mhurhangee/patent-ind-claim-en huggingface dataset:
A laminated display module, comprising: a cover layer , a thin film packaging layer , a display layer , and a support membrane layer that are sequentially covered through lamination from top to bottom, wherein the cover layer comprises a planar region and two curved surface regions along a longitudinal direction, the two curved surface regions are respectively located on two sides of the planar region , wherein each curved surface region comprises one bending region , and each bending region is projected onto the support membrane layer to form a projection region ; and the support membrane layer comprises a main support region and two side support regions along a longitudinal direction, and a gap is provided between each of the side support regions and the main support region , wherein a width of the respective gap is equal to a width of a projection region on a same side, and the gaps are completely excavated, such that the main support region and the two side support regions are completely separated from each other by the gaps. a cover layer , a thin film packaging layer , a display layer , and a support membrane layer that are sequentially covered through lamination from top to bottom, wherein the cover layer comprises a planar region and two curved surface regions along a longitudinal direction, the two curved surface regions are respectively located on two sides of the planar region , wherein each curved surface region comprises one bending region , and each bending region is projected onto the support membrane layer to form a projection region ; and the support membrane layer comprises a main support region and two side support regions along a longitudinal direction, and a gap is provided between each of the side support regions and the main support region , wherein a width of the respective gap is equal to a width of a projection region on a same side, and the gaps are completely excavated, such that the main support region and the two side support regions are completely separated from each other by the gaps.
Roofing tile press for producing a pressed shaped article from a plastic blank , comprising a pressing plunger with an upper mould and a movement device , on which a lower mould for the accommodation of the blank to be pressed is located, wherein the roofing tile press comprises processing stations for processing the blank and the shaped article , wherein the processing stations comprise at least one pressing station for pressing the blank between the upper mould and the lower mould and a removal station for removing the pressed shaped article from the lower mould , wherein the movement device moves the lower mould cyclically in a movement direction from one processing station to the next, wherein the removal station defines the starting point of a cycle, wherein the roofing tile press comprises a fault sensor for detecting a content of the lower mould , characterised in that the fault sensor is located downstream of the removal station and upstream of the pressing station with reference to a cycle of the movement device in the movement direction .
A unit comprising an autonomous implantable capsule and a tool for guiding and anchoring the capsule to an implantation site , wherein: the capsule comprises a tubular body provided at its distal end with an anchoring member adapted to enter a tissue of an organ wall, and at its proximal end with a coupling member adapted to cooperate with a conjugated coupling member of the tool; the tool comprises a catheter provided at its distal end with said conjugated coupling member ; the coupling member of the capsule and the conjugated coupling member of the tool having complementary respective shapes (54, 56, 58, 60 ; 36, 38, 40) adapted to allow the transmission of a torque rotationally driving the capsule by the catheter; the unit further comprising a junction means adapted to selectively produce in axial direction an effort for mutually moving closer and urging the coupling member of the capsule against the conjugated coupling member of the tool, for making the capsule rotationally and translationally integral with the catheter , then uncoupling the capsule from the catheter by relieving said effort, said unit being characterized in that : the shape of the conjugated coupling member of the tool comprises on the distal side, in axial cross-section, a recess turned towards the rear of the capsule, with a V-shape comprising two diverging, inclined faces , and the shape of the coupling member of the capsule comprises at its proximal end a convex surface adapted to frictionally and slidingly urge against the diverging, inclined faces of the V-shape . the capsule comprises a tubular body provided at its distal end with an anchoring member adapted to enter a tissue of an organ wall, and at its proximal end with a coupling member adapted to cooperate with a conjugated coupling member of the tool; the tool comprises a catheter provided at its distal end with said conjugated coupling member ; the coupling member of the capsule and the conjugated coupling member of the tool having complementary respective shapes (54, 56, 58, 60 ; 36, 38, 40) adapted to allow the transmission of a torque rotationally driving the capsule by the catheter; the unit further comprising a junction means adapted to selectively produce in axial direction an effort for mutually moving closer and urging the coupling member of the capsule against the conjugated coupling member of the tool, for making the capsule rotationally and translationally integral with the catheter , then uncoupling the capsule from the catheter by relieving said effort, the shape of the conjugated coupling member of the tool comprises on the distal side, in axial cross-section, a recess turned towards the rear of the capsule, with a V-shape comprising two diverging, inclined faces , and the shape of the coupling member of the capsule comprises at its proximal end a convex surface adapted to frictionally and slidingly urge against the diverging, inclined faces of the V-shape .
