mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus (V) having: - a first reception module, wherein ∘ the first reception module is designed to receive a transaction, ∘ the transaction comprises control commands, ∘ the control commands are intended to be executed by one or more devices (N1) of a network application; - a determination module, wherein ∘ the determination module is designed to determine a device (N1) or a plurality of devices that each fully or partly execute the control commands, ∘ the determination module is designed to transmit a request message to execute the corresponding control commands to the device (N1) or the plurality of devices, - a second reception module, wherein ∘ the second reception module is designed to receive confirmation messages, ∘ the confirmation messages are responses from the device (N1) or from the plurality of devices to the request message; - a provision module, wherein ∘ the provision module is designed to provide the transaction and/or the control commands in the form of a control transaction or in the form of a plurality of control transactions on the basis of the confirmation messages. - a first reception module, wherein ∘ the first reception module is designed to receive a transaction, ∘ the transaction comprises control commands, ∘ the control commands are intended to be executed by one or more devices (N1) of a network application; ∘ the first reception module is designed to receive a transaction, ∘ the transaction comprises control commands, ∘ the control commands are intended to be executed by one or more devices (N1) of a network application; - a determination module, wherein ∘ the determination module is designed to determine a device (N1) or a plurality of devices that each fully or partly execute the control commands, ∘ the determination module is designed to transmit a request message to execute the corresponding control commands to the device (N1) or the plurality of devices, ∘ the determination module is designed to determine a device (N1) or a plurality of devices that each fully or partly execute the control commands, ∘ the determination module is designed to transmit a request message to execute the corresponding control commands to the device (N1) or the plurality of devices, - a second reception module, wherein ∘ the second reception module is designed to receive confirmation messages, ∘ the confirmation messages are responses from the device (N1) or from the plurality of devices to the request message; ∘ the second reception module is designed to receive confirmation messages, ∘ the confirmation messages are responses from the device (N1) or from the plurality of devices to the request message; - a provision module, wherein ∘ the provision module is designed to provide the transaction and/or the control commands in the form of a control transaction or in the form of a plurality of control transactions on the basis of the confirmation messages.
A mask for an additively manufactured part including a plurality of openings spaced in a surface of the part , the mask comprising: an attachment ligament ; a first cover member including a first proximal end integrally coupled to the attachment ligament and a first distal end extending at least partially over a first portion of the plurality of openings , the first distal end of the first cover member constructed to be, in use, separated from the part by a first spacing; a second cover member including a second proximal end integrally coupled to the attachment ligament and a second distal end extending at least partially over a second portion of the plurality of openings , the second distal end of the second cover member constructed to be, in use, separated from the part by a second spacing; and a detachment member extending from each of the first and second cover members , characterized in that the attachment ligament is the sole connection to the part ; and the attachment ligament is configured to integrally couple to the part between the plurality of openings in a cantilever fashion, such that the mask can be easily removed from the part . an attachment ligament ; a first cover member including a first proximal end integrally coupled to the attachment ligament and a first distal end extending at least partially over a first portion of the plurality of openings , the first distal end of the first cover member constructed to be, in use, separated from the part by a first spacing; a second cover member including a second proximal end integrally coupled to the attachment ligament and a second distal end extending at least partially over a second portion of the plurality of openings , the second distal end of the second cover member constructed to be, in use, separated from the part by a second spacing; and a detachment member extending from each of the first and second cover members , characterized in that the attachment ligament is the sole connection to the part ; and the attachment ligament is configured to integrally couple to the part between the plurality of openings in a cantilever fashion, such that the mask can be easily removed from the part .
A turbo-machine assembly comprising: a shaft or disc configured to rotate; a proximity sensor having a sensing component comprising a coil, wherein the reactance of the sensing component varies as a function of a proximity of the shaft or disc ; a circuit comprising the sensing component and a unit having fixed reactance; an electrical source configured to drive an alternating current through the circuit ; and an analysis unit configured to: measure the phase of a signal in the circuit that is dependent on the reactance of the sensing component of the sensor , characterized in that the analysis unit is further configured to: detect and output a measured variation in a surface of the shaft or disc during rotation of the shaft or disc , the measured variation being obtained by measuring the reactance of the sensing component based on the measured phase. a shaft or disc configured to rotate; a proximity sensor having a sensing component comprising a coil, wherein the reactance of the sensing component varies as a function of a proximity of the shaft or disc ; a circuit comprising the sensing component and a unit having fixed reactance; an electrical source configured to drive an alternating current through the circuit ; and an analysis unit configured to: measure the phase of a signal in the circuit that is dependent on the reactance of the sensing component of the sensor , characterized in that the analysis unit is further configured to: detect and output a measured variation in a surface of the shaft or disc during rotation of the shaft or disc , the measured variation being obtained by measuring the reactance of the sensing component based on the measured phase.
