mhurhangee/patent-ind-claim-en huggingface dataset:
A method operable at a docking host for docking a dockee with a docking environment managed by the docking host , the method comprising: pairing a wireless charger with the docking host, such that the wireless charger is a peripheral in the docking environment managed by the docking host; transmitting credential information from the docking host to the dockee responsive to a landing of the dockee on the wireless charger ; receiving a request from the dockee to initiate an authentication/association operation with the dockee ; docking the dockee with the docking environment in accordance with the credential information, thereby initiating a docking session after a successful authentication or association operation corresponding to establishing a wireless connection; and terminating the docking of the dockee with the docking environment responsive to an expiration of an inactivity timer indicating inactivity of a communication interface for communicating with the dockee . pairing a wireless charger with the docking host, such that the wireless charger is a peripheral in the docking environment managed by the docking host; transmitting credential information from the docking host to the dockee responsive to a landing of the dockee on the wireless charger ; receiving a request from the dockee to initiate an authentication/association operation with the dockee ; docking the dockee with the docking environment in accordance with the credential information, thereby initiating a docking session after a successful authentication or association operation corresponding to establishing a wireless connection; and terminating the docking of the dockee with the docking environment responsive to an expiration of an inactivity timer indicating inactivity of a communication interface for communicating with the dockee .
A bistable electromagnetic actuator device comprising an armature unit with an elongate plunger unit extending along a moving direction and with permanent magnet means said armature unit being movable into at least one of two end and/or stop positions that are stable in the deenergized state by means of stationary electromagnetic driving means , stationary magnetic field detector means being assigned to a housing of the actuator device which at least sectionally encloses the armature unit, for contactless interaction with the permanent magnet means in at least one of the end or stop positions provided for armature position detection, the plunger unit featuring a terminal contact and/or engagement section for interacting with an actuating partner in a contacting and friction-type manner such that a friction-type contact and/or actuation by the actuating partner causes a motion of the armature unit into one of the end or stop positions, in which the armature unit remains in a stable fashion in the deenergized state, when the electromagnetic driving means are deactivated, in particular deenergized, and the magnetic field detector means being arranged and wired for generating and outputting a detector signal corresponding to this end or stop position, in particular after the contact or actuation, the driving means being realized in the form of a stationary coil unit that is provided on or in the housing and assigned a stationary core unit, which forms a stopping face for a stopping section of the armature unit, the plunger unit preferably extending into and being guided in the core unit or through the core unit , the permanent magnet means being realized in the form of preferably disk-shaped permanent magnet bodies , which are provided on the plunger unit axially on both ends of the core and/or coil unit and designed in such a way that one of the permanent magnet bodies respectively contacts the core or coil unit while the other permanent magnet body is axially spaced apart from the core or coil unit in the two end or stop positions, and the magnetic field detector means being semiconductor-based and/or realized by means of a detector coil and provided on the magnetically conductive housing in such a way that the housing is detection-effectively permeable to the permanent magnetic field of the permanent magnet means in the end or stop positions provided for the armature position detection, the housing in particular featuring a housing opening, a housing aperture and/or a housing section, which at least sectionally is magnetically non-conductive for this purpose, and the magnetic field detector means being provided axially on both ends of the core or coil unit.
