mhurhangee/patent-ind-claim-en huggingface dataset:
A modular lighting device for countersunk fitting into an opening in a ceiling or a wall, the modular lighting device comprising: - a plate for receiving a lamp fitting ; - at least three mounting brackets , wherein each mounting bracket comprises a foot configured for mechanically engaging with a first surface of the wall/ceiling; - a plurality of clamps , each of said clamps being moveably attached to a mounting bracket , wherein each clamp comprises a foot configured for mechanically engaging with a second surface of the wall/ceiling; and - a locking ring for restraining said mounting brackets to the plate , wherein the modular lightning device is configured such that the modular lightning device can be fitted to different sized openings via radial adjustment of the mounting brackets , wherein the foot of the mounting bracket and the foot of the clamp define an adjustable gap for accommodating different wall/ceiling thicknesses. - a plate for receiving a lamp fitting ; - at least three mounting brackets , wherein each mounting bracket comprises a foot configured for mechanically engaging with a first surface of the wall/ceiling; - a plurality of clamps , each of said clamps being moveably attached to a mounting bracket , wherein each clamp comprises a foot configured for mechanically engaging with a second surface of the wall/ceiling; and - a locking ring for restraining said mounting brackets to the plate ,
A heat ray sensor comprising: a first optical unit for outputting a first signal based on a variation in heat rays radiated from a first detection area; a second optical unit that is arranged side by side with the first optical unit , for outputting a second signal based on a variation in heat rays radiated from a second detection area; and a casing that houses the first optical unit and the second optical unit , the heat ray sensor , wherein the casing integrally supports the first optical unit and the second optical unit swingably about an axis (A) that is orthogonal to a direction of arrangement of the first optical unit and the second optical unit , the first optical unit comprises: a first pyroelectric element for outputting the first signal; a first optical system for transferring, to the first pyroelectric element , heat rays radiated from the first detection area; and a first housing that supports the first pyroelectric element and the first optical system , the second optical unit comprises: a second pyroelectric element for outputting the second signal; a second optical system for transferring, to the second pyroelectric element , heat rays radiated from the second detection area; and a second housing that supports the second pyroelectric element and the second optical system and is linked to the first housing and the casing supports the first housing swingably about the axis (A). a first optical unit for outputting a first signal based on a variation in heat rays radiated from a first detection area; a second optical unit that is arranged side by side with the first optical unit , for outputting a second signal based on a variation in heat rays radiated from a second detection area; and a casing that houses the first optical unit and the second optical unit , the heat ray sensor , wherein the casing integrally supports the first optical unit and the second optical unit swingably about an axis (A) that is orthogonal to a direction of arrangement of the first optical unit and the second optical unit , the first optical unit comprises: a first pyroelectric element for outputting the first signal; a first optical system for transferring, to the first pyroelectric element , heat rays radiated from the first detection area; and a first housing that supports the first pyroelectric element and the first optical system , the second optical unit comprises: a second pyroelectric element for outputting the second signal; a second optical system for transferring, to the second pyroelectric element , heat rays radiated from the second detection area; and a second housing that supports the second pyroelectric element and the second optical system and is linked to the first housing and the casing supports the first housing swingably about the axis (A).
A method for treating used lithium batteries containing the steps: (a) comminuting the batteries such that comminuted material is obtained, (b) inactivating the comminuted material such that an inactivated comminuted material is obtained, characterised by the fact that (c) the drying is conducted at a maximum pressure of 300 hPa and a maximum temperature of 80 °C, and (d) a transport container is filled with the inactivated comminuted material . (a) comminuting the batteries such that comminuted material is obtained, (b) inactivating the comminuted material such that an inactivated comminuted material is obtained, characterised by the fact that (c) the drying is conducted at a maximum pressure of 300 hPa and a maximum temperature of 80 °C, and (d) a transport container is filled with the inactivated comminuted material .
A mitral valve implant , comprising: a force-expanding mitral valve lattice having an interior orifice; a self-expanding valve trampoline lattice attached at the interior orifice of the force-expanding mitral valve lattice ; characterized in that the force-expanding mitral valve lattice comprises a plurality of jack screws configured to adjust a configuration of the mitral valve lattice , wherein the force-expanding mitral valve lattice is self-expandable to a first configuration and is force expandable from the first configuration to a second configuration. a force-expanding mitral valve lattice having an interior orifice; a self-expanding valve trampoline lattice attached at the interior orifice of the force-expanding mitral valve lattice ; characterized in that the force-expanding mitral valve lattice comprises a plurality of jack screws configured to adjust a configuration of the mitral valve lattice , wherein the force-expanding mitral valve lattice is self-expandable to a first configuration and is force expandable from the first configuration to a second configuration.
