mhurhangee/patent-ind-claim-en huggingface dataset:
A control panel for a heating, ventilation, air conditioning, and refrigeration (HVACR) unit , comprising: a control panel housing having an open side ; an inner layer disposed within the control panel housing ; a plurality of high-voltage components disposed on the inner layer ; an outer layer disposed closer to the open side of the control panel housing than the inner layer ; a plurality of low-voltage components disposed on the outer layer ; characterized in that : the outer layer is configured to be movable between: a closed position where the outer layer covers the plurality of high-voltage components with respect to the open side of the control panel housing , and an open position where the plurality of high-voltage components are accessible through the open side of the control panel housing , and all high-voltage components included in the control panel are disposed only on the inner layer ; and all low-voltage components included in the control panel are disposed only on the outer layer . a control panel housing having an open side ; an inner layer disposed within the control panel housing ; a plurality of high-voltage components disposed on the inner layer ; an outer layer disposed closer to the open side of the control panel housing than the inner layer ; a plurality of low-voltage components disposed on the outer layer ; characterized in that : the outer layer is configured to be movable between: a closed position where the outer layer covers the plurality of high-voltage components with respect to the open side of the control panel housing , and an open position where the plurality of high-voltage components are accessible through the open side of the control panel housing , and all high-voltage components included in the control panel are disposed only on the inner layer ; and all low-voltage components included in the control panel are disposed only on the outer layer . the outer layer is configured to be movable between: a closed position where the outer layer covers the plurality of high-voltage components with respect to the open side of the control panel housing , and an open position where the plurality of high-voltage components are accessible through the open side of the control panel housing , and a closed position where the outer layer covers the plurality of high-voltage components with respect to the open side of the control panel housing , and an open position where the plurality of high-voltage components are accessible through the open side of the control panel housing , and all high-voltage components included in the control panel are disposed only on the inner layer ; and all low-voltage components included in the control panel are disposed only on the outer layer .
A waveguide display element comprising a plurality of waveguide layers stacked on top of each other, and an in-coupler associated with each waveguide layer for coupling light of a predefined color having a predefined angle of incidence into the waveguide layer, the predefined color being different for each in-coupler, each of the in-couplers comprising an intermediate layer arranged on the associated waveguide layer, the intermediate layer having intermediate layer properties comprising thickness and refractive index, and an in-coupling grating arranged on the intermediate layer, the grating having grating properties comprising grating period, grating material and grating type, and characterized in that the predefined angle of incidence of light of each of the different colors is different, the intermediate layer properties and the grating properties of each in-coupler are determined such that light of the associated predefined color incident at the predefined angle is coupled into the associated waveguide layer while avoiding in-coupling light of other predefined colors incident at different angles of incidence, and the combination of intermediate layer properties and grating properties of each in-coupler is different with respect to other in-couplers. a plurality of waveguide layers stacked on top of each other, and an in-coupler associated with each waveguide layer for coupling light of a predefined color having a predefined angle of incidence into the waveguide layer, the predefined color being different for each in-coupler, each of the in-couplers comprising an intermediate layer arranged on the associated waveguide layer, the intermediate layer having intermediate layer properties comprising thickness and refractive index, and an in-coupling grating arranged on the intermediate layer, the grating having grating properties comprising grating period, grating material and grating type, and an intermediate layer arranged on the associated waveguide layer, the intermediate layer having intermediate layer properties comprising thickness and refractive index, and an in-coupling grating arranged on the intermediate layer, the grating having grating properties comprising grating period, grating material and grating type, and the predefined angle of incidence of light of each of the different colors is different, the intermediate layer properties and the grating properties of each in-coupler are determined such that light of the associated predefined color incident at the predefined angle is coupled into the associated waveguide layer while avoiding in-coupling light of other predefined colors incident at different angles of incidence, and the combination of intermediate layer properties and grating properties of each in-coupler is different with respect to other in-couplers.
