mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a fire-resistant part of an air conditioning system for an air or rail transport vehicle , characterized in that it comprises at least the following steps: - a step of obtaining a part comprising at least one aluminum alloy surface portion, - a step of treating said aluminum alloy surface portion with micro-arc oxidation in order to obtain a ceramic coating on said surface portion, - a step of sandblasting the surface portion treated with said micro-arc oxidation treatment step. - a step of obtaining a part comprising at least one aluminum alloy surface portion, - a step of treating said aluminum alloy surface portion with micro-arc oxidation in order to obtain a ceramic coating on said surface portion, - a step of sandblasting the surface portion treated with said micro-arc oxidation treatment step.
An apparatus at least comprising: a plurality of devices arranged in a cellular pattern on a surface , wherein each device at least comprises a laminated heterostructure of a graphene layer and a dielectric-metal compound layer ; a control unit electrically connected to each of the plurality of devices ; an energy harvester electrically connected to the control unit ; and a data modulator electrically connected to the control unit ; wherein the control unit is able to alter the relative proportions in which each of the devices can reflect and absorb incident radiation and to select a mode of operation of each of the devices from one or more of: transmitting data supplied from the data modulator by optical modulation of incident radiation; harvesting energy from incident radiation and relaying the harvested energy to the energy harvester ; and reflecting incident radiation. a plurality of devices arranged in a cellular pattern on a surface , wherein each device at least comprises a laminated heterostructure of a graphene layer and a dielectric-metal compound layer ; a control unit electrically connected to each of the plurality of devices ; an energy harvester electrically connected to the control unit ; and a data modulator electrically connected to the control unit ; wherein the control unit is able to alter the relative proportions in which each of the devices can reflect and absorb incident radiation and to select a mode of operation of each of the devices from one or more of: transmitting data supplied from the data modulator by optical modulation of incident radiation; harvesting energy from incident radiation and relaying the harvested energy to the energy harvester ; and reflecting incident radiation. transmitting data supplied from the data modulator by optical modulation of incident radiation; harvesting energy from incident radiation and relaying the harvested energy to the energy harvester ; and reflecting incident radiation.
A method for treating sheets of filter paper and for measuring an analyte from a biological material impregnated into said sheets of filter paper, the method comprising: - subjecting the sheets of filter paper to gaseous substance containing at least 30 grams water per cubic meter, and/or - wetting the sheets of filter paper with water and subsequently drying the sheet of filter paper so as to diminish the variation in measurements of an analyte from a biological material impregnated into the sheets of filter paper, wherein the method further comprising: - subsequently impregnating at least one sample drop of biological material into each of the sheets of filter paper, - drying the sheets of filter paper impregnated with the biological material, - cutting or punching out from the dried sheets of filter paper at least one sample disk containing the biological material, and - measuring the analyte quantitatively and/or qualitatively from the biological material impregnated into the sheets of filter paper. - subjecting the sheets of filter paper to gaseous substance containing at least 30 grams water per cubic meter, and/or - wetting the sheets of filter paper with water and subsequently drying the sheet of filter paper - subsequently impregnating at least one sample drop of biological material into each of the sheets of filter paper, - drying the sheets of filter paper impregnated with the biological material, - cutting or punching out from the dried sheets of filter paper at least one sample disk containing the biological material, and - measuring the analyte quantitatively and/or qualitatively from the biological material impregnated into the sheets of filter paper.
A method operational at a host controller , wherein the method comprises carrying out the following steps by operations of the host controller : execution or processing of tasks by hardware of the host controller ; and characterised by the following steps: setting an error register located within the host controller upon detection, by the host controller , of an error condition in the execution or processing of tasks; halting , by the host controller upon the detection of the error condition, the execution or processing of tasks; and resuming the execution or processing of tasks upon detection, by the host controller , that the error condition has been cleared by a host software external to the host controller . execution or processing of tasks by hardware of the host controller ; and characterised by the following steps: setting an error register located within the host controller upon detection, by the host controller , of an error condition in the execution or processing of tasks; halting , by the host controller upon the detection of the error condition, the execution or processing of tasks; and resuming the execution or processing of tasks upon detection, by the host controller , that the error condition has been cleared by a host software external to the host controller .