A doctor blade holder system, comprising: a. a doctor blade support structure that includes an elongated slot for receiving a doctor blade and mounting hardware for coupling the doctor blade support structure to a holder mounting plate ; b. an adjustable profiling plate adapted to cause pressure to be applied to the doctor blade in a continuous manner along the length of the doctor blade ; c. a series of adjustment mechanisms attached to the holder mounting plate and acting on the profiling plate , wherein the adjustment mechanisms are capable of displacing the profiling plate in a bi-directional manner with respect to the holder mounting plate ; and d. a series of spherical type mounting arrangements securing the profiling plate to the holder mounting plate yet allowing flexure or localized rotation of the profiling plate with respect to holder mounting plate around one or two axes, said series of spherical type mounting arrangements including some mounting structure elements that are adapted to move with the profiling plate , and other mounting structure elements that are adapted to remain with the holder mounting plate to permit the profiling plate to move with respect to the holder mounting plate as the series of adjustment mechanisms urge the profiling plate toward a roll surface . a. a doctor blade support structure that includes an elongated slot for receiving a doctor blade and mounting hardware for coupling the doctor blade support structure to a holder mounting plate ; b. an adjustable profiling plate adapted to cause pressure to be applied to the doctor blade in a continuous manner along the length of the doctor blade ; c. a series of adjustment mechanisms attached to the holder mounting plate and acting on the profiling plate , wherein the adjustment mechanisms are capable of displacing the profiling plate in a bi-directional manner with respect to the holder mounting plate ; and d. a series of spherical type mounting arrangements securing the profiling plate to the holder mounting plate yet allowing flexure or localized rotation of the profiling plate with respect to holder mounting plate around one or two axes, said series of spherical type mounting arrangements including some mounting structure elements that are adapted to move with the profiling plate , and other mounting structure elements that are adapted to remain with the holder mounting plate to permit the profiling plate to move with respect to the holder mounting plate as the series of adjustment mechanisms urge the profiling plate toward a roll surface .
A steering column for a motor vehicle, having a crash device which has at least two components which have mutually facing surfaces , wherein the at least two components are connected to each other by means of a shear rivet which is arranged in an opening passing at least partially through the components , such that the shear rivet is broken in two if the components move relative to each other, wherein the opening has, in at least one edge region bounding one of the surfaces , a widened portion which extends at least over a partial circumferential region and is open towards the respective other surface , wherein the surfaces are configured as contact surfaces which lie against one another in a shear plane (S), wherein the opening passes through the two components transversely to the shear plane (S), characterized in that. widened portions are provided on both contact surfaces of both components which lie against one another. wherein the opening has, in at least one edge region bounding one of the surfaces , a widened portion which extends at least over a partial circumferential region and is open towards the respective other surface , wherein the surfaces are configured as contact surfaces which lie against one another in a shear plane (S), wherein the opening passes through the two components transversely to the shear plane (S), characterized in that. widened portions are provided on both contact surfaces of both components which lie against one another.
Machine for expanding plastic parisons into plastic containers by means of a liquid medium, having at least one transforming station , which fills and expands the plastic parisons with the liquid medium with at least one pressure generating device , which is suitable and intended to deliver the liquid medium to at least one filling device , which fills the plastic parisons with the liquid medium, wherein the pressure generating device has a pressure output which at least intermittently can be fluidically connected to the plastic parison to be filled, wherein at least one shut-off device is installed in at least one connection channel , between the pressure generating device and the filling device inside which the liquid medium is conveyed, wherein the shut-off device is configured and provided in order that a fluid path inside the connection channel can be at least partially interrupted, characterised in that the filling device and/or the pressure generating device are able to be degassed independently of one another.
A polishing pad for polishing a substrate, the polishing pad comprising: a foundation layer having a first hardness; and a polishing surface layer having a second hardness less than the first hardness; characterized in that the foundation layer comprises a polycarbonate material, and the polishing surface layer is bonded directly to the foundation layer. a foundation layer having a first hardness; and a polishing surface layer having a second hardness less than the first hardness; characterized in that the foundation layer comprises a polycarbonate material, and the polishing surface layer is bonded directly to the foundation layer.