Security element , especially for pieces of luggage , for reducing an explosive power deriving from explosive devices which are located in the pieces of luggage , wherein the security element has a base body , which base body has four side parts and a lid part which joins the side parts , wherein a receiving space is formed by the side parts and the lid part , for receiving the piece of luggage , characterized in that there is a respective lug fastened to each side part of the base body , which lug can be fastened to a surface which supports the explosive device , and the base body having several openings , so that a pressure wave, which is caused by the explosion of the explosive device , is able to at least partially escape, wherein the openings are fastened to connection areas of the base body , which are formed by the lid part and the side parts , and/or are fastened to the connection areas between two side parts respectively.
A portable tool stand comprising: a body having a work surface and opposed ends; deployable legs pivotally mounted to said body ; said legs moving between a stored position adjacent to said body and a support position wherein said legs are deployed to support said body ; at least one arm mounted for sliding with respect to one end of said body , characterized in that said at least one arm slides along a linear path, said linear path being parallel to said work surface , said arm sliding with respect to said body between a transport position and a use position; said deployable legs and said at least one arm being operably connected such that sliding said at least one arm with respect to said body moves said legs between said stored position and said support position. a body having a work surface and opposed ends; deployable legs pivotally mounted to said body ; said legs moving between a stored position adjacent to said body and a support position wherein said legs are deployed to support said body ; at least one arm mounted for sliding with respect to one end of said body , characterized in that said at least one arm slides along a linear path, said linear path being parallel to said work surface , said arm sliding with respect to said body between a transport position and a use position; said deployable legs and said at least one arm being operably connected such that sliding said at least one arm with respect to said body moves said legs between said stored position and said support position.
A filter inspection method for inspecting quality of a flavor containing element embedded in a columnar filter attached to a cigarette end along an axis of the filter in a filter cigarette making machine, the method comprising steps of finding a center position of a filter end face (F) of the filter on an inspection image (A) obtained by photographing the filter end face (F) of the filter cigarette ; detecting an area (B) of the flavor containing element in the filter end face (F) on the inspection image (A); and determining a distance between the element area (B) and the center position (E) of the filter end (F) face to determine the quality of the filter , characterized in that the center position (E) of the filter end face (F) on the inspection image (A) is found as a center position of an approximate circle (C) approximated to a profile of the filter end face (F) after the approximate circle (C) is obtained.
A method for providing feedback regarding keypress accuracy on a soft keyboard of a user interface, UI, the method comprising: presenting the on a touchscreen of a computing device, the UI including the soft keyboard that uses a soft-keyboard portion of the touchscreen , which is all or a portion of the touchscreen ; detecting a touch on the soft-keyboard portion of the touchscreen ; determining a location of the touch on the touchscreen ; and presenting a just-pressed keypress marker on the touchscreen , wherein the just-pressed keypress marker indicates the location of the touch on the touchscreen ; characterized in that the method further comprises calculating a center point of an area of the touch on the soft-keyboard portion of the touchscreen ; centering the just-pressed keypress marker about the center point of the area of the touch on the soft-keyboard portion of the touchscreen ; detecting a subsequent touch on the soft-keyboard portion of the touchscreen ; determining a location of the subsequent touch on the touchscreen ; presenting the just-pressed keypress marker on the touchscreen so that the just-pressed keypress marker indicates the location of the subsequent touch on the touchscreen ; and presenting a previously pressed keypress marker on the touchscreen , wherein the previously pressed keypress marker indicates the location of the touch on the touchscreen . presenting the on a touchscreen of a computing device, the UI including the soft keyboard that uses a soft-keyboard portion of the touchscreen , which is all or a portion of the touchscreen ; detecting a touch on the soft-keyboard portion of the touchscreen ; determining a location of the touch on the touchscreen ; and presenting a just-pressed keypress marker on the touchscreen , wherein the just-pressed keypress marker indicates the location of the touch on the touchscreen ; characterized in that the method further comprises calculating a center point of an area of the touch on the soft-keyboard portion of the touchscreen ; centering the just-pressed keypress marker about the center point of the area of the touch on the soft-keyboard portion of the touchscreen ; detecting a subsequent touch on the soft-keyboard portion of the touchscreen ; determining a location of the subsequent touch on the touchscreen ; presenting the just-pressed keypress marker on the touchscreen so that the just-pressed keypress marker indicates the location of the subsequent touch on the touchscreen ; and presenting a previously pressed keypress marker on the touchscreen , wherein the previously pressed keypress marker indicates the location of the touch on the touchscreen .