A method for single-molecule detection, comprising: providing a carbon nanotube having a probe entity attached to a single one point defect formed on the carbon nanotube that defines a first state of the carbon nanotube; introducing the carbon nanotube to a target entity to define a second state of the carbon nanotube associated with locally modulating the electrical conductance of the carbon nanotube; and comparing the electrical conductance of the carbon nanotube in the first and second states to detect the presence of a biomolecular entity. providing a carbon nanotube having a probe entity attached to a single one point defect formed on the carbon nanotube that defines a first state of the carbon nanotube; introducing the carbon nanotube to a target entity to define a second state of the carbon nanotube associated with locally modulating the electrical conductance of the carbon nanotube; and comparing the electrical conductance of the carbon nanotube in the first and second states to detect the presence of a biomolecular entity.
A hygiene article comprising one or more layers, said article comprising a solid emulsion, which solid emulsion comprises a matrix of solid continuous phase and a dispersed oil phase, wherein the solid continuous phase comprises cellulose derivatives (CD), wherein the cellulose derivatives (CD) are chosen from carboxymethyl cellulose (CMC), hydroxyethyl cellulose (HEC), ethyl hydroxyethyl cellulose (EHEC), or hydroxylpropyl methyl cellulose (HPMC), or combinations of two or more of these cellulose derivatives, and nanocellulose, and the dispersed oil phase is an oil containing composition, wherein the solid continuous phase of the solid emulsion comprises 0,5-50 wt% nanocellulose based on the weight of cellulose derivatives (CD) comprised in the solid continuous phase.
Method for operating a combustion engine turbocharged by a compressor , comprising at least one combustion chamber which has at least one inlet valve and at least one outlet valve, and wherein the at least one inlet valve is opened for an inlet event for introducing a charge into the combustion chamber for the period of the rotation by a crankshaft angle, in which period gas is blown directly into the at least one combustion chamber of the combustion engine after the at least one outlet valve is closed and before the charge located in the combustion chamber is compressed by blown-in gas, and wherein the at least one inlet valve is opened before closing the at least one outlet valve for the inlet event, characterized in that at least a portion of the quantity of the gas is blown directly into the at least one combustion chamber of the combustion engine while the at least one inlet valve is open. the at least one inlet valve is opened before closing the at least one outlet valve for the inlet event, characterized in that at least a portion of the quantity of the gas is blown directly into the at least one combustion chamber of the combustion engine while the at least one inlet valve is open.
LED lamp comprising: - an attachment body comprising electrical contacts ; - an inner support for LED filaments fastened to said attachment body ; - at least one LED filament fastened to said inner support , - electrical conductors connected between said electrical contacts and said at least one LED filament for electrically powering said at least one LED filament ; - said inner support for LED filaments comprises a sheet-shaped body , wherein the sheet-shaped body is a transparent flat plate; - said at least one LED filament is fastened to said sheet-shaped body so as to adhere directly to said sheet-shaped body , and wherein the at least one LED filament is directly built on said sheet-shaped body ; characterized in that : - the sheet-shaped body extends with continuity from said attachment body , without interruptions, and the sheet-shaped body has a lower end of said sheet-shaped body which is incorporated into, or inserted into, or blocked to, the attachment body ; - said electrical conductors are directly printed on said sheet-shaped body and are formed by a layer of conducting material printed on a surface of said sheet-shaped body ; - the at least one LED filament extend over at least one face of the sheet-shaped body forming a flat two-dimensional figure. - an attachment body comprising electrical contacts ; - an inner support for LED filaments fastened to said attachment body ; - at least one LED filament fastened to said inner support , - electrical conductors connected between said electrical contacts and said at least one LED filament for electrically powering said at least one LED filament ; - said inner support for LED filaments comprises a sheet-shaped body , wherein the sheet-shaped body is a transparent flat plate; - said at least one LED filament is fastened to said sheet-shaped body so as to adhere directly to said sheet-shaped body , and wherein the at least one LED filament is directly built on said sheet-shaped body ; - the sheet-shaped body extends with continuity from said attachment body , without interruptions, and the sheet-shaped body has a lower end of said sheet-shaped body which is incorporated into, or inserted into, or blocked to, the attachment body ; - said electrical conductors are directly printed on said sheet-shaped body and are formed by a layer of conducting material printed on a surface of said sheet-shaped body ; - the at least one LED filament extend over at least one face of the sheet-shaped body forming a flat two-dimensional figure.
