mhurhangee/patent-ind-claim-en huggingface dataset:
A light source module for a vehicle, comprising: a heat pipe having a plate shape; substrates provided on both sides of the heat pipe , respectively; at least one light-emitting device provided on at least one of said substrates , respectively; and a pair of bases including a hole configured to transmit light emitted from the light-emitting device , and coupled to surround outer sides of the substrates , said pair of bases forming a cylindrical shape by being coupled to each other, wherein, each of the light-emitting devices provided on said at least one of said substrates includes a first light-emitting device and a second light-emitting device ; characterized in that said first light emitting device and second light emitting device are diagonally arranged, in that a blocking member disposed below the second light-emitting device is included, such that one area of the second light-emitting device is blocked, and in that outer circumferential surfaces of the pair of bases are coupled to each other through at least one snap ring . a heat pipe having a plate shape; substrates provided on both sides of the heat pipe , respectively; at least one light-emitting device provided on at least one of said substrates , respectively; and a pair of bases including a hole configured to transmit light emitted from the light-emitting device , and coupled to surround outer sides of the substrates , said pair of bases forming a cylindrical shape by being coupled to each other, wherein, each of the light-emitting devices provided on said at least one of said substrates includes a first light-emitting device and a second light-emitting device ; characterized in that said first light emitting device and second light emitting device are diagonally arranged, in that a blocking member disposed below the second light-emitting device is included, such that one area of the second light-emitting device is blocked, and in that outer circumferential surfaces of the pair of bases are coupled to each other through at least one snap ring .
A catalytic membrane comprising: a surface functionalized with ionic liquid polymer, the polymer comprising cellulose solubilization functionalities and acid functionalities for the catalytic hydrolysis of cellulose and/or hemicellulose, wherein the cellulose solubilization functionalities comprise one or more imidazolium salts of the formula: wherein is a point of attachment to polymer chain, X - is a counterion and R 1 is selected from the group consisting of hydrogen, alkyl, alkyl-sulfonic acid, alkyl-carboxylic acid and alkyl-phosphonic acid and the acid functionalities have a pKa in the range 1 to 5. a surface functionalized with ionic liquid polymer, the polymer comprising cellulose solubilization functionalities and acid functionalities for the catalytic hydrolysis of cellulose and/or hemicellulose, wherein the cellulose solubilization functionalities comprise one or more imidazolium salts of the formula: wherein is a point of attachment to polymer chain, X - is a counterion and R 1 is selected from the group consisting of hydrogen, alkyl, alkyl-sulfonic acid, alkyl-carboxylic acid and alkyl-phosphonic acid and the acid functionalities have a pKa in the range 1 to 5.
A service apparatus for providing a deferred message in an instant messaging system, comprising: a receiving module configured to receive message parameters of a message sent by a first client and to be forwarded to a second client ; a determining module configured to determine whether a user associated with the second client is online; a storage module configured to determine that the message parameters are message parameters of a deferred message if the user associated with the second client is not online, and to store the message parameters into a database of a server , wherein the deferred message comprises the message parameters and a message template, and wherein the message template comprises a portion of the deferred message which is common to multiple deferred messages, and the message parameters comprise a portion of the deferred message which is not common to the multiple deferred messages; and a delivering module configured to deliver the message parameters to the second client when receiving a prompt that the user associated with the second client becomes online, in order to cause the message parameters to be posted at the second client to the message template as stored locally in the second client, in order to form the deferred message; wherein the storage module is further configured to store the message template; and wherein after said delivering, the storage module does not delete the message parameters. a receiving module configured to receive message parameters of a message sent by a first client and to be forwarded to a second client ; a determining module configured to determine whether a user associated with the second client is online; a storage module configured to determine that the message parameters are message parameters of a deferred message if the user associated with the second client is not online, and to store the message parameters into a database of a server , wherein the deferred message comprises the message parameters and a message template, and wherein the message template comprises a portion of the deferred message which is common to multiple deferred messages, and the message parameters comprise a portion of the deferred message which is not common to the multiple deferred messages; and a delivering module configured to deliver the message parameters to the second client when receiving a prompt that the user associated with the second client becomes online, in order to cause the message parameters to be posted at the second client to the message template as stored locally in the second client, in order to form the deferred message; wherein the storage module is further configured to store the message template; and wherein after said delivering, the storage module does not delete the message parameters.
