along with the inner frame is oriented rearward and implements a virtual reality function, wherein the cell phone body in the inner frame is rotated with the inner frame on an axis of the main frame.
A negative electrode for a lithium ion secondary battery , the negative electrode comprising: a negative electrode electricity collector ; and a negative electrode mixture layer formed over the negative electrode electricity collector , wherein the negative electrode mixture layer includes a first layer disposed over the negative electrode electricity collector , and a second layer disposed over the first layer , the second layer includes graphite particles A having a particle internal porosity of 10% or lower, and the first layer includes graphite particles B having a particle internal porosity of greater than 10%, when the particle internal porosity is measured using scanning electron microscopy as indicated in the description, a water contact angle of the second layer is 50° or lower, when the water contact angle is measured using a contact angle meter as indicated in the description, and a volume ratio of the graphite particles A in the second layer with respect to a total volume of the second layer is 29 volume% or greater. a negative electrode electricity collector ; and a negative electrode mixture layer formed over the negative electrode electricity collector , wherein the negative electrode mixture layer includes a first layer disposed over the negative electrode electricity collector , and a second layer disposed over the first layer , the second layer includes graphite particles A having a particle internal porosity of 10% or lower, and the first layer includes graphite particles B having a particle internal porosity of greater than 10%, when the particle internal porosity is measured using scanning electron microscopy as indicated in the description, a water contact angle of the second layer is 50° or lower, when the water contact angle is measured using a contact angle meter as indicated in the description, and a volume ratio of the graphite particles A in the second layer with respect to a total volume of the second layer is 29 volume% or greater.
A method for recycling an inorganic storage phosphor panel comprising: providing an inorganic storage phosphor panel comprising at least one polymer , an inorganic storage phosphor material , and a copper phthalocyanine based blue dye; mechanically grinding the inorganic storage phosphor panel into a powder or flakes; melt extruding, injection molding or hot pressing the ground powder or flakes to form a recycled manufactured inorganic storage phosphor panel . providing an inorganic storage phosphor panel comprising at least one polymer , an inorganic storage phosphor material , and a copper phthalocyanine based blue dye; mechanically grinding the inorganic storage phosphor panel into a powder or flakes; melt extruding, injection molding or hot pressing the ground powder or flakes to form a recycled manufactured inorganic storage phosphor panel .
A method of operating a computer system to provide secure communications, the computer system comprising a plurality of host devices interconnected by a network and organized into enclaves, the method comprising: at a host device , receiving a packet from a second host device over the network; in the host device, analyzing the packet, the analyzing comprising: identifying a chain of one or more markers in the packet, each marker indicating an enclave; determining an enclave in which the host device is located based on the chain of one or more markers, wherein each of the markers in the chain of one or more markers comprises a value assigned to an intermediary device that processed the packet as it passed over the network, wherein the intermediary device is positioned in the network between the enclaves of the host device and the second host device; determining a second enclave in which the second host device is located based on the chain of one or more markers; selecting a pair-wise enclave key based on the determined enclave of the host device and the determined second enclave of the second host device; and generating a security association between the host device and the second host device based on the selected key. at a host device , receiving a packet from a second host device over the network; in the host device, analyzing the packet, the analyzing comprising: identifying a chain of one or more markers in the packet, each marker indicating an enclave; determining an enclave in which the host device is located based on the chain of one or more markers, wherein each of the markers in the chain of one or more markers comprises a value assigned to an intermediary device that processed the packet as it passed over the network, wherein the intermediary device is positioned in the network between the enclaves of the host device and the second host device; determining a second enclave in which the second host device is located based on the chain of one or more markers; selecting a pair-wise enclave key based on the determined enclave of the host device and identifying a chain of one or more markers in the packet, each marker indicating an enclave; determining an enclave in which the host device is located based on the chain of one or more markers, wherein each of the markers in the chain of one or more markers comprises a value assigned to an intermediary device that processed the packet as it passed over the network, wherein the intermediary device is positioned in the network between the enclaves of the host device and the second host device; determining a second enclave in which the second host device is located based on the chain of one or more markers; selecting a pair-wise enclave key based on the determined enclave of the host device and the determined second enclave of the second host device; and generating a security association between the host device and the second host device based on the selected key.