An implant , one or more surfaces of which are adapted to be disposed against bone tissue, the implant comprising: an external surface at least a portion of which is comprised of a porous microstructure and adapted to abut the bone tissue, the porous microstructure formed by an additive-manufactured lattice of a plurality of cells , the lattice and the cells being designed and pre-selected prior to manufacturing such as to have predetermined structural characteristics; wherein the porous microstructure has a mechanical strength substantially similar to that of the bone tissue against which said one or more surfaces of the implant are disposed; the cells of the lattice have at least one predetermined cell topology and each of the cells is formed by a plurality of struts defining pores of the cell therebetween, at least one strut of each cell connecting to a strut of an adjacent one of the cells within the lattice along a corresponding edge thereof, the predetermined cell topology being selected from a group consisting of: octet truss; tetrahedron; octahedron; Body-Centered Cube (BCC); Face-Centered Cube (FCC); rhombicuboctahedron; rhombic dodecahedron; and any combination of one or more of these cell topologies and modified versions thereof; and characterized in that the lattice defines a predetermined and designed tessellation and arrangement of said cells forming the lattice, the lattice having a porosity of greater than 30% and less than 80%, the struts having a strut thickness of between 70 μm and 400 μm, and the pores of the cell having a mean pore size of between 50 μm and 800 μm. an external surface at least a portion of which is comprised of a porous microstructure and adapted to abut the bone tissue, the porous microstructure formed by an additive-manufactured lattice of a plurality of cells , the lattice and the cells being designed and pre-selected prior to manufacturing such as to have predetermined structural characteristics; wherein the porous microstructure has a mechanical strength substantially similar to that of the bone tissue against which said one or more surfaces of the implant are disposed; the cells of the lattice have at least one predetermined cell topology and each of the cells is formed by a plurality of struts defining pores of the cell therebetween, at least one strut of each cell connecting to a strut of an adjacent one of the cells within the lattice along a corresponding edge thereof, the predetermined cell topology being selected from a group consisting of: octet truss; tetrahedron; octahedron; Body-Centered Cube (BCC); Face-Centered Cube (FCC); rhombicuboctahedron; rhombic dodecahedron; and any combination of one or more of these cell topologies and modified versions thereof; and characterized in that the lattice defines a predetermined and designed tessellation and arrangement of said cells forming the lattice, the lattice having a porosity of greater than 30% and less than 80%, the struts having a strut thickness of between 70 μm and 400 μm, and the pores of the cell having a mean pore size of between 50 μm and 800 μm.
A catalyst for aqueous-phase reforming of biomass-derived polyols, which comprises platinum and copper as active metals and a mixture of magnesia and alumina as a support, wherein the contents of platinum and copper in the catalyst are 0.75-1.0 wt% and 0.13-0.5 wt%, respectively, based on total weight of the catalyst.
A temperature sensor fitting for use with a temperature sensor that detects the temperature of ingredients that are inside a heating vessel of a kitchen device, the temperature sensor fitting comprising: a collar comprising an inner threaded portion; a PTFE insulator comprising an outer threaded portion that corresponds with the inner threaded portion of the collar, and further comprises an inner threaded portion; a metal cap comprising an outer threaded portion that corresponds with the inner threaded portion of the PTFE insulator; wherein the PTFE insulator provides thermal isolation between a temperature sensor and a heating plate of the kitchen device; and wherein the collar comprises an outer surface that corresponds with an edge of a floor of a heating vessel of a kitchen device and the outer surface is suitable for welding to the edge of the floor to form a weld seal. a collar comprising an inner threaded portion; a PTFE insulator comprising an outer threaded portion that corresponds with the inner threaded portion of the collar, and further comprises an inner threaded portion; a metal cap comprising an outer threaded portion that corresponds with the inner threaded portion of the PTFE insulator; wherein the PTFE insulator provides thermal isolation between a temperature sensor and a heating plate of the kitchen device; and wherein the collar comprises an outer surface that corresponds with an edge of a floor of a heating vessel of a kitchen device and the outer surface is suitable for welding to the edge of the floor to form a weld seal.
An electronic device comprising: a body ; a display device disposed in the body ; a key disposed in the body ; and a key-waterproof structure comprising silicone rubber and a bracket , characterized in that the key-waterproof structure is made by insert-injecting the bracket and the silicone rubber, and is configured to include a sealing portion and an assembling portion between the bracket and the silicone rubber, wherein the bracket has an opening in a center thereof, which has a shape corresponding to the key so that the key is inserted thereto, wherein the sealing portion and the assembling portion are formed around the opening, wherein the sealing portion is where the bracket and the silicone rubber are bonded by insert-injecting the bracket and the silicone rubber, and wherein the assembling portion is configured to receive a flexible printed circuit board from the opening. a body ; a display device disposed in the body ; a key disposed in the body ; and a key-waterproof structure comprising silicone rubber and a bracket , characterized in that the key-waterproof structure is made by insert-injecting the bracket and the silicone rubber, and is configured to include a sealing portion and an assembling portion between the bracket and the silicone rubber, wherein the bracket has an opening in a center thereof, which has a shape corresponding to the key so that the key is inserted thereto, wherein the sealing portion and the assembling portion are formed around the opening, wherein the sealing portion is where the bracket and the silicone rubber are bonded by insert-injecting the bracket and the silicone rubber, and wherein the assembling portion is configured to receive a flexible printed circuit board from the opening.