A synchronization signal block sending method, wherein the method comprises: determining (S101), by a first terminal based on a correspondence between information about locations of M antenna panels deployed on a vehicle and P synchronization signal blocks of the first terminal and information about locations of N antenna panels, a synchronization signal block corresponding to each of the N antenna panels, wherein the information about the locations of the M antenna panels is used to indicate the locations of the M antenna panels on the first terminal, the N antenna panels are comprised in the M antenna panels, N is less than or equal to M, M, N and P are positive integers, and P is an integer multiple of M; and separately sending (S102), by the first terminal by using each of the N antenna panels, the synchronization signal block corresponding to each of the N antenna panels, wherein the synchronization signal block comprises a primary synchronization signal, a secondary synchronization signal, and a physical broadcast channel, wherein the correspondence between the information about the locations of the M antenna panels and the P synchronization signal blocks comprises: a correspondence between the information about the locations of the M antenna panels and P resource mapping modes, wherein the resource mapping mode is used to indicate a location of a time-frequency resource occupied by the primary synchronization signal and a location of a time-frequency resource occupied by the secondary synchronization signal in the synchronization signal block. determining (S101), by a first terminal based on a correspondence between information about locations of M antenna panels deployed on a vehicle and P synchronization signal blocks of the first terminal and information about locations of N antenna panels, a synchronization signal block corresponding to each of the N antenna panels, wherein the information about the locations of the M antenna panels is used to indicate the locations of the M antenna panels on the first terminal, the N antenna panels are comprised in the M antenna panels, N is less than or equal to M, M, N and P are positive integers, and P is an integer multiple of M; and separately sending (S102), by the first terminal by using each of the N antenna panels, the synchronization signal block corresponding to each of the N antenna panels, wherein the synchronization signal block comprises a primary synchronization signal, a secondary synchronization signal, and a physical broadcast channel, wherein the correspondence between the information about the locations of the M antenna panels and the P synchronization signal blocks comprises: a correspondence between the information about the locations of the M antenna panels and P resource mapping modes, wherein the resource mapping mode is used to indicate a location of a time-frequency resource occupied by the primary synchronization signal and a location of a time-frequency resource occupied by the secondary synchronization signal in the synchronization signal block.
A device for transmitting a reply message, the device comprising: a communication unit configured to receive a question message from another device; a controller configured to determine a category of the question message; a display unit configured to display a user interface, UI, wherein the displayed UI corresponds to the determined category and serves for selecting data to be included in a reply message to the question message according to the determined category ; and a user input unit configured to receive a user input for selecting the data to be included in the reply message through the UI, wherein the communication unit transmits the reply message including the data to the other device, wherein the controller comprises a semantic analyzer configured to analyze a text included in the question message, to determine from this analysis a sending intention of the question message, to classify the sending intention into a plurality of categories, and to determine the category of the question message based on the sending intention of the question message. a communication unit configured to receive a question message from another device; a controller configured to determine a category of the question message; a display unit configured to display a user interface, UI, wherein the displayed UI corresponds to the determined category and serves for selecting data to be included in a reply message to the question message according to the determined category ; and a user input unit configured to receive a user input for selecting the data to be included in the reply message through the UI, wherein the communication unit transmits the reply message including the data to the other device, wherein the controller comprises a semantic analyzer configured to analyze a text included in the question message, to determine from this analysis a sending intention of the question message, to classify the sending intention into a plurality of categories, and to determine the category of the question message based on the sending intention of the question message.