A patient lift apparatus comprising a supporting frame , a boom portion connected to the supporting frame , and a spreader element coupled to the boom portion via a coupling member , wherein the boom portion and coupling member are joined by a pivot joint (PJ2) allowing the coupling member and associated spreader element to pivot with respect to the boom portion about a pivot axis (PA2), characterized in that the patient lift apparatus further comprises a damping element coupled between the boom portion and the coupling member to damp rocking movement of the coupling member and spreader element , and in that the damping element is a linear damper having a first end connected to the boom portion and a second end connected to the coupling member . wherein the boom portion and coupling member are joined by a pivot joint (PJ2) allowing the coupling member and associated spreader element to pivot with respect to the boom portion about a pivot axis (PA2), characterized in that the patient lift apparatus further comprises a damping element coupled between the boom portion and the coupling member to damp rocking movement of the coupling member and spreader element , and in that the damping element is a linear damper having a first end connected to the boom portion and a second end connected to the coupling member .
Use of a compatibilizer for adjusting a dispersion diameter of a dispersed phase in a thermoplastic resin composition that is obtained by mixing a polyolefin resin, a polyamide resin, and the compatibilizer and has a continuous phase composed of the polyolefin resin and a dispersed phase dispersed in the continuous phase and composed of the polyamide resin characterized in that the compatibilizer is a polymer having a reactive group that reacts with the polyamide resin, and that an amount of the polymer to be mixed based on a total of the polyolefin resin and the polyamide resin is varied to adjust a dispersion diameter of the dispersed phase.
A catheter comprising an elongated catheter body having proximal and distal ends and at least one lumen therethrough and a lasso electrode assembly at the distal end of the catheter body, the lasso electrode assembly having a plurality of sensing electrodes and a moveable spine with an ablation electrode , characterized in that the lasso electrode assembly has a track extending around at least a portion of an inner circumference of the lasso electrode assembly, wherein the moveable spine is configured to travel along the track, and wherein the track is a slot.
A method for lubricating a transmission, comprising supplying thereto a lubricant comprising: (a) a major amount of an oil of lubricating viscosity; (b) 0.01 to 10 percent by weight of a tertiary amine being represented by the formula R 1 R 2 NR 3 wherein R 1 and R 2 are each independently an alkyl group of at least 6 carbon atoms and R 3 is a polyhydroxyl-containing alkyl group or a polyhydroxyl-containing alkoxy alkyl group; and (c) 0.3 to 10 percent by weight of a dispersant. (a) a major amount of an oil of lubricating viscosity; (b) 0.01 to 10 percent by weight of a tertiary amine being represented by the formula R 1 R 2 NR 3 wherein R 1 and R 2 are each independently an alkyl group of at least 6 carbon atoms and R 3 is a polyhydroxyl-containing alkyl group or a polyhydroxyl-containing alkoxy alkyl group; and (c) 0.3 to 10 percent by weight of a dispersant.
Dynamic imbalanced force generator characterized in that it comprises a shaft frame having a longitudinal axis and having, in addition, • at least one support plate of a motor (M1, M2, M3) arranged radially with respect to the longitudinal axis (X-X') of the shaft frame; and • a gear system , wherein the shaft frame carries: • a first imbalance (B1) consisting of a mass eccentric with respect to the shaft frame and rotatably connected to the shaft frame formed by two arms of which one is fixed to the gear system ; • a second imbalance (B2) consisting of a mass eccentric to the shaft frame and rotatably connected to the shaft frame by an arm attached to the gear system , wherein the second imbalance (B2) is arranged coaxially with the first imbalance (B1) between the first imbalance (B1) and the shaft frame ; • at least one motor (M1, M2, M3) supported by the support plate and engaged with at least one of the first and second imbalances (B1, B2) via the gear system , wherein the support plate and the motor are arranged between the imbalances (B1, B2) and the shaft frame and between an arm of the first imbalance and an arm of the second imbalance. • at least one support plate of a motor (M1, M2, M3) arranged radially with respect to the longitudinal axis (X-X') of the shaft frame; and • a gear system , • a first imbalance (B1) consisting of a mass eccentric with respect to the shaft frame and rotatably connected to the shaft frame formed by two arms of which one is fixed to the gear system ; • a second imbalance (B2) consisting of a mass eccentric to the shaft frame and rotatably connected to the shaft frame by an arm attached to the gear system , wherein the second imbalance (B2) is arranged coaxially with the first imbalance (B1) between the first imbalance (B1) and the shaft frame ; • at least one motor (M1, M2, M3) supported by the support plate and engaged with at least one of the first and second imbalances (B1, B2) via the gear system , wherein the support plate and the motor are arranged between the imbalances (B1, B2) and the shaft frame and between an arm of the first imbalance and an arm of the second imbalance.
