mhurhangee/ep-ind-claims huggingface dataset:
A method for navigating contents in a mobile device, the method comprising: displaying, on a display of the mobile device, a current screen including an index region displaying a plurality of dates, and a content region, displaying first schedule information corresponding to a first date; detecting a selection input of a new date on the index region; determining a slide direction of second schedule information to be displayed, wherein the second schedule information corresponds to the newly selected date; and displaying the second schedule information corresponding to the newly selected date in response to the detected selection input; wherein the second schedule information slides into the content region based on the determined direction; and the method being characterised in that if the newly selected date has a difference of at least two days from the first date, schedule information corresponding to a date between the first date and the newly selected date is not displayed during the time when the second schedule information slides onto the content region of the display. displaying, on a display of the mobile device, a current screen including an index region displaying a plurality of dates, and a content region, displaying first schedule information corresponding to a first date; detecting a selection input of a new date on the index region; determining a slide direction of second schedule information to be displayed, wherein the second schedule information corresponds to the newly selected date; and displaying the second schedule information corresponding to the newly selected date in response to the detected selection input; wherein the second schedule information slides into the content region based on the determined direction; and the method being characterised in that if the newly selected date has a difference of at least two days from the first date, schedule information corresponding to a date between the first date and the newly selected date is not displayed during the time when the second schedule information slides onto the content region of the display.
An apparatus characterized in that comprising: a vectoring control entity VCE (109, 202) at a central office CO coupled to a plurality of first transceivers at a plurality of customer premise equipments CPEs and to a plurality of second transceivers at the CO via a plurality of corresponding digital subscriber lines DSLs and configured to process a plurality of probing signals comprising a plurality of orthogonal frequency signatures from the first transceivers that correspond to the DSLs to determine a plurality of upstream dominant crosstalk channels in the DSLs; and a crosstalk canceller (114, 200) coupled to the VCE (109, 202) and to the second transceivers at the CO and configured to process a subset of a plurality of signals from the first transceivers that correspond to the dominant crosstalk channels to reduce crosstalk noise in the DSLs in the upstream, wherein each of the probing signals is transmitted in a single sync symbol in each of the DSLs. a vectoring control entity VCE (109, 202) at a central office CO coupled to a plurality of first transceivers at a plurality of customer premise equipments CPEs and to a plurality of second transceivers at the CO via a plurality of corresponding digital subscriber lines DSLs and configured to process a plurality of probing signals comprising a plurality of orthogonal frequency signatures from the first transceivers that correspond to the DSLs to determine a plurality of upstream dominant crosstalk channels in the DSLs; and a crosstalk canceller (114, 200) coupled to the VCE (109, 202) and to the second transceivers at the CO and configured to process a subset of a plurality of signals from the first transceivers that correspond to the dominant crosstalk channels to reduce crosstalk noise in the DSLs in the upstream, wherein each of the probing signals is transmitted in a single sync symbol in each of the DSLs.
Micromechanical pressure relief valve arrangement, comprising: a stack of wafers; an active pressure relief valve realized within said stack of wafers; a passive pressure relief valve, realized within said stack of wafers, arranged in parallel to said active pressure relief valve; a check valve, realized within said stack of wafers, arranged in series with both said active pressure relief valve and said passive pressure relief valve. a stack of wafers; an active pressure relief valve realized within said stack of wafers; a passive pressure relief valve, realized within said stack of wafers, arranged in parallel to said active pressure relief valve; a check valve, realized within said stack of wafers, arranged in series with both said active pressure relief valve and said passive pressure relief valve.