An apparatus for security management, characterized in that the apparatus comprising means for performing: providing a correlation as a Service, CORRaaS, to one or more tenants as one or more virtualized security appliances or virtualized security functions for one or more of tenants' slices, generating a second interface for allowing the one or more tenants to configure the correlation as a Service, CORRaaS, and correlating and processing one or more security events from the one or more virtualized security functions in the one or more tenants' slices to form processed security event data, and to detect or predict one or more attacks or anomalies or incompliance with one or more security requirements covered in service level agreements enforced between the apparatus and the one or more tenants; defining a third interface for transferring the processed security event data and/or log data and/or raw data to one or more security management systems of the one or more tenants and/or to one or more security management systems of one or more cloud service providers; and defining a fourth interface towards a cloud manager of the one or more cloud service providers for causing the cloud manager to mitigate the one or more detected or predicted attacks or anomalies or incompliance with the one or more security requirements. providing a correlation as a Service, CORRaaS, to one or more tenants as one or more virtualized security appliances or virtualized security functions for one or more of tenants' slices, generating a second interface for allowing the one or more tenants to configure the correlation as a Service, CORRaaS, and correlating and processing one or more security events from the one or more virtualized security functions in the one or more tenants' slices to form processed security event data, and to detect or predict one or more attacks or anomalies or incompliance with one or more security requirements covered in service level agreements enforced between the apparatus and the one or more tenants; defining a third interface for transferring the processed security event data and/or log data and/or raw data to one or more security management systems of the one or more tenants and/or to one or more security management systems of one or more cloud service providers; and defining a fourth interface towards a cloud manager of the one or more cloud service providers for causing the cloud manager to mitigate the one or more detected or predicted attacks or anomalies or incompliance with the one or more security requirements.
Method for manufacturing a device for controlling a temperature of a room , with - a plurality of elongated heat transfer profiles arranged with their longitudinal axes parallel to one another and - at least one pipe system for conducting a flowing heat transfer medium, - wherein exactly one pipe section is associated with each heat transfer profile , wherein the pipe section is arranged on a side of the heat transfer profile that faces a ceiling of the room , characterized by the following method steps: i) the heat transfer profiles are respectively rolled from a metal sheet that is perforated at least in areas, ii) pipe sections are compressed so that they are D-shaped in cross-section, and iii) the pipe sections are respectively pressed or glued onto the associated heat transfer profile by means of a contact profile , wherein the pipe sections are arranged between the respective contact profile and the respective heat transfer profile . - a plurality of elongated heat transfer profiles arranged with their longitudinal axes parallel to one another and - at least one pipe system for conducting a flowing heat transfer medium, - wherein exactly one pipe section is associated with each heat transfer profile , wherein the pipe section is arranged on a side of the heat transfer profile that faces a ceiling of the room , characterized by the following method steps: i) the heat transfer profiles are respectively rolled from a metal sheet that is perforated at least in areas, ii) pipe sections are compressed so that they are D-shaped in cross-section, and iii) the pipe sections are respectively pressed or glued onto the associated heat transfer profile by means of a contact profile , wherein the pipe sections are arranged between the respective contact profile and the respective heat transfer profile . i) the heat transfer profiles are respectively rolled from a metal sheet that is perforated at least in areas, ii) pipe sections are compressed so that they are D-shaped in cross-section, and iii) the pipe sections are respectively pressed or glued onto the associated heat transfer profile by means of a contact profile , wherein the pipe sections are arranged between the respective contact profile and the respective heat transfer profile .
A method of maintaining Session Initiation Protocol, SIP, registration in a SIP network for a SIP User Agent resident on a client device via a push gateway, the SIP User Agent having registered with a Push Provider to receive Push Notifications via an Operating System of the client device, the method comprising: notifying (S1) the push gateway, present in a SIP path between the SIP User Agent and the SIP network, that the SIP User Agent is registered with the Push Provider, the push gateway having an interface to a push server of the Push Provider; performing (S2) initial SIP registration of the SIP User Agent with the SIP network via a SIP connection extending through the push gateway; at the client device, subsequent to said initial SIP registration, taking a decision to switch the SIP User Agent from a foreground mode to a suspended/background mode and, prior to implementing said switch, causing the SIP User Agent to send a notification to the push gateway via the SIP connection in order to alert the push gateway about the switch and to cause the push gateway to maintain a corresponding re-registration timer; thereafter (S3) maintaining the re-registration timer at the push gateway and, upon or prior to expiry of the timer, sending (S5) a push notification identifying a re-registration event from the push gateway to the client device via the push server; receiving (S6) the push notification at the client device, passing the event notification to the SIP User Agent, and performing (S7) re-registration of the SIP User Agent with the SIP network via a SIP connection extending through the push gateway. notifying (S1) the push gateway, present in a SIP path between the SIP User Agent and the SIP network, that the SIP User Agent is registered with the Push Provider, the push gateway having an interface to a push server of the Push Provider; performing (S2) initial SIP registration of the SIP User Agent with the SIP network via a SIP connection extending through the push gateway; at the client device, subsequent to said initial SIP registration, taking a decision to switch the SIP User Agent from a foreground mode to a suspended/background mode and, prior to implementing said switch, causing the SIP User Agent to send a notification to the push gateway via the SIP connection in order to alert the push gateway about the switch and to cause the push gateway to maintain a corresponding re-registration timer; thereafter (S3) maintaining the re-registration timer at the push gateway and, upon or prior to expiry of the timer, sending (S5) a push notification identifying a re-registration event from the push gateway to the client device via the push server; receiving (S6) the push notification at the client device, passing the event notification to the SIP User Agent, and performing (S7) re-registration of the SIP User Agent with the SIP network via a SIP connection extending through the push gateway.
