mhurhangee/patent-ind-claim-en huggingface dataset:
A method of printing with a printing system comprising: - a print surface (18a; 88); - a feed mechanism (42; 70) arranged for feeding a print substrate (60; 74) onto the print surface; - a sensor (62; 80) capable of detecting a height of an image receiving surface of the print substrate (60; 74) relative to the print surface (18a; 88); and - a print head (54; 86) disposed above the print surface for forming an image on the image receiving surface, the print head being adjustable in height relative to the print surface, characterized in that the following steps are performed at least at a start of a print run: a) if the height detected by the sensor (62; 80) is within a predetermined range, discarding the print substrate and feeding a new print substrate; and b) changing the height of the print head (54; 86) only on condition that an event in which a print substrate has been discarded in step (a) has occurred at least twice. - a print surface (18a; 88); - a feed mechanism (42; 70) arranged for feeding a print substrate (60; 74) onto the print surface; - a sensor (62; 80) capable of detecting a height of an image receiving surface of the print substrate (60; 74) relative to the print surface (18a; 88); and - a print head (54; 86) disposed above the print surface for forming an image on the image receiving surface, the print head being adjustable in height relative to the print surface, a) if the height detected by the sensor (62; 80) is within a predetermined range, discarding the print substrate and feeding a new print substrate; and b) changing the height of the print head (54; 86) only on condition that an event in which a print substrate has been discarded in step (a) has occurred at least twice.
A method for supporting, by a mobility management entity "MME", selected IP traffic offload "SIPTO" in case that a user equipment "UE" handovers from a source base station to a target base station in a mobile communication system, the method comprising: acquiring a local home network id of the source base station; acquiring a local home network id of the target base station from the target base station after a radio resource control "RRC" connection complete associated with the UE and the target base station ; and determining whether the UE has moved out of a local home network to which the source base station belongs and whether to select a new serving gateway "SGW" for the UE based on the local home network id of the source base station and the local home network id of the target base station , wherein in case that a handover for the UE is associated with the change of the MME, the local home network id of the target base station is acquired by a handover notify message from the target base station , and wherein in case that a handover for the UE is not associated with a change of the MME the local home network id of the target base station is acquired by a path switch request message from the target base station , wherein a bearer deactivation procedure is triggered after a handover completion in case that a correlation identifier for the SIPTO is included in a bearer setup message, and wherein the bearer deactivation procedure is triggered before the handover completion in case that the correlation identifier for the SIPTO is not included in the bearer setup message. acquiring a local home network id of the source base station; acquiring a local home network id of the target base station from the target base station after a radio resource control "RRC" connection complete associated with the UE and the target base station ; and determining whether the UE has moved out of a local home network to which the source base station belongs and whether to select a new serving gateway "SGW" for the UE based on the local home network id of the source base station and the local home network id of the target base station , wherein in case that a handover for the UE is associated with the change of the MME, the local home network id of the target base station is acquired by a handover notify message from the target base station , and wherein in case that a handover for the UE is not associated with a change of the MME the local home network id of the target base station is acquired by a path switch request message from the target base station , wherein a bearer deactivation procedure is triggered after a handover completion in case that a correlation identifier for the SIPTO is included in a bearer setup message, and wherein the bearer deactivation procedure is triggered before the handover completion in case that the correlation identifier for the SIPTO is not included in the bearer setup message.
A torque motor for use in a servovalve comprising: first and second pole pieces (20', 20"), first and second permanent magnets held between said pole pieces (20', 20"), an armature plate supported between said pole pieces (20', 20"); and first and second magnetic coils coupled to said armature ; wherein each of said first and second pole pieces (20', 20") have a "C-shaped" cross-section comprising a ring-shaped section extending in a first plane with first and second portions extending perpendicularly away from said plane and towards said armature ; and further wherein said perpendicularly extending portions (20c-20f) are detachable from and attachable to said ring-shaped section of said pole pieces (20', 20"); and characterised in that said detachable/attachable portions (20c-20f) comprise a protrusion having a first shape and said ring-shaped section comprises a cut-out section of a corresponding shape, for connecting said detachable/attachable portions to said ring-shaped section ; and wherein the protrusion and cut-out section are configured to allow the slotting of said protrusion into said cut-out section. first and second pole pieces (20', 20"), first and second permanent magnets held between said pole pieces (20', 20"), an armature plate supported between said pole pieces (20', 20"); and first and second magnetic coils coupled to said armature ; wherein each of said first and second pole pieces (20', 20") have a "C-shaped" cross-section comprising a ring-shaped section extending in a first plane with first and second portions extending perpendicularly away from said plane and towards said armature ; and further wherein said perpendicularly extending portions (20c-20f) are detachable from and attachable to said ring-shaped section of said pole pieces (20', 20"); and characterised in that said detachable/attachable portions (20c-20f) comprise a protrusion having a first shape and said ring-shaped section comprises a cut-out section of a corresponding shape, for connecting said detachable/attachable portions to said ring-shaped section ; and wherein the protrusion and cut-out section are configured to allow the slotting of said protrusion into said cut-out section.