Method for controlling an electrical household appliance, which is arranged in an outside area, wherein the method comprises the following steps: - determining an environmental parameter comprising an outside temperature in the area of the household appliance on the basis of a meteorological situation in this area, wherein the meteorological situation is obtained from an external information source and comprises weather information; - comparing the environmental parameter with a predetermined threshold value; and - deactivating the household appliance if the environmental parameter exceeds the threshold value in a predetermined direction, characterised in that - the deactivation comprises an adjustment of a time control of the household appliance in order to prevent operation of the household appliance, while the environmental parameter lies on a predetermined side of the threshold value. - determining an environmental parameter comprising an outside temperature in the area of the household appliance on the basis of a meteorological situation in this area, wherein the meteorological situation is obtained from an external information source and comprises weather information; - comparing the environmental parameter with a predetermined threshold value; and - deactivating the household appliance if the environmental parameter exceeds the threshold value in a predetermined direction, - the deactivation comprises an adjustment of a time control of the household appliance in order to prevent operation of the household appliance, while the environmental parameter lies on a predetermined side of the threshold value.
A method for manufacturing a power module substrate, comprising: preparing a ceramics substrate (11, 211) composed of AlN or Al 2 O 3, having a top face, a metal plate (22, 23, 222, 223) composed of pure aluminum, a brazing filler metal (24, 25, 224, 225) including silicon; stacking the ceramics substrate (11, 211) and the metal plate (22, 23, 222, 223) in layers with the brazing filler metal (24, 25, 224, 225) interposed therebetween; heating the ceramics substrate (11, 211), the brazing filler metal (24, 25, 224, 225), and the metal plate (22, 23, 222, 223) which are stacked in layers in a state where a pressure is applied thereon; forming a fusion aluminum layer (26, 27) at a boundary face between the ceramics substrate (11, 211) and the metal plate (22, 23, 222, 223) by melting the brazing filler metal (24, 25, 224, 225); solidifying the fusion aluminum layer (26, 27) by cooling down the fusion aluminum layer (26, 27); and generating a high concentration section (32, 232) having a silicon concentration that is more than five times the silicon concentration in the metal plate (22, 23, 222, 223), at a joint interface (30, 230) at which the ceramics substrate (11, 211) is joined to the metal plate (22, 23, 222, 223), characterized in that silicon is preliminarily adhered to the top face of the ceramics substrate (11, 211) or a top face of the metal plate (22, 23, 222, 223) before stacking the ceramics substrate (11, 211) and the metal plate (22, 23, 222, 223) in layers with the brazing filler metal (24, 25, 224, 225) interposed therebetween. preparing a ceramics substrate (11, 211) composed of AlN or Al 2 O 3, having a top face, a metal plate (22, 23, 222, 223) composed of pure aluminum, a brazing filler metal (24, 25, 224, 225) including silicon; stacking the ceramics substrate (11, 211) and the metal plate (22, 23, 222, 223) in layers with the brazing filler metal (24, 25, 224, 225) interposed therebetween; heating the ceramics substrate (11, 211), the brazing filler metal (24, 25, 224, 225), and the metal plate (22, 23, 222, 223) which are stacked in layers in a state where a pressure is applied thereon; forming a fusion aluminum layer (26, 27) at a boundary face between the ceramics substrate (11, 211) and the metal plate (22, 23, 222, 223) by melting the brazing filler metal (24, 25, 224, 225); solidifying the fusion aluminum layer (26, 27) by cooling down the fusion aluminum layer (26, 27); and generating a high concentration section (32, 232) having a silicon concentration that is more than five times the silicon concentration in the metal plate (22, 23, 222, 223), at a joint interface (30, 230) at which the ceramics substrate (11, 211) is joined to the metal plate (22, 23, 222, 223), characterized in that silicon is preliminarily adhered to the top face of the ceramics substrate (11, 211) or a top face of the metal plate (22, 23, 222, 223) before stacking the ceramics substrate (11, 211) and the metal plate (22, 23, 222, 223) in layers with the brazing filler metal (24, 25, 224, 225) interposed therebetween.