A catheter sheath introducer adapted for use with a medical device , comprising: a hub ; an elongated sheath comprising a tubular structure with a distal end and a proximal end , the tubular structure having at least one layer with an inner circumferential surface defining a lumen , the hub being connected to the proximal end of the sheath ; and one or more pairs of diametrically opposing dampers , wherein the dampers : extend inwardly from the inner circumferential surface of the lumen of the sheath ; are angled toward the distal end of the sheath in a unidirectional configuration, such that the medical device encounters less frictional impedance when advanced distally relative to the sheath than when withdrawn proximally relative to the sheath; are configured to contact and apply a retention force on the medical device received in the lumen of the sheath , and wherein distal ends of the one or more pairs of diametrically opposing dampers are out of contact with each other when the medical device is out of contact with the dampers . a hub ; an elongated sheath comprising a tubular structure with a distal end and a proximal end , the tubular structure having at least one layer with an inner circumferential surface defining a lumen , the hub being connected to the proximal end of the sheath ; and one or more pairs of diametrically opposing dampers , extend inwardly from the inner circumferential surface of the lumen of the sheath ; are angled toward the distal end of the sheath in a unidirectional configuration, such that the medical device encounters less frictional impedance when advanced distally relative to the sheath than when withdrawn proximally relative to the sheath; are configured to contact and apply a retention force on the medical device received in the lumen of the sheath , and
A composition [composition (C)] comprising: - a liquid medium [medium (L)]; - at least one polymer [component (I)] comprising recurring units derived from at least one ethylenically unsaturated fluorinated monomer containing at least one -SO 3 Z group wherein wherein Z is H, an alkaline metal ion or NH 4 + [monomer (A)] and recurring units derived from at least one ethylenically unsaturated fluorinated monomer [monomer (B)]; and - at least one perfluoroelastomer [component (II)], wherein the weight ratio between said component (I) and said component (II) is from 95/5 to 70/30, wherein component (II) comprises recurring units derived from C 2 -C 8 perfluoroolefins and CF 2 =CFOR f perfluoroalkylvinylethers wherein R f is a C 1 -C 6 perfluoroalkyl group, preferably wherein said component (II) comprises recurring units derived from tetrafluoroethylene (TFE) and perfluoromethyl-vinyl-ether (MVE). - a liquid medium [medium (L)]; - at least one polymer [component (I)] comprising recurring units derived from at least one ethylenically unsaturated fluorinated monomer containing at least one -SO 3 Z group wherein wherein Z is H, an alkaline metal ion or NH 4 + [monomer (A)] and recurring units derived from at least one ethylenically unsaturated fluorinated monomer [monomer (B)]; and - at least one perfluoroelastomer [component (II)],
A joint member comprising: a central hub ; two or more acceptor ports extending away from the central hub, wherein each acceptor port is formed with (i) an inner protrusion and (ii) an outer protrusion that is concentric with the inner protrusion, wherein the inner protrusion and the outer protrusion form an annular region therebetween for mating with a terminal end of a connecting tube that is fitted on the inner protrusion; and one or more fluid ports connected to each of the two or more acceptor ports, said one or more fluid ports being in fluid communication with an internal channel inside of a wall of the inner protrusion. a central hub ; two or more acceptor ports extending away from the central hub, wherein each acceptor port is formed with (i) an inner protrusion and (ii) an outer protrusion that is concentric with the inner protrusion, wherein the inner protrusion and the outer protrusion form an annular region therebetween for mating with a terminal end of a connecting tube that is fitted on the inner protrusion; and one or more fluid ports connected to each of the two or more acceptor ports, said one or more fluid ports being in fluid communication with an internal channel inside of a wall of the inner protrusion.
A display method of a mixed reality, MR, system supporting virtual reality, VR, applications, wherein the MR system comprises a processing device and a MR headset , wherein the processing device provides a first application programming interface, API, that runs VR contents and a second API that runs MR contents, wherein the second API is associated with the MR headset , and wherein the method comprises: providing a first application architecture platform and a second application architecture platform by the processing device, wherein the first API is able to run the VR contents on the first application architecture platform, wherein the second API is able to run the MR contents on the second application architecture platform, wherein the first application architecture platform and the second application architecture platform respectively comprise a first multimedia API and a second multimedia API, and wherein the first multimedia API and the second multimedia API have a common runtime at respective bottom layers; obtaining a first VR content by the processing device ; informing the first API about a display-related setting of the MR headset through the second API by the processing device ; rendering first texture data (TD) corresponding to the first VR content according to the display-related setting through the first API by the processing device ; creating and sending a share handle (SH) associated with the first texture data (TD) to the second API through the first API via the first multimedia API and the second multimedia API having the common runtime by the processing device ; and displaying the first texture data (TD) on the MR headset through the second API by using the share handle (SH) by the processing device (S210). providing a first application architecture platform and a second application architecture platform by the processing device, wherein the first API is able to run the VR contents on the first application architecture platform, wherein the second API is able to run the MR contents on the second application architecture platform, wherein the first application architecture platform and the second application architecture platform respectively comprise a first multimedia API and a second multimedia API, and wherein the first multimedia API and the second multimedia API have a common runtime at respective bottom layers; obtaining a first VR content by the processing device ; informing the first API about a display-related setting of the MR headset through the second API by the processing device ; rendering first texture data (TD) corresponding to the first VR content according to the display-related setting through the first API by the processing device ; creating and sending a share handle (SH) associated with the first texture data (TD) to the second API through the first API via the first multimedia API and the second multimedia API having the common runtime by the processing device ; and displaying the first texture data (TD) on the MR headset through the second API by using the share handle (SH) by the processing device (S210).