A multilayered composite tube having a heat transfer coefficient of > 500 W/m 2 /K comprising at least two layers which in its construction over the cross section of the wall of the composite tube comprises as an inner layer a zero-open-porosity monolithic oxide ceramic surrounded by an outer layer of oxidic fiber composite ceramic, wherein this outer layer has an open porosity ε of 5% < ε < 50 %, preferably 10% < ε < 30 %, wherein in the outer annular space of the multilayered composite tube whose confines are defined on the one hand by the outer lateral surface of the inner layer formed from the zero-open-porosity monolithic oxide ceramic and on the other hand by the outer lateral surface of the outer layer formed from an oxidic fiber composite ceramic, wherein an electrically conductive system is integrated.
A waveguide , comprising: a conductor ; a cross section of the conductor having a recess with dielectric material filled inside the recess; and a cross section of the recess having an open end and a short-circuited end established by the conductor; wherein a depth of the recess , having the dielectric material, corresponds to substantially at least a quarter of a wavelength of a signal guided along the waveguide, wherein the dielectric material has a relative permittivity of 10 or larger. a conductor ; a cross section of the conductor having a recess with dielectric material filled inside the recess; and a cross section of the recess having an open end and a short-circuited end established by the conductor; wherein a depth of the recess , having the dielectric material, corresponds to substantially at least a quarter of a wavelength of a signal guided along the waveguide, wherein the dielectric material has a relative permittivity of 10 or larger.
A method, comprising: using a first handler located in a first transfer chamber operably coupled to an infeed end of a printing module , moving a substrate from a first load lock chamber to a first buffer chamber , the first buffer chamber configured to store a first plurality of substrates; using the first handler, moving one of the first plurality of substrates from the first buffer chamber to the printing module; while supporting the one of the first plurality of substrates using a gas bearing, conveying the one of the first plurality of substrates from the infeed end of the printing module to a location to be printed by a printhead assembly of the printing module; and depositing, by the printhead assembly, a material onto a surface of the one of the first plurality of substrates. using a first handler located in a first transfer chamber operably coupled to an infeed end of a printing module , moving a substrate from a first load lock chamber to a first buffer chamber , the first buffer chamber configured to store a first plurality of substrates; using the first handler, moving one of the first plurality of substrates from the first buffer chamber to the printing module; while supporting the one of the first plurality of substrates using a gas bearing, conveying the one of the first plurality of substrates from the infeed end of the printing module to a location to be printed by a printhead assembly of the printing module; and depositing, by the printhead assembly, a material onto a surface of the one of the first plurality of substrates.