Application system (1, 17; 21, 27) for two-component materials, comprising a moisture-reactive composition accommodated in a first packaging unit, a curing agent component accommodated in a second packaging unit, and a dynamic mixer (17; 27) designed to be inserted into an applicator and to be driven by the latter, characterized in that the first packaging unit is a tubular pouch and the second packaging unit is a rigid-walled cartridge.
An infrared Fourier transform spectrometer, comprising: an optical structure configured to split received light into two paths; two mirrors for reflecting the light in the two paths, wherein at least one mirror is movable to perform a scan; the optical structure being further configured to combine the light reflected by the mirrors , the optical structure forming two outputs ; at least one detector , comprising pixels, at one of the two outputs , for detecting the light flux at the output, and characterised by at least one color filter mosaic interposed between said one of the two outputs of the optical structure and the at least one detector , wherein the color filter mosaic comprises filters of at least two different color passbands. an optical structure configured to split received light into two paths; two mirrors for reflecting the light in the two paths, wherein at least one mirror is movable to perform a scan; the optical structure being further configured to combine the light reflected by the mirrors , the optical structure forming two outputs ; at least one detector , comprising pixels, at one of the two outputs , for detecting the light flux at the output, and characterised by at least one color filter mosaic interposed between said one of the two outputs of the optical structure and the at least one detector , wherein the color filter mosaic comprises filters of at least two different color passbands.
Method for cleaning a print head of a continuous ink jet printer, said print head comprising: * a cavity for the circulation of jets, * means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet in said cavity , * means , for sorting drops or segments of one or several of said jets intended for printing from drops or segments that are not used for printing; * at least one spraying nozzle , arranged in said cavity, said at least one spraying nozzle being different from said means (4, 4 1 , 4 x , 4 n ) for producing at least one inkjet, * an outlet slot , open onto the exterior of the cavity and allowing the exiting of the drops or segment of ink intended for printing, * at least one gutter for recovering drops or segments not intended for printing, said method comprising : - supplying said spraying nozzle with cleaning fluid, and - projecting several pulses of a cleaning fluid by said spraying nozzle into the cavity and towards at least : * the means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet in said cavity ; *and/or the gutter for recovering; *and/or said means for sorting drops or segments. * a cavity for the circulation of jets, * means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet in said cavity , * means , for sorting drops or segments of one or several of said jets intended for printing from drops or segments that are not used for printing; * at least one spraying nozzle , arranged in said cavity, said at least one spraying nozzle being different from said means (4, 4 1 , 4 x , 4 n ) for producing at least one inkjet, * an outlet slot , open onto the exterior of the cavity and allowing the exiting of the drops or segment of ink intended for printing, * at least one gutter for recovering drops or segments not intended for printing, - supplying said spraying nozzle with cleaning fluid, and - projecting several pulses of a cleaning fluid by said spraying nozzle into the cavity and towards at least : * the means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet in said cavity ; *and/or the gutter for recovering; *and/or said means for sorting drops or segments. * the means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet in said cavity ; *and/or the gutter for recovering; *and/or said means for sorting drops or segments.
Laundry treatment machine , in particular in the form of a washing machine, having a housing and an outer tub arranged therein for receiving a process liquid, a drum , which is arranged in the outer tub and can be rotated about an axis of rotation , having an interior space for receiving items of laundry which are to be treated with the process liquid, which drum has an approximately cylindrical, perforated casing , which casing forms a gap with the outer tub , an inlet arrangement for admitting the process liquid into the outer tub , which has a first injector for introducing process liquid directly into the interior space , and an outlet arrangement for letting the process liquid out of the outer tub , characterised by a collection arrangement attached to the outer tub and protruding into the gap for collecting a liquid film which flows toward the outer tub in an approximately tangential direction of flow, a drainage channel connected to the collection arrangement for discharging process liquid collected by the collection arrangement and a second injector connected to the discharge channel for introducing the discharged process liquid into the interior space .
