mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising a window (W) and a display (D), selectively comprising a touch screen (T), and comprising micro protrusions for attachment and detachment control, the display device comprising: an attachment and detachment layer positioned in any one of the window, the touch screen, and the display and having adhesive strength of 0.1 × 0,00980664999999998 N/25 mm to 500 × 0,00980664999999998 N/25 mm; and an attachment and detachment control layer positioned to face the attachment and detachment layer in any one of the window, the touch screen, and the display and having micro protrusions formed therein, characterized in that : the attachment and detachment control layer includes an attachment and detachment control pattern , the attachment and detachment control pattern being divided into a flat part (e) not having the micro protrusions and an uneven part (f) having the micro protrusions and having a stripe form, a lattice form, a fence form, or a combination of a stripe form, a lattice form, and a fence form, wherein the uneven part (f) of the attachment and detachment control pattern has different binding power with the attachment and detachment layer compared to the flat part (e) so that the attachment and detachment control an attachment and detachment layer positioned in any one of the window, the touch screen, and the display and having adhesive strength of 0.1 × 0,00980664999999998 N/25 mm to 500 × 0,00980664999999998 N/25 mm; and an attachment and detachment control layer positioned to face the attachment and detachment layer in any one of the window, the touch screen, and the display and having micro protrusions formed therein, characterized in that : the attachment and detachment control layer includes an attachment and detachment control pattern , the attachment and detachment control pattern being divided into a flat part (e) not having the micro protrusions and an uneven part (f) having the micro protrusions and having a stripe form, a lattice form, a fence form, or a combination of a stripe form, a lattice form, and a fence form, wherein the uneven part (f) of the attachment and detachment control pattern has different binding power with the attachment and detachment layer compared to the flat part (e) so that the attachment and detachment control the attachment and detachment control layer includes an attachment and detachment control pattern , the attachment and detachment control pattern being divided into a flat part (e) not having the micro protrusions and an uneven part (f) having the micro protrusions and having a stripe form, a lattice form, a fence form, or a combination of a stripe form, a lattice form, and a fence form, wherein the uneven part (f) of the attachment and detachment control pattern has different binding power with the attachment and detachment layer compared to the flat part (e) so that the attachment and detachment control
A hemodialysis machine comprising: a removable, mountable disposable cartridge , a fluid pathway for delivering a dialysate solution, wherein the fluid pathway comprises a pre-dialysis pathway and a post-dialysis pathway ; and wherein the cartridge defines the fluid pathway; a dialyser for dialysing patient's blood using the dialysate solution, the dialyser connected between the pre-dialysis pathway and the post-dialysis pathway ; a first sensor system configured to sense a characteristic of the dialysate solution at a first location on the pre-dialysis pathway ; a second sensor system configured to sense a characteristic of the dialysate solution at a second location on the post-dialysis pathway , wherein the first sensor system comprises a first sensor cell located on the cartridge and the second sensor system comprises a second sensor cell located on the cartridge; and wherein each sensor cell comprises a window formed in the cartridge; a control system configured to make a comparative analysis of the measurements taken by the first sensor and the second sensor for monitoring the composition of the dialysate solution. a removable, mountable disposable cartridge , a fluid pathway for delivering a dialysate solution, wherein the fluid pathway comprises a pre-dialysis pathway and a post-dialysis pathway ; and wherein the cartridge defines the fluid pathway;
Method for determining an axle load on a mechanically and/or pneumatically or hydraulically suspended vehicle, the axle load being determined by means of control means and sensor means provided for an electronically controlled pneumatic or hydraulic level control system , these control and sensor means being installed and/or functionally expanded in the vehicle in such a way that, in addition to a level control or instead of a level control, functions are available for axle load determination on mechanically suspended vehicle axles and for axle load determination on pneumatically or hydraulically suspended vehicle axles , the axle load determination taking place on a mechanically suspended vehicle axle by means of a distance measuring device , the axle load determination taking place on a pneumatically or hydraulically suspended vehicle axle by means of a pressure measuring device , characterized in that a plausibility check implemented in an electronic control unit of the level control system is initially carried out, on the basis of which the level control system detects the particular suspension type, mechanical or pneumatic or hydraulic, of a vehicle axle , and the corresponding function for determining the axle load is activated.