Receptacle apparatus for mounting a mobile terminal on a module having mounting elements for mounting the receptacle apparatus, wherein the mobile terminal has a charging coil for contactlessly charging an energy store, wherein the receptacle apparatus has a window region and a retaining frame for retaining the mobile terminal and for the purpose of mounting on the module , wherein the retaining frame extends around the window region and the window region is covered by a retained mobile terminal when the receptacle apparatus is mounted on the module , wherein the receptacle apparatus has a transmitting unit for producing a resonant inductive coupling to the charging coil, wherein the transmitting unit uses a transmitting coil to generate a resonant inductive coupling that at least sometimes acts through the window region , characterized in that the transmitting coil is arranged on a separate retaining element , wherein the retaining element is detachably connected to the retaining frame and, in a connected state, extends from the retaining frame into the window region .
A hinged rail device for an enclosure barrier for farm animals such as livestock, the device comprising a rail element configured to be disposed between barrier posts by being able to pivot about a horizontal axis (A) between an active position and a folded position, and locking means for locking the ends of the rail element relative to the posts in the active position, characterized in that the locking means comprise two locking bolts carried by the rail element , each locking bolt being connected to a control handle located in a central area of the rail element to control the movement of the locking bolt between locked and unlocked positions.
A method of fabricating optoelectronic modules each of which includes at least one optoelectronic device and at least one optical element , the method comprising: providing a wafer that has a plurality of transparent portions laterally spaced from one another, wherein each of the transparent portions is surrounded laterally by non-transparent material, wherein the wafer is in a plane and is disposed on a support surface that has openings adjacent a first side of the plane; providing a combined replication and vacuum injection tool on a second side of the plane; forming a respective optical element on each of the transparent portions on the second side of the plane by an embossing-type replication technique using the combined replication and vacuum injection tool; and filling the openings in the support surface with a first non-transparent material and forming spacer elements composed of the non-transparent material on the second side of the plane by a vacuum injection process using the combined replication and vacuum injection tool. providing a wafer that has a plurality of transparent portions laterally spaced from one another, wherein each of the transparent portions is surrounded laterally by non-transparent material, wherein the wafer is in a plane and is disposed on a support surface that has openings adjacent a first side of the plane; providing a combined replication and vacuum injection tool on a second side of the plane; forming a respective optical element on each of the transparent portions on the second side of the plane by an embossing-type replication technique using the combined replication and vacuum injection tool; and filling the openings in the support surface with a first non-transparent material and forming spacer elements composed of the non-transparent material on the second side of the plane by a vacuum injection process using the combined replication and vacuum injection tool.
A mechanical seal assembly comprising a mechanical seal comprising a rotating slide ring and a stationary slide ring defining a sealing gap therebetween, and a safety seal provided as a redundant seal in the event of failure of the mechanical seal and arranged to seal on a rotating component, characterized in that , the safety seal comprising a base body and a sealing area projecting from the base body in the axial direction (X-X) and being flexible, wherein the safety seal is stationary and comprises a sealing surface on an inner circumference, the safety seal is provided as one-piece, and further comprising a rotating component to which the rotating slide ring is connected, wherein recesses are provided in the rotating component , which recesses are radially arranged inside the safety seal .
A connecting device with a plug , which is configured in order to establish an electrical connection to a mating plug , wherein the connecting device has a cable feedthrough and a plug holder , in which the plug is detachably held, wherein the plug holder is designed so as to be elastic in the plug-in direction of the plug , characterized in that the plug holder can be moved in the cable feedthrough in the plug-in direction .
A flame retardant composition, comprising: 55% to 85% by weight of a blended matrix, the blended matrix comprising: a polyolefin component; and a nitrogen-containing polymer component, the nitrogen-containing polymer component having a melting temperature of less than 240 °C; and 15% to 45% by weight of a flame retardant package distributed within the blended matrix, the flame retardant package comprising: an acid source; a carbon source; a polyoxometalate ionic liquid (PIL); and a synergist. 55% to 85% by weight of a blended matrix, the blended matrix comprising: a polyolefin component; and a nitrogen-containing polymer component, the nitrogen-containing polymer component having a melting temperature of less than 240 °C; and a polyolefin component; and a nitrogen-containing polymer component, the nitrogen-containing polymer component having a melting temperature of less than 240 °C; and 15% to 45% by weight of a flame retardant package distributed within the blended matrix, the flame retardant package comprising: an acid source; a carbon source; a polyoxometalate ionic liquid (PIL); and a synergist. an acid source; a carbon source; a polyoxometalate ionic liquid (PIL); and a synergist.