A system for controlling a laser projector , comprising: a first drive circuit , coupled to the laser projector; an application processor or a microprocessor, coupled to the first drive circuit; and a watchdog timer , coupled to the application processor or the microprocessor and the first drive circuit respectively, wherein the first drive circuit is configured to output an electrical signal to drive the laser projector to project laser light, and to send a timeout signal to the application processor or the microprocessor when a duration of outputting the electrical signal is greater than or equal to a preset threshold; the application processor or the microprocessor is configured to stop sending a predetermined signal to the watchdog timer in response to receiving the timeout signal; and the watchdog timer is configured to control the first drive circuit to stop sending the electronic signal to the laser projector to turn off the laser projector when the predetermined signal is not received by the watchdog timer within a preset time period. a first drive circuit , coupled to the laser projector; an application processor or a microprocessor, coupled to the first drive circuit; and a watchdog timer , coupled to the application processor or the microprocessor and the first drive circuit respectively, wherein the first drive circuit is configured to output an electrical signal to drive the laser projector to project laser light, and to send a timeout signal to the application processor or the microprocessor when a duration of outputting the electrical signal is greater than or equal to a preset threshold; the application processor or the microprocessor is configured to stop sending a predetermined signal to the watchdog timer in response to receiving the timeout signal; and the watchdog timer is configured to control the first drive circuit to stop sending the electronic signal to the laser projector to turn off the laser projector when the predetermined signal is not received by the watchdog timer within a preset time period.
A decoloring device comprising: a reading unit configured to read control information from a first image formed in a predetermined area of a sheet; a decoloring unit configured to decolor a portion or entirety of a second image, different from the first image, formed on the sheet using a decolorable recording material; characterised by a control unit configured to control erasing of the data of the second image from a storage device, based on the control information, in a case where the decoloring unit decolors the second image. a reading unit configured to read control information from a first image formed in a predetermined area of a sheet; a decoloring unit configured to decolor a portion or entirety of a second image, different from the first image, formed on the sheet using a decolorable recording material; characterised by a control unit configured to control erasing of the data of the second image from a storage device, based on the control information, in a case where the decoloring unit decolors the second image.
An implantable delivery device for delivery of a bioactive agent to a subject, the device comprising: a plurality of nanostructures fabricated on a surface of the implantable delivery device; a bioactive agent within or on the implantable delivery device, wherein at least a portion of the nanostructures have a center-to-center spacing of from 50 nanometers to 1 micrometer, a height of from 10 nanometers to 1 micrometer, and a cross-sectional dimension between 5 nanometers and 500 nanometers; wherein the nanostructures are arranged in a complex nanotopography having a fractal pattern, and the pattern further includes microstructures, wherein the nanostructures have a cross-sectional dimension smaller than the microstructures, and at least a portion of the microstructures have a cross-sectional dimension of between 500 nanometers and 10 micrometers and a height of between 10 nanometers and 1 micrometer; and wherein the pattern has a fractal dimension of greater than 1, and the surface is an external surface of the device. a plurality of nanostructures fabricated on a surface of the implantable delivery device; a bioactive agent within or on the implantable delivery device, wherein at least a portion of the nanostructures have a center-to-center spacing of from 50 nanometers to 1 micrometer, a height of from 10 nanometers to 1 micrometer, and a cross-sectional dimension between 5 nanometers and 500 nanometers; wherein the nanostructures are arranged in a complex nanotopography having a fractal pattern, and the pattern further includes microstructures, wherein the nanostructures have a cross-sectional dimension smaller than the microstructures, and at least a portion of the microstructures have a cross-sectional dimension of between 500 nanometers and 10 micrometers and a height of between 10 nanometers and 1 micrometer; and wherein the pattern has a fractal dimension of greater than 1, and the surface is an external surface of the device.