A method for providing a visual aid to guide a driver of a vehicle when executing a test cycle that includes a time-based portion and a distance-based portion , the method comprising controlling an electronic display to: display a graph including a target trace indicating a target speed of the vehicle during the test cycle and a first visual indicator of an actual speed of the vehicle during the test cycle; and scroll the target trace from a first side of the graph to a second side of the graph during the time-based portion of the test cycle to indicate the target vehicle speed with respect to an amount of time elapsed since a start of the test cycle; and the method is characterised by further comprising: scroll the target trace from the first side of the graph to the second side of the graph during the distance-based portion of the test cycle to indicate the target vehicle speed with respect to a distance travelled by the vehicle during the test cycle. display a graph including a target trace indicating a target speed of the vehicle during the test cycle and a first visual indicator of an actual speed of the vehicle during the test cycle; and scroll the target trace from a first side of the graph to a second side of the graph during the time-based portion of the test cycle to indicate the target vehicle speed with respect to an amount of time elapsed since a start of the test cycle; and the method is characterised by further comprising: scroll the target trace from the first side of the graph to the second side of the graph during the distance-based portion of the test cycle to indicate the target vehicle speed with respect to a distance travelled by the vehicle during the test cycle.
A conductor unit comprising: a plurality of conductors each including a conducting portion covered with an insulating coating ; an annular core made of magnetic material that includes a first core constituent portion and a second core constituent portion combined with the first core constituent portion , and that interposes the conductors between the first core constituent portion and the second core constituent portion ; and a holding member that makes the first core constituent portion and the second core constituent portion press and hold the conductors therebetween, charactered in that the holding member is an adhesive member that bonds the first core constituent portion and the second core constituent portion together, wherein the adhesive member is interposed between the first core constituent portion and the second core constituent portion in a circumferential direction of the core , and contains a magnetic material. a plurality of conductors each including a conducting portion covered with an insulating coating ; an annular core made of magnetic material that includes a first core constituent portion and a second core constituent portion combined with the first core constituent portion , and that interposes the conductors between the first core constituent portion and the second core constituent portion ; and a holding member that makes the first core constituent portion and the second core constituent portion press and hold the conductors therebetween, charactered in that the holding member is an adhesive member that bonds the first core constituent portion and the second core constituent portion together, wherein the adhesive member is interposed between the first core constituent portion and the second core constituent portion in a circumferential direction of the core , and contains a magnetic material.
A control device for controlling power delivered to an electrical load, the control device comprising: a faceplate having an opening defined between sidewalls of the faceplate ; a button received in the opening of the faceplate , wherein a gap is formed between the button and the opening of the faceplate , the button comprising: a cap portion ; and a diffuser portion , wherein the diffuser portion is arranged in the opening and extends laterally beyond the cap portion within the opening ; at least one light source located inside of the control device and configured to provide light to the diffuser portion of the button to illuminate the gap between the button and the opening of the faceplate ; and a control circuit configured to cause the power delivered to the electrical load to be adjusted in response to an actuation of the button . a faceplate having an opening defined between sidewalls of the faceplate ; a button received in the opening of the faceplate , wherein a gap is formed between the button and the opening of the faceplate , the button comprising: a cap portion ; and a diffuser portion , wherein the diffuser portion is arranged in the opening and extends laterally beyond the cap portion within the opening ; a cap portion ; and a diffuser portion , wherein the diffuser portion is arranged in the opening and extends laterally beyond the cap portion within the opening ; at least one light source located inside of the control device and configured to provide light to the diffuser portion of the button to illuminate the gap between the button and the opening of the faceplate ; and a control circuit configured to cause the power delivered to the electrical load to be adjusted in response to an actuation of the button .
A method for differentiating between live and inactivated bacteria in a treated sample comprising: staining the sample with a single membrane-associated dye; illuminating the sample with an incident light at λexcitation; measuring, for each bacterial cell (i) the intensity I1 of emitted light at wavelength λ1; and (ii) the intensity I2 of emitted light at wavelength λ2; calculating a ratio I2/I1; and determining whether the bacterial cell is live or inactivated based on whether the calculated I2/I1 is larger or smaller than a predetermined threshold. staining the sample with a single membrane-associated dye; illuminating the sample with an incident light at λexcitation; measuring, for each bacterial cell (i) the intensity I1 of emitted light at wavelength λ1; and (ii) the intensity I2 of emitted light at wavelength λ2; calculating a ratio I2/I1; and determining whether the bacterial cell is live or inactivated based on whether the calculated I2/I1 is larger or smaller than a predetermined threshold.