A semiconductor sensor device , comprising: a substrate ; a semiconductor sensor element mounted on one side of the substrate , to detect pressure of a pressure medium, a protection member mounted on the one side of the substrate , to protect the semiconductor sensor element ; and a pressure medium introduction member mounted on another side of the substrate , to introduce a pressure medium into the semiconductor sensor element via a penetration hole provided in the substrate , wherein the protection member and the pressure medium introduction member are joined in a state of having the substrate interposed in-between, the semiconductor sensor device being characterized in that the pressure medium introduction member includes one or more positioning parts , wherein the positioning part is inserted into a positioning hole that is continuous through the substrate and the protection member , and a tip of the positioning part projects out of a surface of the protection member , wherein the projected part is joined to the surface of the protection member by heat welding. a substrate ; a semiconductor sensor element mounted on one side of the substrate , to detect pressure of a pressure medium, a protection member mounted on the one side of the substrate , to protect the semiconductor sensor element ; and a pressure medium introduction member mounted on another side of the substrate , to introduce a pressure medium into the semiconductor sensor element via a penetration hole provided in the substrate , wherein the protection member and the pressure medium introduction member are joined in a state of having the substrate interposed in-between, the semiconductor sensor device being characterized in that the pressure medium introduction member includes one or more positioning parts , wherein the positioning part is inserted into a positioning hole that is continuous through the substrate and the protection member , and a tip of the positioning part projects out of a surface of the protection member , wherein the projected part is joined to the surface of the protection member by heat welding.
Antimicrobial mixture comprising 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and ethyl N-lauroyl arginate hydrochloride.
Feedback actuator for a steering mechanism for motor vehicles provided with a steering adjuster which acts on the steered wheels and is controlled electronically in accordance with the driver's steering command, wherein the feedback actuator transmits the feedback from the road to a steering wheel via a steering shaft wherein the feedback actuator comprises a preloaded crank drive and an electric motor as a torque-generating means, characterized in that the crank drive comprises a toggle-lever linkage with at least one pressure piece acting on a spring element, wherein the toggle-lever linkage is symmetrical to the crankshaft with at least two pin joints , wherein a pressure piece acting on a spring element is arranged on the end of each lever arm spaced away from the crankshaft.
A method of making a near-net superhard material body, comprising: preparing a slurry from a mixture of materials consisting of diamond powder, silicon, silicon nitride, a temporary organic binder and a fluid; drying the slurry to remove the fluid and to form granules; compacting the granules to form a soft green body of defined shape; heating the soft green body in a furnace to form a hard green body; embedding one or more of the hard green body in a containment powder and compacting the containment powder to form a containment means or inserting one or more of the hard green body in a containment means for containing said hard green body; providing additional silicon adjacent to and to infiltrate the hard green body; and sintering the hard green body positioned within the containment means at high pressure and high temperature; and removing the containment means to provide the near-net superhard material body. preparing a slurry from a mixture of materials consisting of diamond powder, silicon, silicon nitride, a temporary organic binder and a fluid; drying the slurry to remove the fluid and to form granules; compacting the granules to form a soft green body of defined shape; heating the soft green body in a furnace to form a hard green body; embedding one or more of the hard green body in a containment powder and compacting the containment powder to form a containment means or inserting one or more of the hard green body in a containment means for containing said hard green body; providing additional silicon adjacent to and to infiltrate the hard green body; and sintering the hard green body positioned within the containment means at high pressure and high temperature; and removing the containment means to provide the near-net superhard material body.
A lock for a door with a lock housing , in which a locking mechanism with a dead-bolt element and with a rotary unit is accommodated, wherein, for example, the rotary unit is formed for the reception of a rotary thumb unit, and wherein the rotary unit cooperates with the dead-bolt element for displacing the dead-bolt element between a position protruding from the lock housing and a position retracted into the lock housing , furthermore, comprising a stop element for the engagement into the rotary unit , in order to block the rotary movement of the rotary unit , wherein the stop element is movable for the engagement into the rotary unit by means of a selector element , which is displaceably accommodated in the lock housing , in that the selector element can be temporarily brought into contact with the stop element by manual actuation, and wherein the stop element can be disengaged again from the rotary unit by means of an operative connection with the locking mechanism, characterized in that - an interlocking element is provided and which cooperates with at least one part of the locking mechanism in such a manner that - the interlocking element interlocks the mobility of the stop element , if the dead-bolt element is displaced into the protruding position, and in that - the interlocking element releases the mobility of the stop element , if the dead-bolt element is displaced into the retracted position, wherein the interlocking element has an L-shaped form and is accommodated in a point of rotation to be rotatably mobile in the lock housing , and is rotated about the point of rotation by cooperation with a part of the locking mechanism. - an interlocking element is provided and which cooperates with at least one part of the locking mechanism in such a manner that - the interlocking element interlocks the mobility of the stop element , if the dead-bolt element is displaced into the protruding position, and in that - the interlocking element releases the mobility of the stop element , if the dead-bolt element is displaced into the retracted position, wherein the interlocking element has an L-shaped form and is accommodated in a point of rotation to be rotatably mobile in the lock housing , and is rotated about the point of rotation by cooperation with a part of the locking mechanism.