An aerosol container having a longitudinal axis and being usable for an aerosol dispenser , said aerosol container comprising: an outer container having a closed end bottom, a threaded open neck longitudinally opposed thereto, said open neck having a periphery and a complementary valve threadedly disposed therein, one of said neck and said valve having at least one pawl or ratchet, said pawl or ratchet allowing threaded rotation of said complementary valve into said outer container in an onward direction, and impeding rotational detachment of said valve therefrom, the other of said valve and said neck having a co-acting ratchet or pawl , preventing removal of said valve from said outer container ; characterized in that said valve is externally helically threaded.
A method, performed by a device, of processing an image, the method comprising: obtaining movement information of the user based on tracking a movement of a user wearing the device, the movement information being about a movement occurring between a previous time when a first image was rendered and a current time when a second image is rendered (S210); identifying a movement path between the previous time and the current time, of the user in a reverse direction; identifying at least one pixel from among a plurality of pixels comprised in the first image, based on applying the movement path in a reverse direction to a location of a target pixel included in the second image (S220); and obtaining a value of the target pixel based on blending a value of the selected at least one pixel with the value of the target pixel according to a preset weight (S230). obtaining movement information of the user based on tracking a movement of a user wearing the device, the movement information being about a movement occurring between a previous time when a first image was rendered and a current time when a second image is rendered (S210); identifying a movement path between the previous time and the current time, of the user in a reverse direction; identifying at least one pixel from among a plurality of pixels comprised in the first image, based on applying the movement path in a reverse direction to a location of a target pixel included in the second image (S220); and obtaining a value of the target pixel based on blending a value of the selected at least one pixel with the value of the target pixel according to a preset weight (S230).
A wavelength selective switch including a liquid crystal on silicon device and a polarization conversion unit configured to convert an input beam into linearly polarized light with a defined polarization direction (P1), wherein the liquid crystal on silicon device is configured to diffract an incident beam (A1, A2, A3) in a linear polarization state with said defined polarization direction (P1) to form a deflected beam (C1, C2, C3), and the liquid crystal on silicon device comprises: a first panel and a second panel , that are oppositely disposed; a liquid crystal layer , located between the first panel and the second panel ; a drive circuit , configured to generate an electric field to control a rotation of a liquid crystal in the liquid crystal layer ; and two alignment films , wherein the two alignment films are located on two opposite sides of the liquid crystal layer , wherein the liquid crystal on silicon device has a first pixel area , the liquid crystal layer comprises a first liquid crystal located in the first pixel area , and each of the two alignment films comprises a first partial alignment film located in the first pixel area , wherein under control of the electric field, the first liquid crystal is rotated in a plane perpendicular to the first panel , and is also rotated in a first direction (D1) in a plane parallel to the first panel relative to an alignment direction (R1) of the first partial alignment film , and said alignment direction (R1) of the first partial alignment film is further at an angle β with said polarization direction (P1) of the incident beam (A1, A2, A3) in a second direction (D2), and the second direction (D2) is opposite to the first direction (D1) to reduce a loss of the deflected beam. a first panel and a second panel , that are oppositely disposed; a liquid crystal layer , located between the first panel and the second panel ; a drive circuit , configured to generate an electric field to control a rotation of a liquid crystal in the liquid crystal layer ; and two alignment films , wherein the two alignment films are located on two opposite sides of the liquid crystal layer , wherein the liquid crystal on silicon device has a first pixel area , the liquid crystal layer comprises a first liquid crystal located in the first pixel area , and each of the two alignment films comprises a first partial alignment film located in the first pixel area , wherein under control of the electric field, the first liquid crystal is rotated in a plane perpendicular to the first panel , and is also rotated in a first direction (D1) in a plane parallel to the first panel relative to an alignment direction (R1) of the first partial alignment film , and said alignment direction (R1) of the first partial alignment film is further at an angle β with said polarization direction (P1) of the incident beam (A1, A2, A3) in a second direction (D2), and the second direction (D2) is opposite to the first direction (D1) to reduce a loss of the deflected beam.