A use of a compound of Formula 1: as a nitrification inhibitor; • wherein X 1 and X 5 = N; X 2 and X 4 = CH; and X 3 = C-R; wherein R is selected from H and OMe; or • wherein X 1 and X 5 = CH; X 2 and X 4 = N; and X 3 = C-R; wherein R is selected from H and OMe; or • wherein X 1 and X 3 = N; and X 2, X 4 and X 5 = CH; or • wherein X 1, X 4, and X 5 = CH; X 2 is selected from N and N=O; and X 3 = C-R; and wherein if X 2 is N=O R is H; and wherein if X 2 is N then R is OMe; or • wherein X 1 = N, X 2, X 4 and X 5 = CH; and X 3 = C-R; wherein R is OMe; or • wherein X 1 and X 2 = N; X 3 = C-R; and X 4 and X 5 = CH; wherein R is selected from H and OMe; or • wherein X 1 and X 4 = N; X 2 and X 5 = CH; and X 3 = C-R; wherein R is selected from H and OMe; or • wherein X 1, X 2, X 4 and X 5 = CH; X 3 = C-R; wherein R is selected from OMe, OEt, and C≡CH. • wherein X 1 and X 5 = N; X 2 and X 4 = CH; and X 3 = C-R; wherein R is selected from H and OMe; or • wherein X 1 and X 5 = CH; X 2 and X 4 = N; and X 3 = C-R; wherein R is selected from H and OMe; or • wherein X 1 and X 3 = N; and X 2, X 4 and X 5 = CH; or • wherein X 1, X 4, and X 5 = CH; X 2 is selected from N and N=O; and X 3 = C-R; and wherein if X 2 is N=O R is H; and wherein if X 2 is N then R is OMe; or • wherein X 1 = N, X 2, X 4 and X 5 = CH; and X 3 = C-R; wherein R is OMe; or • wherein X 1 and X 2 = N; X 3 = C-R; and X 4 and X 5 = CH; wherein R is selected from H and OMe; or • wherein X 1 and X 4 = N; X 2 and X 5 = CH; and X 3 = C-R; wherein R is selected from H and OMe; or • wherein X 1, X 2, X 4 and X 5 = CH; X 3 = C-R; wherein R is selected from OMe, OEt, and C≡CH.
A computer-implemented method of assessing the condition of a real-world object wherein the real-world object is an electronic device (612; 1000; 1422) comprising a display screen (616; 906; 1104), the method comprising: receiving (202; 500; 704; 1008) sensor data depicting the real-world object, the sensor data comprising images depicting a graphical item on the display screen of the real-world object, the graphical item comprising an identifier (904; 1102) of the real-world object; wherein one of the images depicts the graphical item at a first portion of the display screen of the real-world object and a second one of the images depicts the graphical item at a second portion of the display screen of the real-world object, different from the first portion; authenticating (204; 502; 706; 1014) the received sensor data as genuinely depicting the real-world object by searching for a match to the identifier in user accounts comprising details of users and associated real-world objects; and if the authentication is successful, assessing (210; 308; 508; 720; 1024) a condition of the real-world object from the sensor data. receiving (202; 500; 704; 1008) sensor data depicting the real-world object, the sensor data comprising images depicting a graphical item on the display screen of the real-world object, the graphical item comprising an identifier (904; 1102) of the real-world object; wherein one of the images depicts the graphical item at a first portion of the display screen of the real-world object and a second one of the images depicts the graphical item at a second portion of the display screen of the real-world object, different from the first portion; authenticating (204; 502; 706; 1014) the received sensor data as genuinely depicting the real-world object by searching for a match to the identifier in user accounts comprising details of users and associated real-world objects; and if the authentication is successful, assessing (210; 308; 508; 720; 1024) a condition of the real-world object from the sensor data.