Cross-connector for the variable width adjustment of a stroller frame for a stroller for babies or dolls, or for attachment to a stroller frame for a stroller for babies or dolls, wherein the cross-connector is designed to be variable in length, at least comprising one scissor mechanism for changing the length of the cross-connector and at least two adapter receptacles for the detachable attachment of an insert characterized in that the cross-connector has at least two outer parts and at least one middle part , which are arranged in a telescopic manner, the at least one middle part being at least partly mounted between the at least two outer parts or the at least two outer parts are at least partly received by the at least one middle part , wherein at least one spring element is arranged in the at least one middle part , which spring element exerts a symmetrical force on the at least two outer parts , so that these are always inserted or extended into the at least one middle part in equal parts.
A sanitary fitting , comprising at least: - a fitting housing with an outlet having an outlet opening ; - a valve adapter arranged in the fitting housing ; - a valve for at least partially shutting off the outlet opening , which is arranged at least partially in the valve adapter ; and - a connection element for connecting a water guide arranged in the outlet to a water aperture of the valve adapter , wherein the connection element is secured to the valve adapter by means of a linear slide guide , characterized in that the connection element has a pipe section . - a fitting housing with an outlet having an outlet opening ; - a valve adapter arranged in the fitting housing ; - a valve for at least partially shutting off the outlet opening , which is arranged at least partially in the valve adapter ; and - a connection element for connecting a water guide arranged in the outlet to a water aperture of the valve adapter , wherein the connection element is secured to the valve adapter by means of a linear slide guide , characterized in that the connection element has a pipe section .
An in vitro method for producing a population of expanded potential stem cells (EPSCs) which comprises: (i) culturing a population of pluripotent cells in an expanded potential stem cell medium (EPSCM), wherein the EPSCM comprises an Src Kinase family (SFK) inhibitor, a GSK3 inhibitor and a Tankyrase inhibitor, thereby producing a population of EPSCs; but excluding an EPSCM comprising an ERK1/2 inhibitor, a p38 inhibitor, a GSK3β inhibitor, a STAT3 activator, an SRC inhibitor and an AXIN complex stabilizer (AXINs). (i) culturing a population of pluripotent cells in an expanded potential stem cell medium (EPSCM), wherein the EPSCM comprises an Src Kinase family (SFK) inhibitor, a GSK3 inhibitor and a Tankyrase inhibitor, thereby producing a population of EPSCs; but excluding an EPSCM comprising an ERK1/2 inhibitor, a p38 inhibitor, a GSK3β inhibitor, a STAT3 activator, an SRC inhibitor and an AXIN complex stabilizer (AXINs).
A method for transmitting data by a communicating device on a communication channel shared by a plurality of communicating devices, the communication over the communication channel being organized according to temporal cycles repeated at a predetermined cycle period, wherein the communicating device is required to transmit data every temporal cycle and the data to be transmitted is repeated from one temporal cycle to the following if no new data to be transmitted is available, wherein said transmitting method comprises, for each temporal cycle: - determining, by the communicating device, a secured data frame based on the data to be transmitted, - transmitting, by the communicating device, the secured data frame on the communication channel, the method being characterised in that each secured data frame includes secured content determined by using a predetermined initialization vector, wherein the initialization vector has a lifetime associated thereto which corresponds to a maximum duration during which said initialization vector can remain unmodified, said lifetime being greater than or equal to a predetermined plurality of cycle periods, wherein the initialization vector is not modified when the data to be transmitted in the current temporal cycle is identical to the data transmitted in the previous temporal cycle provided the lifetime of said initialization vector has not expired. - determining, by the communicating device, a secured data frame based on the data to be transmitted, - transmitting, by the communicating device, the secured data frame on the communication channel, the method being characterised in that
A bifacial solar cell comprising: a substrate ; a p + -type doped region positioned at a first surface of the substrate ; a P-type electrode part electrically connected to the p + -type doped region ; an n + -type doped region positioned at a second surface of the substrate ; and an N-type electrode part electrically connected to the n + -type doped region , characterised in that the P-type electrode part is formed of a first inorganic solid powder including a first powder containing silver (Ag) having an average diameter D 50 of about 0.2 μm to 1 μm, a second powder containing aluminum (Al) and having an average diameter D 50 of about 1 μm to 5 μm, and a glass frit including at least one of an oxide of lead (Pb), oxide of silicon (Si), oxide of boron (B), oxide of aluminum (Al), and oxide of zinc (Zn), wherein the first powder has a sphere shape or a plate-like shape, wherein the N-type electrode part is formed of a second