A display device comprising: a backlight unit comprising a light source; and a liquid crystal display (LCD) module comprising: a phosphor film comprising luminescent nanostructures configured to receive a primary light, from the light source, having a first peak wavelength and to convert a portion of the primary light to emit a secondary light having a second peak wavelength that is different from the first peak wavelength; and a filter element comprising nanostructured materials that exhibit light absorption properties and do not exhibit luminescent properties and are optically coupled to the phosphor film and are configured to allow the secondary light to pass through the filter element and to block an unconverted portion of the primary light from passing through the filter element, wherein the phosphor film comprises a matrix material, and wherein the filter element is embedded in the matrix material. a backlight unit comprising a light source; and a liquid crystal display (LCD) module comprising: a phosphor film comprising luminescent nanostructures configured to receive a primary light, from the light source, having a first peak wavelength and to convert a portion of the primary light to emit a secondary light having a second peak wavelength that is different from the first peak wavelength; and a filter element comprising nanostructured materials that exhibit light absorption properties and do not exhibit luminescent properties and are optically coupled to the phosphor film and are configured to allow the secondary light to pass through the filter element and to block an unconverted portion of the primary light from passing through the filter element, wherein the phosphor film comprises a matrix material, and wherein the filter element is embedded in the matrix material. a phosphor film comprising luminescent nanostructures configured to receive a primary light, from the light source, having a first peak wavelength and to convert a portion of the primary light to emit a secondary light having a second peak wavelength that is different from the first peak wavelength; and a filter element comprising nanostructured materials that exhibit light absorption properties and do not exhibit luminescent properties and are optically coupled to the phosphor film and are configured to allow the secondary light to pass through the filter element and to block an unconverted portion of the primary light from passing through the filter element, wherein the phosphor film comprises a matrix material, and wherein the filter element is embedded in the matrix material.
A computer-implemented edge utility management method, the method comprising: receiving an application to be deployed on an edge device , wherein the application comprises a plurality of separately-deployable application parts (202-206); obtaining application profiles for one or more of the applications parts; obtaining hardware profiles for one or more hardware resources of the edge device; deploying the application parts (202-206) to selected hardware resources based on the application profiles and the hardware profiles; and facilitating communication between the deployed application parts during execution of the application, wherein facilitating communication between the deployed application parts comprises facilitating broker-based communication between the deployed application parts, wherein a broker-based communication enables translation of communications between the deployed application parts and provides said communications to the selected hardware resources, wherein the translation takes place using a messaging protocol selected by an edge utility management component , wherein the method further comprising using holistic access to the hardware resources of the edge device, wherein holistic access means accessing hardware resources across operating system boundaries and / or accessing hardware resources operating using a plurality of different operating systems. receiving an application to be deployed on an edge device , wherein the application comprises a plurality of separately-deployable application parts (202-206); obtaining application profiles for one or more of the applications parts; obtaining hardware profiles for one or more hardware resources of the edge device; deploying the application parts (202-206) to selected hardware resources based on the application profiles and the hardware profiles; and facilitating communication between the deployed application parts during execution of the application, wherein facilitating communication between the deployed application parts comprises facilitating broker-based communication between the deployed application parts, wherein a broker-based communication enables translation of communications between the deployed application parts and provides said communications to the selected hardware resources, wherein the translation takes place using a messaging protocol selected by an edge utility management component , wherein the method further comprising using holistic access to the hardware resources of the edge device, wherein holistic access means accessing hardware resources across operating system boundaries and / or accessing hardware resources operating using a plurality of different operating systems.