A fire suppression nozzle for mounting through a hole in a ceiling of a room, said nozzle comprising a housing containing a channel arranged to communicate a fluid from a fluid inlet to a fluid outlet , said channel comprising a closure member operable to move between a first position where the channel is obstructed such that fluid cannot be communicated to the fluid outlet and a second position where fluid can be communicated to the fluid outlet, and wherein the fluid outlet is in the form of at least one aperture extending through a portion of the polymer housing into said channel, wherein the closure member is prevented from moving from the first to the second position by an elongate heat sensitive member , characterized in that the housing is a polymer housing wherein the polymer housing comprises a base defined by a plate , wherein the polymer housing is provided with an opening which passes through the plate and which is adjacent to the heat sensitive member such that in use the heat sensitive member is exposed to the room, wherein the nozzle is configured so that when mounted through a hole in the ceiling of a room the elongate axis of the heat sensitive member is in a horizontal orientation and the opening provides a continuous passage for hot gas to pass vertically through the nozzle from a side of the nozzle facing the room to a side of the nozzle facing away from the room. wherein the closure member is prevented from moving from the first to the second position by an elongate heat sensitive member , characterized in that the housing is a polymer housing wherein the polymer housing comprises a base defined by a plate , wherein the polymer housing is provided with an opening which passes through the plate and which is adjacent to the heat sensitive member such that in use the heat sensitive member is exposed to the room, wherein the nozzle is configured so that when mounted through a hole in the ceiling of a room the elongate axis of the heat sensitive member is in a horizontal orientation and the opening provides a continuous passage for hot gas to pass vertically through the nozzle from a side of the nozzle facing the room to a side of the nozzle facing away from the room.
A thread-coating module comprising: an elongate coating chamber having enclosed sidewalls, a thread entrance at one end and a thread exit at an opposite end thereof; and one or more inkjet printheads positioned at the sidewalls for ejecting ink droplets into the coating chamber, the sidewalls having one or more openings aligned with respective inkjet printheads, wherein an exhaust opening is positioned opposite each printhead, the exhaust opening receiving ink droplets ejected into the coating chamber. an elongate coating chamber having enclosed sidewalls, a thread entrance at one end and a thread exit at an opposite end thereof; and one or more inkjet printheads positioned at the sidewalls for ejecting ink droplets into the coating chamber, the sidewalls having one or more openings aligned with respective inkjet printheads, wherein an exhaust opening is positioned opposite each printhead, the exhaust opening receiving ink droplets ejected into the coating chamber.
A method of manufacturing a vacuum insulated glazing (VIG) unit, the method comprising: depositing a coating material on at least a portion of a pillar core under conditions effective to provide a deposited coating material; annealing the deposited coating material at a reduced pressure and in an inert atmosphere to form a coating layer on the pillar core, thereby providing a coated pillar; disposing at least one of the coated pillar between first and second substantially parallel glass panes; disposing a peripheral seal material around a periphery of the first and the second glass panes to form a pre-sealed VIG unit; and heating the pre-sealed VIG unit under reduced pressure to form the peripheral seal and a sealed cavity between the first and second glass panes. depositing a coating material on at least a portion of a pillar core under conditions effective to provide a deposited coating material; annealing the deposited coating material at a reduced pressure and in an inert atmosphere to form a coating layer on the pillar core, thereby providing a coated pillar; disposing at least one of the coated pillar between first and second substantially parallel glass panes; disposing a peripheral seal material around a periphery of the first and the second glass panes to form a pre-sealed VIG unit; and heating the pre-sealed VIG unit under reduced pressure to form the peripheral seal and a sealed cavity between the first and second glass panes.