Method for displaying an image on an active matrix organic light emitting display (AMOLED) comprising a plurality of cells , characterized in that - a data signal is applied to each cell for displaying a first brightness level of a pixel of the image during a first group of analog sub-frames (SFO to SF5) and for displaying at least a second brightness level of a pixel of the image during at least a second group of analog sub-frames (SF'0 to SF'5), - the first group of analog sub-frames and the at least second group of analog sub-frames are constituting a video frame(N), - each group of analog sub-frames is divided into a plurality of analog sub-frames (SFO to SF5, SF'0 to SF'5) having variable amplitude within the group of analog sub-frames - each of the first group of analog sub-frames and the second group of analog sub-frames are belonging to a separate complete image on the display , and - the data signal of a cell comprises plural independent elementary data signals, each of said elementary data signals being applied to the cell during an analog sub-frame and the brightness level displayed by the cell during the respective group of analog sub-frames depending on the amplitude of the elementary data signals and the duration (D0 to D5) of the analog sub-frames to reduce large-area flickering when performing pulsing grayscale rendition while keeping the advantage of the motion rendition. - a data signal is applied to each cell for displaying a first brightness level of a pixel of the image during a first group of analog sub-frames (SFO to SF5) and for displaying at least a second brightness level of a pixel of the image during at least a second group of analog sub-frames (SF'0 to SF'5), - the first group of analog sub-frames and the at least second group of analog sub-frames are constituting a video frame(N), - each group of analog sub-frames is divided into a plurality of analog sub-frames (SFO to SF5, SF'0 to SF'5) having variable amplitude within the group of analog sub-frames - each of the first group of analog sub-frames and the second group of analog sub-frames are belonging to a separate complete image on the display , and - the data signal of a cell comprises plural independent elementary data signals, each of said elementary data signals being applied to the cell during an analog sub-frame and the brightness level displayed by the cell during the respective group of analog sub-frames depending on the amplitude of the elementary data signals and the duration (D0 to D5) of the analog sub-frames to reduce large-area flickering when performing pulsing grayscale rendition while keeping the advantage of the motion rendition.
A method for separating nitrate from sulfate and selenate in a primary aqueous solution, comprising: contacting the primary aqueous solution with an initial organic phase composition in a primary stage to form a first mixture having a pH of 2 to 10, wherein the initial organic phase composition comprises a quaternary amine and a weak organic acid having a pKa in water in a range of 8 to 12; separating the first mixture to obtain a nitrate-depleted and selenate-rich raffinate and a nitrate-containing organic phase; contacting the nitrate-containing organic phase with a first basic aqueous solution having a pH of 8 to 10 in a secondary stage to form a second mixture, wherein the pH of the second mixture is higher than the pH of the first mixture; separating the second mixture to remove sulfate present in the nitrate-containing organic phase, and obtain a sulfate-containing aqueous scrub solution and a nitrate-rich organic phase; contacting the nitrate-rich organic phase with a second basic aqueous solution having a pH of 11 to 14 in a tertiary stage to form a third mixture, wherein the pH of the third mixture is higher than the pH of the second mixture; and separating the third mixture to obtain a nitrate-rich aqueous strip solution and a secondary organic phase composition. contacting the primary aqueous solution with an initial organic phase composition in a primary stage to form a first mixture having a pH of 2 to 10, wherein the initial organic phase composition comprises a quaternary amine and a weak organic acid having a pKa in water in a range of 8 to 12; separating the first mixture to obtain a nitrate-depleted and selenate-rich raffinate and a nitrate-containing organic phase; contacting the nitrate-containing organic phase with a first basic aqueous solution having a pH of 8 to 10 in a secondary stage to form a second mixture, wherein the pH of the second mixture is higher than the pH of the first mixture; separating the second mixture to remove sulfate present in the nitrate-containing organic phase, and obtain a sulfate-containing aqueous scrub solution and a nitrate-rich organic phase; contacting the nitrate-rich organic phase with a second basic aqueous solution having a pH of 11 to 14 in a tertiary stage to form a third mixture, wherein the pH of the third mixture is higher than the pH of the second mixture; and separating the third mixture to obtain a nitrate-rich aqueous strip solution and a secondary organic phase composition.
A method of forming an electrocrushing drilling fluid comprising: adding a non-polar oil to an electrocrushing drilling base fluid to form a first intermediate electrocrushing drilling fluid, wherein the electrocrushing drilling base fluid comprises an alkylene carbonate and a polar oil; adding water to the first intermediate electrocrushing drilling fluid to form a second intermediate electrocrushing drilling fluid; and adding glycerin to the second intermediate electrocrushing drilling fluid to form an electrocrushing drilling fluid. adding a non-polar oil to an electrocrushing drilling base fluid to form a first intermediate electrocrushing drilling fluid, wherein the electrocrushing drilling base fluid comprises an alkylene carbonate and a polar oil; adding water to the first intermediate electrocrushing drilling fluid to form a second intermediate electrocrushing drilling fluid; and adding glycerin to the second intermediate electrocrushing drilling fluid to form an electrocrushing drilling fluid.
Sheet-like textile product , characterized by a plurality of coating elements which are arranged on a surface of a textile support layer of the sheet-like product in such a way that only part of the abovementioned surface of the support layer is covered by the coating elements, where the textile support layer has been hydrophobated, in particular impregnated, and where the coating elements consist of a material which is a mixture of a polymer material, preferably a prepolymer which can be crosslinked to give a thermoset, and a filler in the form of inorganic and/or metallic particles , wherein the proportion of the filler based on the coating material is between 5 and 40% by volume and where the particle size of the filler is between 15 and 1000 μm.