A method for sharing resources between devices, comprising: receiving, by a first device , from a second device , a sharing request including a credential identifying the second device ; providing, to the second device , from the first device , data representative of a first resource locally available to the first device, wherein the first resource is not locally available to the second device and wherein the resources locally available to the first device comprise an accelerometer; controlling, by the first device , use of the first resource in accordance with a control instruction transmitted to the first device from the second device , wherein this control instruction is similar to a control instruction that would be transmitted by a service and/or application layer of the second device if the first resource were locally available to the second device ; generating, by the first resource , data in response to executing the control instruction ; and transmitting said data from the first device to the second device in the same form as generated by the first resource , so that when a service and/or application layer of the second device receives the data, the data appears to have come directly from a local resource of the second device , wherein the method further comprises: stopping, by the first device , sharing of the first resource with the second device when the geographic distance between the first device and the second device exceeds a threshold. receiving, by a first device , from a second device , a sharing request including a credential identifying the second device ; providing, to the second device , from the first device , data representative of a first resource locally available to the first device, wherein the first resource is not locally available to the second device and wherein the resources locally available to the first device comprise an accelerometer; controlling, by the first device , use of the first resource in accordance with a control instruction transmitted to the first device from the second device , wherein this control instruction is similar to a control instruction that would be transmitted by a service and/or application layer of the second device if the first resource were locally available to the second device ; generating, by the first resource , data in response to executing the control instruction ; and transmitting said data from the first device to the second device in the same form as generated by the first resource , so that when a service and/or application layer of the second device receives the data, the data appears to have come directly from a local resource of the second device , wherein the method further comprises: stopping, by the first device , sharing of the first resource with the second device when the geographic distance between the first device and the second device exceeds a threshold.
A crash buffer for movable or fixed support structures , in particular of railway vehicles, having a first and second guide part, each in the form of a sleeve and a plunger , wherein the sleeve has a fastening flange , with which the sleeve can be fastened in a stationary manner to the support structure, and the plunger can be displaced relative to the sleeve in the longitudinal direction of the vehicle and is guided by the sleeve during its displacement movement, and having a force transmission member for flexible coupling of the plunger to the support structure, wherein a third guide part in the form of a guide rod is attached and/or supported on the plunger, said guide part having a smaller cross-section than the first and second guide parts , wherein the fastening flange has a penetration opening , in which the guide rod is supported, characterised in that the penetration opening comprises at least a first and a second section (4.1, 4.2), each having a different cross-section, wherein the first section has a larger cross-section than the second section and the guide rod is supported in the first section, wherein the guide rod, in particular at least in the part of the guide rod supported in the first section, has a larger cross-section than the second section, so that in the event of a collision, in particular when a certain impact force (triggering force) is exceeded on the crash buffer, the guide rod can penetrate through the fastening flange by means of plastic expansion of the opening cross-section in the second section.
A battery cell, comprising: an electrode assembly ; a housing being a hollow cuboid and having an opening at one end, wherein the electrode assembly is arranged in the hollow cuboid; a cover plate covering the opening of the housing to hermetically seal the battery box; at least two walls including a first wall and a second wall , the first wall intersecting the second wall , wherein the first wall and the second wall are respectively a bottom wall and a side wall of the housing , and the bottom wall of the housing is a wall opposite to the opening of the housing; and a pressure relief mechanism comprising a first portion and a second portion connected to each other, and the first portion and the second portion being respectively arranged at the first wall and the second wall ,wherein the first portion and/or the second portion are/is configured to be able to fracture, when a thermal runaway occurs inside the battery cell and an internal pressure of the battery call reaches a threshold, to relieve the internal pressure; characterized in that a backing plate being located between the electrode assembly and a bottom wall of the housing , wherein the backing plate is provided with a notch corresponding to the first portion such that the backing plate does not block the first portion . an electrode assembly ; a housing being a hollow cuboid and having an opening at one end, wherein the electrode assembly is arranged in the hollow cuboid; a cover plate covering the opening of the housing to hermetically seal the battery box; at least two walls including a first wall and a second wall , the first wall intersecting the second wall , wherein the first wall and the second wall are respectively a bottom wall and a side wall of the housing , and the bottom wall of the housing is a wall opposite to the opening of the housing; and a pressure relief mechanism comprising a first portion and a second portion connected to each other, and the first portion and the second portion being respectively arranged at the first wall and the second wall ,wherein the first portion and/or the second portion are/is configured to be able to fracture, when a thermal runaway occurs inside the battery cell and an internal pressure of the battery call reaches a threshold, to relieve the internal pressure; characterized in that a backing plate being located between the electrode assembly and a bottom wall of the housing , wherein the backing plate is provided with a notch corresponding to the first portion such that the backing plate does not block the first portion .