A method for performing a secondary node change procedure from a source secondary node to a target secondary node in a wireless communication system, wherein the secondary node change procedure is initiated by the source secondary node, the method comprising: receiving, by a master node from the source secondary node, a secondary node change request message which includes 1) an identifier, ID, of the target secondary node, 2) information on protocol data unit, PDU, sessions to be offloaded to the target secondary node, and 3) secondary cell group, SCG, configuration information; transmitting, by the master node to the target secondary node, a secondary node addition request message which includes 1) the information on the PDU sessions to be offloaded to the target secondary node, and 2) the SCG configuration information; receiving, by the master node from the target secondary node, a secondary node addition request acknowledge message which includes 1) a list of accepted PDU sessions and rejected PDU sessions among the PDU sessions, 2) a SCG configuration of the target secondary node, and 3) data forwarding addresses for the accepted PDU sessions; transmitting, by the master node to a user equipment, a radio resource control, RRC, connection reconfiguration message including the SCG configuration of the target secondary node; and transmitting, by the master node to the source secondary node, a secondary node change request acknowledge message which includes the list of the accepted and rejected PDU sessions. receiving, by a master node from the source secondary node, a secondary node change request message which includes 1) an identifier, ID, of the target secondary node, 2) information on protocol data unit, PDU, sessions to be offloaded to the target secondary node, and 3) secondary cell group, SCG, configuration information; transmitting, by the master node to the target secondary node, a secondary node addition request message which includes 1) the information on the PDU sessions to be offloaded to the target secondary node, and 2) the SCG configuration information; receiving, by the master node from the target secondary node, a secondary node addition request acknowledge message which includes 1) a list of accepted PDU sessions and rejected PDU sessions among the PDU sessions, 2) a SCG configuration of the target secondary node, and 3) data forwarding addresses for the accepted PDU sessions; transmitting, by the master node to a user equipment, a radio resource control, RRC, connection reconfiguration message including the SCG configuration of the target secondary node; and transmitting, by the master node to the source secondary node, a secondary node change request acknowledge message which includes the list of the accepted and rejected PDU sessions.
A method for use in a wireless communications system, in which there is at least a first transmitter and at least a first and a second receiver, users, and at least a first and a second channel for said at least first transmitter to transmit to said at least two users on, said method using at least a first Lagrange parameter λ, said method being characterized in that it comprises the following steps: using a parameter q i,j, which represents the inverse channel quality for user u i and channel j, setting λ i to be proportional to q i,j, λ i =x*E{q i,j}, where x is a fixed parameter. finding all channels for user u i such that q i,j ≤ λ i but q i',j > λ i', ∀i' ≠ i, and designating those channels to user u i. If more than one user u i with q i,j ≤ λ i for a channel j is found, then assigning that channel to the user u i that ensures the condition q i,j /q i',j > λ i /λ i', ∀i'≠i. If q i,j > λ i, ∀i, then leaving channel j unassigned. using a parameter q i,j, which represents the inverse channel quality for user u i and channel j, setting λ i to be proportional to q i,j, λ i =x*E{q i,j}, where x is a fixed parameter. finding all channels for user u i such that q i,j ≤ λ i but q i',j > λ i', ∀i' ≠ i, and designating those channels to user u i. If more than one user u i with q i,j ≤ λ i for a channel j is found, then assigning that channel to the user u i that ensures the condition q i,j /q i',j > λ i /λ i', ∀i'≠i. If q i,j > λ i, ∀i, then leaving channel j unassigned.
Muffler for an exhaust system of an internal combustion engine, comprising a muffler housing and at least one exhaust gas pipe group (19, 19'), wherein the at least one exhaust gas pipe group (19, 19') comprises: - an outlet pipe (20, 20') open towards an expansion chamber (26, 26') formed in the muffler housing, wherein exhaust gas introduced via the at least one exhaust gas pipe group (19, 19') leaves the muffler housing via the outlet pipe (20, 20'), - a first inlet pipe (38, 38'), wherein the first inlet pipe (38, 38') has an inlet pipe end area (40, 40'), which is inserted into the outlet pipe (20, 20') and extends in the outlet pipe (20, 20'), characterized by a second inlet pipe (48, 48'), wherein the second inlet pipe (48, 48') is open towards the expansion chamber (26, 26'). - an outlet pipe (20, 20') open towards an expansion chamber (26, 26') formed in the muffler housing, wherein exhaust gas introduced via the at least one exhaust gas pipe group (19, 19') leaves the muffler housing via the outlet pipe (20, 20'), - a first inlet pipe (38, 38'), wherein the first inlet pipe (38, 38') has an inlet pipe end area (40, 40'), which is inserted into the outlet pipe (20, 20') and extends in the outlet pipe (20, 20'),
A method for operating a GNSS receiver in the presence of spoofed signals, the GNSS receiver having a plurality of satellite signal receive chains connected to antenna outputs with a low associated antenna envelope correlation coefficient, the method comprising: - receiving signals from said plurality of satellite signal receive chains; - obtaining relative amplitude and phase values of respective signals as provided by a pair of satellite signal receive chains as the amplitude and phase of one receive chain relative to another from among said plurality of satellite signal receive chains; - clustering said received signals on the basis of said monitored relative amplitude and phase values; and - asserting a spoofing detection state when said clustering reveals a cluster of signals exhibiting similar relative amplitude and phase values over a predetermined time frame. - receiving signals from said plurality of satellite signal receive chains; - obtaining relative amplitude and phase values of respective signals as provided by a pair of satellite signal receive chains as the amplitude and phase of one receive chain relative to another from among said plurality of satellite signal receive chains; - clustering said received signals on the basis of said monitored relative amplitude and phase values; and - asserting a spoofing detection state when said clustering reveals a cluster of signals exhibiting similar relative amplitude and phase values over a predetermined time frame.