A lubricant composition comprising a hydrocarbon oil and a polyalkylene glycol, wherein said lubricant composition remains clear and shows no phase separation at temperatures equal to or greater than the pour point of the hydrocarbon oil, wherein blending of the hydrocarbon oil and polyalkylene glycol was conducted at ambient temperature using a conventional mechanical stirring mixing apparatus, characterized in that said composition comprises: from 45 to 90 weight percent of a Group III hydrocarbon oil; and from 10 to 48 weight percent of a polyalkylene glycol, the polyalkylene glycol having been prepared by reacting a C 8 -C 12 alcohol and a mixed butylene oxide/propylene oxide feed using a double metal cyanide catalyst catalyzed oxyalkylation process, wherein the polyalkylene glycol comprises a weight ratio of units derived from butylene oxide to the weight ratio of units derived from propylene oxide is from 3:1 to 1:1; wherein the polyalkylene glycol has an unsaturation level < 0.05 meq/g as measured in accordance with ASTM D4671. from 45 to 90 weight percent of a Group III hydrocarbon oil; and from 10 to 48 weight percent of a polyalkylene glycol, the polyalkylene glycol having been prepared by reacting a C 8 -C 12 alcohol and a mixed butylene oxide/propylene oxide feed using a double metal cyanide catalyst catalyzed oxyalkylation process, wherein the polyalkylene glycol comprises a weight ratio of units derived from butylene oxide to the weight ratio of units derived from propylene oxide is from 3:1 to 1:1; wherein the polyalkylene glycol has an unsaturation level < 0.05 meq/g as measured in accordance with ASTM D4671.
A method for producing a solid body of glass comprising: providing a polymerisable composition comprising: a liquid composition comprising one or more at least partially organic polymerisable compound(s); and a solid source of silica as colloidal silica particles, silica glass microparticles and/or silica glass nanoparticles dispersed in the liquid composition; curing the polymerisable composition to obtain a cured body; subjecting the cured body to thermal debinding to substantially remove the organic components in the cured body; and subjecting the cured body to sintering to obtain a solid body of glass, optionally silica glass; wherein the one or more at least partially organic polymerisable compound(s) comprise(s) at least one organosilicon compound as a second source of silica to thereby increase the silica loading of the cured body prior to sintering, wherein the organosilicon compound(s) is/are chosen from silicon-based preceramic polymers / monomers and silicon alkoxides. providing a polymerisable composition comprising: a liquid composition comprising one or more at least partially organic polymerisable compound(s); and a solid source of silica as colloidal silica particles, silica glass microparticles and/or silica glass nanoparticles dispersed in the liquid composition; a liquid composition comprising one or more at least partially organic polymerisable compound(s); and a solid source of silica as colloidal silica particles, silica glass microparticles and/or silica glass nanoparticles dispersed in the liquid composition; curing the polymerisable composition to obtain a cured body; subjecting the cured body to thermal debinding to substantially remove the organic components in the cured body; and subjecting the cured body to sintering to obtain a solid body of glass, optionally silica glass; wherein the one or more at least partially organic polymerisable compound(s) comprise(s) at least one organosilicon compound as a second source of silica to thereby increase the silica loading of the cured body prior to sintering, wherein the organosilicon compound(s) is/are chosen from silicon-based preceramic polymers / monomers and silicon alkoxides.
A switching assembly , in particular for the high-voltage and/or high-current range, with two contacts and a contact bridge movable from a bridging position (B), at which the contact bridge connects the contacts to one another in an electrically conductive manner, to a separated position (T), at which the contacts are electrically separated from one another, wherein the switching assembly comprises a detector with at least one detector element by means of which the presence of the contact bridge at the separated position (T) and/or the bridging position (B) is detectable, characterized in that the detector comprises at least one two-point controller with a first switching point and a second switching point for the detector element , wherein at least one of the switching points is assigned to a position of the contact bridge between the bridging position (B) and the separated position (T).