A fabrication method for fabricating a reinforcing edge of a turbine engine blade , the method comprising: • providing a blank for the reinforcing edge, wherein the blank has a profile that is generally Y-shaped; • imprinting an indentation in said blank so as to form a rough surface (S) on the inside of the blank , characterized in that the imprinting is carried out by die-stamping between a first die and a second die , at least one of the two dies including a punch configured to imprint said indentation, and in that it includes an additional step consisting in deforming at least the rough surface (S) of the blank so as to obtain the final shape of the reinforcing edge . • providing a blank for the reinforcing edge, wherein the blank has a profile that is generally Y-shaped; • imprinting an indentation in said blank so as to form a rough surface (S) on the inside of the blank , characterized in that the imprinting is carried out by die-stamping between a first die and a second die , at least one of the two dies including a punch configured to imprint said indentation, and in that it includes an additional step consisting in deforming at least the rough surface (S) of the blank so as to obtain the final shape of the reinforcing edge .
A signal amplification system comprising: - an input (Ve) through which an input signal is transmitted, - at least two different amplification means (101A and 101B), each amplification means being configured to amplify the input signal when the amplification means is activated, - at least one means of summing the amplified signals by the at least two amplification means, - an output (Vs) through which is transmitted the signal summed by the summing means, - dynamic means of activating/deactivating the amplifying means, the activation/deactivation means being configured to activate or deactivate one or more of the at least two amplification means depending on the bandspread of the input signal; characterised in that at least two of said amplification means have different bandwidths, at least one of said two amplification means is adapted to amplify signals the frequency bandspread of which has a width greater than or equal to one octave, and in that the summing means is an active distribution transformer. - an input (Ve) through which an input signal is transmitted, - at least two different amplification means (101A and 101B), each amplification means being configured to amplify the input signal when the amplification means is activated, - at least one means of summing the amplified signals by the at least two amplification means, - an output (Vs) through which is transmitted the signal summed by the summing means, - dynamic means of activating/deactivating the amplifying means, the activation/deactivation means being configured to activate or deactivate one or more of the at least two amplification means depending on the bandspread of the input signal; characterised in that at least two of said amplification means have different bandwidths, at least one of said two amplification means is adapted to amplify signals the frequency bandspread of which has a width greater than or equal to one octave, and in that the summing means is an active distribution transformer.
A method for storing nanoparticles in a host structure, comprising: dispersing nanoparticles into a primary solvent; inserting a host structure into the primary solvent, wherein the host structure is a solid phase comprised of a porous material sized to receive the nanoparticles selected from a group consisting of molecular sieves, silica, alumina, zeolites, cross-linked dextran, aerogel, xerogel, metal-organic frameworks and ion exchange media; adsorbing the nanoparticles from the primary solvent onto or within the host structure; separating the host structure from the primary solvent; storing the host structure with the adsorbed nanoparticles in a sealed container; and releasing the nanoparticles from the host structure into a secondary solvent after the step of storing the host structure with the adsorbed nanoparticles in a sealed container, wherein the nanoparticles are selected from the group consisting of metal chalcogenides and doped metal chalcogenides. dispersing nanoparticles into a primary solvent; inserting a host structure into the primary solvent, wherein the host structure is a solid phase comprised of a porous material sized to receive the nanoparticles selected from a group consisting of molecular sieves, silica, alumina, zeolites, cross-linked dextran, aerogel, xerogel, metal-organic frameworks and ion exchange media; adsorbing the nanoparticles from the primary solvent onto or within the host structure; separating the host structure from the primary solvent; storing the host structure with the adsorbed nanoparticles in a sealed container; and releasing the nanoparticles from the host structure into a secondary solvent after the step of storing the host structure with the adsorbed nanoparticles in a sealed container, wherein the nanoparticles are selected from the group consisting of metal chalcogenides and doped metal chalcogenides.