An aircraft passenger seat, comprising: a seat frame pivotably coupled to a seatback , the seat frame and seatback collectively configured to accommodate at least one passenger; a deployable leg rest configured to accommodate at least one leg of the passenger when not in an undeployed configuration; at least one tubular member extending between a left side and a right side of the passenger seat, the tubular member operatively coupled to the seatback by at least one seatback linkage configured for articulation by a reclining motion of the seatback; at least one path follower operatively coupled to the at least one seatback linkage; characterized in that the at least one seatback linkage is configured to drive the at least one path follower through an arcuate path between a rear endpoint associated with the undeployed configuration of the leg rest and a forward endpoint associated with a fully deployed configuration of the leg rest when the at least one seatback linkage is articulated; and in that at least one forward mechanism link is operatively coupled to the at least one path follower and to the leg rest, the at least one forward mechanism link is configured to be driven by the at least one path follower to deploy the leg rest at a variable rate corresponding to the arcuate path. a seat frame pivotably coupled to a seatback , the seat frame and seatback collectively configured to accommodate at least one passenger; a deployable leg rest configured to accommodate at least one leg of the passenger when not in an undeployed configuration; at least one tubular member extending between a left side and a right side of the passenger seat, the tubular member operatively coupled to the seatback by at least one seatback linkage configured for articulation by a reclining motion of the seatback; at least one path follower operatively coupled to the at least one seatback linkage; characterized in that the at least one seatback linkage is configured to drive the at least one path follower through an arcuate path between a rear endpoint associated with the undeployed configuration of the leg rest and a forward endpoint associated with a fully deployed configuration of the leg rest when the at least one seatback linkage is articulated; and in that at least one forward mechanism link is operatively coupled to the at least one path follower and to the leg rest, the at least one forward mechanism link is configured to be driven by the at least one path follower to deploy the leg rest at a variable rate corresponding to the arcuate path.
An ion detector configured to detect positive ions and negative ions, the ion detector comprising: a casing on which an ion entrance configured to allow the positive ions and the negative ions to enter is formed; a positive ion conversion dynode that is disposed in the casing and configured to be applied with a negative potential; a scintillator that is disposed in the casing and includes an electron entering surface which secondary electrons emitted from the positive ion conversion dynode enter; a photodetector configured to detect light emitted from the scintillator corresponding to the entering of the secondary electrons; and a negative ion conversion dynode that is disposed in the casing and configured to be applied with a positive potential or a ground potential, characterised in that the ion detector further comprises a negative potential barrier generation electrode configured to generate a negative potential barrier between the scintillator and the ion entrance ; in that the positive ion conversion dynode is provided at a distance closer to the scintillator than the negative ion conversion dynode , and in that the negative potential barrier generation electrode is a counter electrode that faces the positive ion conversion dynode and is configured to be applied with a negative potential equivalent to or different from the negative potential applied to the positive ion conversion dynode . a casing on which an ion entrance configured to allow the positive ions and the negative ions to enter is formed; a positive ion conversion dynode that is disposed in the casing and configured to be applied with a negative potential; a scintillator that is disposed in the casing and includes an electron entering surface which secondary electrons emitted from the positive ion conversion dynode enter; a photodetector configured to detect light emitted from the scintillator corresponding to the entering of the secondary electrons; and a negative ion conversion dynode that is disposed in the casing and configured to be applied with a positive potential or a ground potential, characterised in that the ion detector further comprises a negative potential barrier generation electrode configured to generate a negative potential barrier between the scintillator and the ion entrance ; in that the positive ion conversion dynode is provided at a distance closer to the scintillator than the negative ion conversion dynode , and in that the negative potential barrier generation electrode is a counter electrode that faces the positive ion conversion dynode and is configured to be applied with a negative potential equivalent to or different from the negative potential applied to the positive ion conversion dynode .
A security method for an electric vehicle (EV) power transfer system, performed by a charging controller installed in an EV, the method comprising the steps of: receiving a start signal for charging the EV from a communication controller installed in the EV or an external charger; receiving, by the charging controller, an authentication request from the communication controller; authenticating, by the charging controller, a second key information included in the authentication request based on a first key information by comparing the first key information and the second key information; and starting a charging process when the authentication succeeds, wherein the first key information is learned or stored beforehand in the charging controller. receiving a start signal for charging the EV from a communication controller installed in the EV or an external charger; receiving, by the charging controller, an authentication request from the communication controller; authenticating, by the charging controller, a second key information included in the authentication request based on a first key information by comparing the first key information and the second key information; and starting a charging process when the authentication succeeds, wherein the first key information is learned or stored beforehand in the charging controller.