inorganic solid powder obtained by removing the second powder from the first inorganic solid powder of the P-type electrode part, wherein the first inorganic solid powder includes 86 wt% to 95 wt% of the first powder and 1 wt% to 5 wt% of the second powder based on a total weight of the first inorganic solid powder. a substrate ; a p + -type doped region positioned at a first surface of the substrate ; a P-type electrode part electrically connected to the p + -type doped region ; an n + -type doped region positioned at a second surface of the substrate ; and an N-type electrode part electrically connected to the n + -type doped region , characterised in that the P-type electrode part is formed of a first inorganic solid powder including a first powder containing silver (Ag) having an average diameter D 50 of about 0.2 μm to 1 μm, a second powder containing aluminum (Al) and having an average diameter D 50 of about 1 μm to 5 μm, and a glass frit including at least one of an oxide of lead (Pb), oxide of silicon (Si), oxide of boron (B), oxide of aluminum (Al), and oxide of zinc (Zn), wherein the first powder has a sphere shape or a plate-like shape, wherein the N-type electrode part is formed of a second inorganic solid powder obtained by removing the second powder from the first inorganic solid powder of the P-type electrode part, wherein the first inorganic solid powder includes 86 wt% to 95 wt% of the first powder and 1 wt% to 5 wt% of the second powder based on a total weight of the first inorganic solid powder.
A diazadienyl compound represented by General Formula (I) below: wherein R 1 and R 2 each independently represent a C 1-6 linear or branched alkyl group, R 3 represents hydrogen, or a C 1-6 linear or branched alkyl group, M represents a metal atom selected from copper, nickel, cobalt or manganese or M is a silicon atom, and n represents a valence of the metal atom or silicon atom represented by M, wherein R 2 and R 3 in General Formula (I) are different groups.
An implantable hydraulic displacement actuator comprising a biocompatible hydraulic displacement fluid for providing a force inside a human or animal body, characterized in that said hydraulic displacement actuator comprises: - a first fixation means for anchoring the hydraulic displacement actuator at an AV valve or valve plane; and - a second fixation means for anchoring the hydraulic displacement actuator at a distance from an AV valve or plane adjacent an apex of a heart and/or in a heart muscle, where said hydraulic displacement actuator is a linear hydraulic actuator for generating a cardiac movement. - a first fixation means for anchoring the hydraulic displacement actuator at an AV valve or valve plane; and - a second fixation means for anchoring the hydraulic displacement actuator at a distance from an AV valve or plane adjacent an apex of a heart and/or in a heart muscle, where said hydraulic displacement actuator is a linear hydraulic actuator for generating a cardiac movement.
A method of collecting runtime virtual machine nondeterministic state , the runtime virtual machine being a virtual machine that is configured to execute an application by compiling bytecode into native machine code, the virtual machine nondeterministic state being for use in emulation of the application , the method comprising: identifying application bytecode for which runtime virtual machine nondeterministic state is to be collected; executing native machine code generated from the bytecode causing state of the runtime virtual machine to change; capturing one or more snapshots of states of the runtime virtual machine; wherein executing the native machine code generated from the bytecode further generates the runtime virtual machine nondeterministic state ; collecting the runtime virtual machine nondeterministic state ; storing the snapshots and the runtime virtual machine nondeterministic state , and emulating execution of the application using an emulator which emulates the runtime virtual machine, wherein emulation is started from a snapshot and proceeds from the snapshot up until runtime virtual machine nondeterministic state is needed; and iteratively emulating execution from the snapshot toward the endpoint, wherein each iteration of emulated execution emulates execution of progressively smaller portions of the application; wherein the emulator comprises a secondary diagnostic virtual machine configured to emulate the runtime virtual machine. identifying application bytecode for which runtime virtual machine nondeterministic state is to be collected; executing native machine code generated from the bytecode causing state of the runtime virtual machine to change; capturing one or more snapshots of states of the runtime virtual machine; wherein executing the native machine code generated from the bytecode further generates the runtime virtual machine nondeterministic state ; collecting the runtime virtual machine nondeterministic state ; storing the snapshots and the runtime virtual machine nondeterministic state , and emulating execution of the application using an emulator which emulates the runtime virtual machine, wherein emulation is started from a snapshot and proceeds from the snapshot up until runtime virtual machine nondeterministic state is needed; and iteratively emulating execution from the snapshot toward the endpoint, wherein each iteration of emulated execution emulates execution of progressively smaller portions of the application; wherein the emulator comprises a secondary diagnostic virtual machine configured to emulate the runtime virtual machine.