Reusable transport container comprising: a base and a wall extending substantially at right angles away from the base , the wall being formed with at least one aperture which connects an interior of the reusable transport container with the surroundings of the reusable transport container , wherein the aperture is formed with a retaining wall section on one side towards the interior, which extends in a direction away from the base into the aperture and locally narrows a cross-sectional area of the aperture , characterized in that the aperture is formed on one side towards the surroundings with a drip-off wall section which extends in one direction towards the base into the aperture and locally narrows the cross-sectional area of the aperture . a base and a wall extending substantially at right angles away from the base , the wall being formed with at least one aperture which connects an interior of the reusable transport container with the surroundings of the reusable transport container , wherein the aperture is formed with a retaining wall section on one side towards the interior, which extends in a direction away from the base into the aperture and locally narrows a cross-sectional area of the aperture , characterized in that the aperture is formed on one side towards the surroundings with a drip-off wall section which extends in one direction towards the base into the aperture and locally narrows the cross-sectional area of the aperture .
Plant for additively manufacturing at least one three-dimensional object, comprising at least one process station for an additive manufacturing process, wherein at least one functional component , preferably a lifting device for a powder module , of the process station is at least partially enclosed by a housing structure of the process station , wherein the process station is coupled or can be coupled with at least one powder module , wherein the housing structure comprises at least one opening for loading and/or unloading the at least one powder module into or from the process station , comprising at least one module carrier and characterized by a platform arranged adjacent to the at least one opening , wherein the platform is built as pedestal or podium or stairs and is placed in front of the process station for providing an area in which an operator or service personnel can walk and interact with the process station , wherein the platform comprises at least one positioning unit with at least one positioning surface for positioning the module carrier which is adapted to carry the at least one powder module ; and wherein the platform comprises at least one railing at least partially encompassing an upper surface of the platform .
An electrolytic solution, comprising an electrolyte and a solvent, and further comprising an additive A and an additive B, wherein the additive A is selected from at least one of compounds whose chemical structural formula is denoted by Formula I: wherein, R 1 , R 2 , R 3 , and R 4 are each independently selected from: H; F; Cl; Br; I; saturated or unsaturated, substituted or unsubstituted C 1 ~C 10 aliphatic groups; substituted or unsubstituted C 3~ C 9 cycloalkyls; substituted or unsubstituted C 1 ∼C 10 alkoxies; substituted or unsubstituted C 6 ∼C 20 aryls; or, substituted or unsubstituted C 3 ∼C 20 heteroaryls; wherein substituents for said aliphatic groups, said cycloalkyls, said alkoxies, said aryls and said heteroaryls are halogen atoms; a value of n 1 is 0, 1, 2, 3, 4, or 5; a value of n 2 is 0, 1, 2, 3, 4, 5, 6, 7, 8, or 9; the additive B is selected from at least one of compounds whose chemical structural formula is denoted by Formula II: In Formula II, R 5 is one or more of F, Cl, Br, or I; M is P or B; when M is P, n + 2m = 6, and m is 1 or 2; when M is B, n + 2m = 4, and m is 0 or 1. a value of n 1 is 0, 1, 2, 3, 4, or 5; a value of n 2 is 0, 1, 2, 3, 4, 5, 6, 7, 8, or 9; the additive B is selected from at least one of compounds whose chemical structural formula is denoted by Formula II: In Formula II, R 5 is one or more of F, Cl, Br, or I; M is P or B; when M is P, n + 2m = 6, and m is 1 or 2; when M is B, n + 2m = 4, and m is 0 or 1.