An electronic device, comprising: a camera configured to capture image data; a display configured to display the captured image data and content corresponding to an application of the electronic device; a motion sensor configured to detect motion of the electronic device; and circuitry configured to activate the camera when motion is detected by the motion sensor, and whereby the electronic device is characterised in that the circuitry is configured to control the display to display at least a portion of the captured image data at a size proportional to an amount of motion as detected by an output of the motion sensor. a camera configured to capture image data; a display configured to display the captured image data and content corresponding to an application of the electronic device; a motion sensor configured to detect motion of the electronic device; and circuitry configured to activate the camera when motion is detected by the motion sensor, and whereby the electronic device is characterised in that the circuitry is configured to control the display to display at least a portion of the captured image data at a size proportional to an amount of motion as detected by an output of the motion sensor.
A test chip for use in performing a biochemical test by injecting and sucking a test solution with use of a nozzle member, comprising: a chip body including a fluid channel having a plurality of end portions, each of the end portions of the fluid channel opened in a surface of the chip body; and a sheet-like seal member configured to cover at least the openings in the surface of the chip body for bringing an inside of the fluid channel to a sealed state, wherein the seal member is constituted of a plurality of laminated sheet members (26,27,28) including a first sheet member and a second sheet member, wherein the second sheet member is disposed on an inner side than the first sheet member in the sheet laminating direction, the inner side corresponding to a side of the chip body; characterized in that the first sheet member has a predetermined ductility and a elastic modulus of from 0.05 to 0.5 GPa, and the second sheet member has a lower ductility than the first sheet member, wherein the first sheet member has a total elongation of not smaller than 200 % but not larger than 720 %, and the second sheet member has a total elongation of not larger than 50 %, so that a tubular opening is formed when a tip of the nozzle member passes through the seal member; besides, the first sheet member and the second sheet member are adhered to each other by an adhesive or a tackifier. a chip body including a fluid channel having a plurality of end portions, each of the end portions of the fluid channel opened in a surface of the chip body; and a sheet-like seal member configured to cover at least the openings in the surface of the chip body for bringing an inside of the fluid channel to a sealed state, wherein the seal member is constituted of a plurality of laminated sheet members (26,27,28) including a first sheet member and a second sheet member, wherein the second sheet member is disposed on an inner side than the first sheet member in the sheet laminating direction, the inner side corresponding to a side of the chip body; characterized in that the first sheet member has a predetermined ductility and a elastic modulus of from 0.05 to 0.5 GPa, and the second sheet member has a lower ductility than the first sheet member, wherein the first sheet member has a total elongation of not smaller than 200 % but not larger than 720 %, and the second sheet member has a total elongation of not larger than 50 %, so that a tubular opening is formed when a tip of the nozzle member passes through the seal member; besides, the first sheet member and the second sheet member are adhered to each other by an adhesive or a tackifier.