A substrate processing system for treating a substrate , comprising: a manifold ; a plurality of injector assemblies (160-1, 160-2,..., 160-X / 170-1, 170-2,..., 170-X) located in a processing chamber , wherein each of the plurality of injector assemblies is in fluid communication with the manifold and includes a valve (164-1, 164-2,..., 164-X / 174-1, 174-2,..., 174-X) including an inlet and an outlet; and a dose controller configured to: communicate with the valve in each of the plurality of injector assemblies; adjust a pulse width supplied to the valve in each of the plurality of injector assemblies to provide spatial dosing and at least one of: compensate for upstream skew caused by a prior process; and pre-compensate for downstream skew expected from a subsequent process. a manifold ; a plurality of injector assemblies (160-1, 160-2,..., 160-X / 170-1, 170-2,..., 170-X) located in a processing chamber , wherein each of the plurality of injector assemblies is in fluid communication with the manifold and includes a valve (164-1, 164-2,..., 164-X / 174-1, 174-2,..., 174-X) including an inlet and an outlet; and a dose controller configured to: communicate with the valve in each of the plurality of injector assemblies; adjust a pulse width supplied to the valve in each of the plurality of injector assemblies to provide spatial dosing and at least one of: compensate for upstream skew caused by a prior process; and pre-compensate for downstream skew expected from a subsequent process. compensate for upstream skew caused by a prior process; and pre-compensate for downstream skew expected from a subsequent process.
Apparatus for co-aligning laterally displaced laser beams , the apparatus comprising: a first laser source for generating a first laser beam , wherein the first laser beam is substantially monochromatic; a second laser source for generating a second laser beam , wherein the second laser beam is a broadband laser beam comprising a plurality of spectral components having different wavelengths; a collimating element for receiving each of said laser beams with respective lateral displacements; and a combining element for receiving each of said laser beams passed by said collimating element for co-aligning the laser beams to form a single spectrally composite laser beam, wherein the combining element is a diffraction grating or a prism; the apparatus further comprising: an optical assembly, comprising first and second optical elements , disposed only in an optical path between an output of the second laser source and the collimating element , for spatially separating the plurality of spectral components of the second laser beam into the constituent spectral components prior to passing the second laser beam to the collimating element, wherein the first and second optical elements both comprise either a diffraction grating or an optical prism, and wherein the first and second optical elements have substantially the same optical characteristics. a first laser source for generating a first laser beam , wherein the first laser beam is substantially monochromatic; a second laser source for generating a second laser beam , wherein the second laser beam is a broadband laser beam comprising a plurality of spectral components having different wavelengths; a collimating element for receiving each of said laser beams with respective lateral displacements; and a combining element for receiving each of said laser beams passed by said collimating element for co-aligning the laser beams to form a single spectrally composite laser beam, wherein the combining element is a diffraction grating or a prism; the apparatus further comprising: an optical assembly, comprising first and second optical elements , disposed only in an optical path between an output of the second laser source and the collimating element , for spatially separating the plurality of spectral components of the second laser beam into the constituent spectral components prior to passing the second laser beam to the collimating element, wherein the first and second optical elements both comprise either a diffraction grating or an optical prism, and wherein the first and second optical elements have substantially the same optical characteristics.