A server device configured to: maintain a terminal session with a client device for the client device to emulate at least a portion of a display presented at the server device during said terminal session , said portion of the display presented at the server device being configured to display a plurality of user interface layers (Layer 1, Layer 2); receive an indication that a user interface layer is not to be rendered at the client device based on a current context or rules governing the rendering options with respect to user interface layers; identify said user interface layer of the at least a portion of the display presented at the server device which, based on said indication, is not to be rendered at the client device; and determine a response to a user input provided at the client device based on whether the user input relates to the non-rendered user interface layer identified by the server device, the response comprising causing the server device to re-direct a user input received in connection with a portion of the client device that corresponds to the user interface layer that is not rendered at the client device such that the user input is applied to a different user interface layer of the emulated portion of the display. maintain a terminal session with a client device for the client device to emulate at least a portion of a display presented at the server device during said terminal session , said portion of the display presented at the server device being configured to display a plurality of user interface layers (Layer 1, Layer 2); receive an indication that a user interface layer is not to be rendered at the client device based on a current context or rules governing the rendering options with respect to user interface layers; identify said user interface layer of the at least a portion of the display presented at the server device which, based on said indication, is not to be rendered at the client device; and determine a response to a user input provided at the client device based on whether the user input relates to the non-rendered user interface layer identified by the server device, the response comprising causing the server device to re-direct a user input received in connection with a portion of the client device that corresponds to the user interface layer that is not rendered at the client device such that the user input is applied to a different user interface layer of the emulated portion of the display.
Method for haptic signal generation for a rider of a two-wheeled vehicle , wherein the two-wheeled vehicle has a handlebar , comprising the method steps of • determining information for the rider, in particular a navigation and/or a warning message, • generating at least one generatable mechanical right-hand-side vibration on a right-hand-side handlebar grip of the handlebar and/or a generatable mechanical left-hand-side vibration on a left-hand-side handlebar grip of the handlebar depending on the determined information, wherein the generatable right-hand-side vibration and the generatable left-hand-side vibration have at least a different specified vibration frequency, and • adapting the specified vibration frequency of the right-hand-side vibration and/or the left-hand-side vibration depending on the determined information, characterized in that adapting the specified vibration frequency adapts a position (x1, x2, x3) of a maximum amplitude of the right-hand-side vibration and/or the left-hand-side vibration along a respective main direction of extent of the respective handlebar grip . • determining information for the rider, in particular a navigation and/or a warning message, • generating at least one generatable mechanical right-hand-side vibration on a right-hand-side handlebar grip of the handlebar and/or a generatable mechanical left-hand-side vibration on a left-hand-side handlebar grip of the handlebar depending on the determined information, wherein the generatable right-hand-side vibration and the generatable left-hand-side vibration have at least a different specified vibration frequency, and • adapting the specified vibration frequency of the right-hand-side vibration and/or the left-hand-side vibration depending on the determined information, characterized in that
A carbon support material for an electrode, the carbon support material having a specific surface area (BET) of 300 m 2 /g to 500 m 2 /g and a micropore area of 25 m 2 /g to 50 m 2 /g; wherein the carbon support material loses 20 % or less of its mass in an accelerated test involving a 1.2 V potential hold over a 24 hour period at 80°C.
A method for making a semiconductor device comprising: forming a plurality of spaced apart shallow trench isolation (STI) regions in a substrate ; forming a dummy gate on the substrate between a pair of the STI regions ; forming source and drain regions in the substrate on opposing sides of the dummy gate and between the pair of STI regions ; forming a dielectric layer on the substrate, the dielectric layer surrounding the dummy gate and overlying: the source and drain regions and the pair of STI regions ; removing the dummy gate and portions of the substrate beneath the dummy gate to define a channel recess in the substrate between the source and drain regions ; forming a superlattice channel in the channel recess including a plurality of stacked groups of layers (45a-45n), each group of layers of the superlattice channel comprising a plurality of stacked base semiconductor monolayers defining a base semiconductor portion (46a-46n) and at least one non-semiconductor monolayer constrained within a crystal lattice of adjacent base semiconductor portions (46a-46n); forming a replacement gate over the superlattice channel and removing the dielectric layer ; and forming source and drain contacts on the source and drain regions after removing the dielectric layer . forming a plurality of spaced apart shallow trench isolation (STI) regions in a substrate ; forming a dummy gate on the substrate between a pair of the STI regions ; forming source and drain regions in the substrate on opposing sides of the dummy gate and between the pair of STI regions ; forming a dielectric layer on the substrate, the dielectric layer surrounding the dummy gate and overlying: the source and drain regions and the pair of STI regions ; removing the dummy gate and portions of the substrate beneath the dummy gate to define a channel recess in the substrate between the source and drain regions ; forming a superlattice channel in the channel recess including a plurality of stacked groups of layers (45a-45n), each group of layers of the superlattice channel comprising a plurality of stacked base semiconductor monolayers defining a base semiconductor portion (46a-46n) and at least one non-semiconductor monolayer constrained within a crystal lattice of adjacent base semiconductor portions (46a-46n); forming a replacement gate over the superlattice channel and removing the dielectric layer ; and forming source and drain contacts on the source and drain regions after removing the dielectric layer .