A luminaire comprising a receiving element for a rotationally symmetrical glass body with a receiving opening, a rotationally symmetrical glass body arranged in this receiving opening and an annular permanently elastic element arranged between the receiving element and the glass body , characterized in that the receiving element is formed with a support surface which is inclined towards the glass body and the glass body is formed with a receiving surface diametrically opposite the support surface , wherein the permanently elastic element is positioned between the support surface and the receiving surface in the installed state, in order to fasten the receiving element and the glass body in a form-fitting and concentric manner with respect to one another, and in that an annular gap is provided between the glass body and the receiving element for the introduction of the annular permanently elastic element between the supporting and receiving surfaces.
A method of forming an absorbent core, the method comprising: providing a first material layer ; coupling elastic strands under tension to the first material layer to form an elastic and material layer combination; performing a first tension let-off to partially relax the elastic strands , wherein the partial relaxing of the elastic strands deforms the first material layer to form a plurality of valleys in the first material layer for capturing a superabsorbent polymer material ; applying the superabsorbent polymer material onto the first material layer ; and coupling a second material layer to the elastic and first material layer combination. providing a first material layer ; coupling elastic strands under tension to the first material layer to form an elastic and material layer combination; performing a first tension let-off to partially relax the elastic strands , wherein the partial relaxing of the elastic strands deforms the first material layer to form a plurality of valleys in the first material layer for capturing a superabsorbent polymer material ; applying the superabsorbent polymer material onto the first material layer ; and coupling a second material layer to the elastic and first material layer combination.
A display apparatus wherein the display apparatus is arranged to be coupled to a movable object , the display apparatus comprising: at least a first laser sensor module , wherein the first laser sensor module is arranged to determine movements of the movable object with respect to a reference object mechanically coupled to the movable object by means of self mixing interference measurements, wherein the first laser sensor module is arranged to emit at least three measurement beams in three different spatial directions to the reference object when the display apparatus is coupled to the movable object , and wherein the first laser sensor module is arranged to determine velocity vectors or distances collinear to the spatial directions, a display device for displaying a field-of-view , wherein the display device is arranged to integrate at least one virtual object in the field-of-view in accordance with the determined movements of the movable object . at least a first laser sensor module , wherein the first laser sensor module is arranged to determine movements of the movable object with respect to a reference object mechanically coupled to the movable object by means of self mixing interference measurements, wherein the first laser sensor module is arranged to emit at least three measurement beams in three different spatial directions to the reference object when the display apparatus is coupled to the movable object , and wherein the first laser sensor module is arranged to determine velocity vectors or distances collinear to the spatial directions, a display device for displaying a field-of-view , wherein the display device is arranged to integrate at least one virtual object in the field-of-view in accordance with the determined movements of the movable object .
A pool cleaning robot , comprising: a filtering unit for filtering fluid that passes through the filtering unit; wherein the pool cleaning robot is characterized by comprising a calorimetric sensor for sensing a cleanliness related parameter of the filtering unit while the pool cleaning robot is submerged in the fluid; and a controller that is configured to at least assist in determining, based on the cleanliness related parameter of the filtering unit, a cleanliness of the filtering unit. a filtering unit for filtering fluid that passes through the filtering unit; wherein the pool cleaning robot is characterized by comprising a calorimetric sensor for sensing a cleanliness related parameter of the filtering unit while the pool cleaning robot is submerged in the fluid; and a controller that is configured to at least assist in determining, based on the cleanliness related parameter of the filtering unit, a cleanliness of the filtering unit.