A receiver that comprises: a set of first filters that share a common input; a set of first downsamplers ; a set of sub-band processors , the set of sub-band processors comprises a set of decimators each of which comprises a second filter, a frequency-shifter configured to perform a frequency shift to base-band frequency, and a second downsampler; wherein input signals provided to the decimators are frequency shifted from each other; wherein the set of first downsamplers is coupled between the set of first filters and the set of sub-band processors; wherein the set of first filters is arranged to receive a digital input signal via the common input and to output virtual sub-channels of information occupying disjoint spectral sub-bands; wherein each sub-band is associated with a first filter of the set of first filters and a second filter, of the second set of filters, wherein a frequency response of each first filter is flat over its sub-band; wherein the first filter is configured to have a spectral transition from passband to stopband that slopes down more mildly than a spectral transition from passband to stopband of the second filter, wherein the stopband lies in the neighbouring sub-band, wherein the second filter is a brickwall filter; each first downsampler of the set of first downsamplers performs an L-factor downsampling, each decimator of the set of decimators performs a V-factor downsampling, wherein L and V are positive rational numbers that differ from a number, M, of the sub-bands. a set of first filters that share a common input; a set of first downsamplers ; a set of sub-band processors , the set of sub-band processors comprises a set of decimators each of which comprises a second filter, a frequency-shifter configured to perform a frequency shift to base-band frequency, and a second downsampler; wherein input signals provided to the decimators are frequency shifted from each other; wherein the set of first downsamplers is coupled between the set of first filters and the set of sub-band processors; wherein the set of first filters is arranged to receive a digital input signal via the common input and to output virtual sub-channels of information occupying disjoint spectral sub-bands; wherein each sub-band is associated with a first filter of the set of first filters and a second filter, of the second set of filters, wherein a frequency response of each first filter is flat over its sub-band; wherein the first filter is configured to have a spectral transition from passband to stopband that slopes down more mildly than a spectral transition from passband to stopband of the second filter, wherein the stopband lies in the neighbouring sub-band, wherein the second filter is a brickwall filter; each first downsampler of the set of first downsamplers performs an L-factor downsampling, each decimator of the set of decimators performs a V-factor downsampling, wherein L and V are positive rational numbers that differ from a number, M, of the sub-bands.
An apparatus, comprising: a core network node configured to be operatively coupled to a plurality of wired network nodes and a plurality of wireless network nodes, the core network node configured to receive a first tunneled packet associated with a wired session from one of the wired network nodes , the core network node configured to receive a second tunneled packet associated with a wireless session from one of the wireless network nodes through an intervening at least one of the wired network nodes, the intervening at least one of the wired network nodes operatively connecting the core network node to the wireless network node associated with the wireless session; and a control module operatively coupled to the core network node , the control module configured to manage the wired session and configured to manage the wireless session, the control module configured to apply a common user policy to the wired session and the wireless session, wherein the common user policy is enforced at the core network node and the one of the wired/wireless network nodes , and wherein the common user policy is not enforced at the intervening at least one of the wired network nodes. a core network node configured to be operatively coupled to a plurality of wired network nodes and a plurality of wireless network nodes, the core network node configured to receive a first tunneled packet associated with a wired session from one of the wired network nodes , the core network node configured to receive a second tunneled packet associated with a wireless session from one of the wireless network nodes through an intervening at least one of the wired network nodes, the intervening at least one of the wired network nodes operatively connecting the core network node to the wireless network node associated with the wireless session; and a control module operatively coupled to the core network node , the control module configured to manage the wired session and configured to manage the wireless session, the control module configured to apply a common user policy to the wired session and the wireless session, wherein the common user policy is enforced at the core network node and the one of the wired/wireless network nodes , and wherein the common user policy is not enforced at the intervening at least one of the wired network nodes.
A receiving system for waste (P), in particular for compressible waste, in particular for paper waste, comprising a receiving container with side walls and a bottom part , and at least one compression element , wherein the receiving container and the compression element have holding elements (210a-210h; 31-34) for holding the compression element at side walls of the receiving container at a certain height (H1, H2, H3, H4) in such a way that the compression element can be fixed against the upwardly directed force exerted by the container contents (P) compressed below the compression element , characterized in that the receiving container and/or the compression element are made of cardboard or paperboard. the receiving container and the compression element have holding elements (210a-210h; 31-34) for holding the compression element at side walls of the receiving container at a certain height (H1, H2, H3, H4) in such a way that the compression element can be fixed against the upwardly directed force exerted by the container contents (P) compressed below the compression element , characterized in that the receiving container and/or the compression element are made of cardboard or paperboard.