A cell for a voltage source converter , the cell comprising: a first cell connection terminal (CC1), a second cell connection terminal (CC2), a first series connection of two switches (T1, T2), an energy storage branch (ESB) comprising a capacitor (Cc); and a first power link (PL) interconnecting the first series connection of two switches (T1, T2) with the energy storage branch (ESB), characterized in that the first power link (PL) has an inductance (LBB1) that is configured to change based on the current through it, wherein the inductance (LBB1) has a static component (LBBS1) and a transient component (LBBT), where the first power link (PL) has the inductance of the static component (LBBS1) during steady state operation of the cell and is configured to introduce the transient component (LBBT1) triggered by a short-circuit current through the first power link, wherein the first power link (PL) comprises a first busbar (BB1) interconnecting a first end of the first series-connection of two switches (T1, T2) with a first end of the energy storage branch (ESB) and a second busbar (BB2) interconnecting a second end of the first series connection of two switches (T1, T2) with a second end of the energy storage branch (ESB), where the first busbar (BB 1) is located adjacent the second busbar (BB2) and at least a part of the first busbar (BB1) is moveable from the second busbar (BB2) by repulsion forces caused by the short-circuit current thereby introducing the transient component of the power link (PL). a first cell connection terminal (CC1), a second cell connection terminal (CC2), a first series connection of two switches (T1, T2), an energy storage branch (ESB) comprising a capacitor (Cc); and a first power link (PL) interconnecting the first series connection of two switches (T1, T2) with the energy storage branch (ESB), characterized in that the first power link (PL) has an inductance (LBB1) that is configured to change based on the current through it, wherein the inductance (LBB1) has a static component (LBBS1) and a transient component (LBBT), where the first power link (PL) has the inductance of the static component (LBBS1) during steady state operation of the cell and is configured to introduce the transient component (LBBT1) triggered by a short-circuit current through the first power link, wherein the first power link (PL) comprises a first busbar (BB1) interconnecting a first end of the first series-connection of two switches (T1, T2) with a first end of the energy storage branch (ESB) and a second busbar (BB2) interconnecting a second end of the first series connection of two switches (T1, T2) with a second end of the energy storage branch (ESB), where the first busbar (BB 1) is located adjacent the second busbar (BB2) and at least a part of the first busbar (BB1) is moveable from the second busbar (BB2) by repulsion forces caused by the short-circuit current thereby introducing the transient component of the power link (PL).
A system for reacting at least a portion of an effluent gas stream , the system comprising an enclosed vessel defined by a wall having an inner surface; a reservoir configured to deliver a liquid to the inner surface of the enclosed vessel wall so as to cause the liquid to form a liquid wall at the inner surface of the enclosed vessel wall, the formed liquid wall defining a liquid-enclosed reaction chamber within the enclosed vessel , wherein the system is configured to receive the effluent gas stream into the reaction chamber ; a main burner nozzle positioned at an upper end of the reaction chamber and configured to receive and convey a first gas such that the first gas creates a first reaction zone at the upper end of the reaction chamber , the first reaction zone having first abatement properties to react at least a portion of the effluent gas stream ; a secondary gas port positioned downstream of the main burner nozzle and passing through the enclosed vessel wall, wherein the secondary gas port is configured to convey a second gas through the enclosed vessel wall and the formed liquid wall such that the second gas creates a second reaction zone in the reaction chamber downstream of the first reaction zone , the second reaction zone having second abatement properties for reacting the effluent gas stream and the products of the reaction occurring in the first reaction zone , characterized in that the secondary gas port comprises an array of apertures in the enclosed vessel wall, each aperture pointing generally upward towards the upper end of the reaction chamber . a reservoir configured to deliver a liquid to the inner surface of the enclosed vessel wall so as to cause the liquid to form a liquid wall at the inner surface of the enclosed vessel wall, the formed liquid wall defining a liquid-enclosed reaction chamber within the enclosed vessel , wherein the system is configured to receive the effluent gas stream into the reaction chamber ; a main burner nozzle positioned at an upper end of the reaction chamber and configured to receive and convey a first gas such that the first gas creates a first reaction zone at the upper end of the reaction chamber , the first reaction zone having first abatement properties to react at least a portion of the effluent gas stream ; a secondary gas port positioned downstream of the main burner nozzle and passing through the enclosed vessel wall, wherein the secondary gas port is configured to convey a second gas through the enclosed vessel wall and the formed liquid wall such that the second gas creates a second reaction zone in the reaction chamber downstream of the first reaction zone , the second reaction zone having second abatement properties for reacting the effluent gas stream and the products of the reaction occurring in the first reaction zone , characterized in that the secondary gas port comprises an array of apertures in the enclosed vessel wall, each aperture pointing generally upward towards the upper end of the reaction chamber .