mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an electronic device comprising a sensing device configured to detect a touch contact or a near-touch contact, the method comprising: receiving a magnetic field signal from an input device generating the magnetic field signal; determining whether a magnetic field signal frequency of the received magnetic field signal is changed to a preset frequency; switching the electronic device to a screen zoom mode in response to the magnetic field signal frequency of the received magnetic field signal being changed to the preset frequency; detecting via the sensing device a moving direction of the input device during the screen zoom mode; zooming a screen of the electronic device in or out based on the detected moving direction of the input device; and exiting the screen zoom mode in response to the magnetic field signal frequency of the received signal being changed to a frequency different from the preset frequency, wherein the zooming the screen in or out is performed at a zoom ratio in proportion to a moving distance of the input device, wherein during the screen zoom mode, if the moving direction of the input device is changed by at least a preset threshold, screen zooming is performed on a basis of a point where the input device is located at a time the moving direction of the input device is changed, and wherein zooming the screen in or out comprises zooming in the screen if the input device is moved in a first direction which is a vertical direction in relation to the screen, and zooming out the screen if the input device is moved in a second direction which is a horizontal direction in relation to the screen. receiving a magnetic field signal from an input device generating the magnetic field signal; determining whether a magnetic field signal frequency of the received magnetic field signal is changed to a preset frequency; switching the electronic device to a screen zoom mode in response to the magnetic field signal frequency of the received magnetic field signal being changed to the preset frequency; detecting via the sensing device a moving direction of the input device during the screen zoom mode; zooming a screen of the electronic device in or out based on the detected moving direction of the input device; and exiting the screen zoom mode in response to the magnetic field signal frequency of the received signal being changed to a frequency different from the preset frequency, wherein the zooming the screen in or out is performed at a zoom ratio in proportion to a moving distance of the input device, wherein during the screen zoom mode, if the moving direction of the input device is changed by at least a preset threshold, screen zooming is performed on a basis of a point where the input device is located at a time the moving direction of the input device is changed, and wherein zooming the screen in or out comprises zooming in the screen if the input device is moved in a first direction which is a vertical direction in relation to the screen, and zooming out the screen if the input device is moved in a second direction which is a horizontal direction in relation to the screen.
A supercharging system, comprising: a first supercharger including a first compressor for compressing air to be supplied to an engine; a second supercharger including a second compressor for further compressing air compressed by the first compressor; and a controller for controlling the first supercharger and the second supercharger, wherein one of the first supercharger or the second supercharger further includes an electric motor for driving the first compressor or the second compressor, wherein at least one of the first supercharger or the second supercharger further includes a turbine configured to be rotary driven by exhaust gas from the engine, and a nozzle vane configured to adjust a flow-path area of the exhaust gas flowing into the turbine, wherein the controller includes: an electric motor control part; and a vane control part, wherein the controller is configured to, if an amount of charge of a battery for supplying electric power to the electric motor is less than a first threshold and if an opening degree of the nozzle vane is not less than a third threshold, switch the operation of the electric motor to a regenerative operation to charge the battery by the electric motor control part and decrease the opening degree of the nozzle vane to less than the third threshold by the vane control part. a first supercharger including a first compressor for compressing air to be supplied to an engine; a second supercharger including a second compressor for further compressing air compressed by the first compressor; and a controller for controlling the first supercharger and the second supercharger, wherein one of the first supercharger or the second supercharger further includes an electric motor for driving the first compressor or the second compressor, wherein at least one of the first supercharger or the second supercharger further includes a turbine configured to be rotary driven by exhaust gas from the engine, and a nozzle vane configured to adjust a flow-path area of the exhaust gas flowing into the turbine, wherein the controller includes: an electric motor control part; and a vane control part, wherein an electric motor control part; and a vane control part, wherein the controller is configured to, if an amount of charge of a battery for supplying electric power to the electric motor is less than a first threshold and if an opening degree of the nozzle vane is not less than a third threshold, switch the operation of the electric motor to a regenerative operation to charge the battery by the electric motor control part and decrease the opening degree of the nozzle vane to less than the third threshold by the vane control part.
A disposable absorbent article comprising: a liquid-impervious backsheet; a body-side top sheet; and an absorbent core assembly positioned between the liquid-impervious backsheet and the body-side top sheet, the absorbent core assembly including: an insult zone corresponding to a body-side insult surface area of the absorbent core assembly, the body-side insult surface area being less than a total body-side surface area of the absorbent core assembly; and discrete top, middle, and bottom absorbent core structures (101, 102, 103) that are at least partially overlapping at the insult zone; wherein said top, middle, and bottom absorbent core structures each comprise at least one of super-absorbent polymer and fluff; wherein at least two of the absorbent core structures have different body-side surface areas, wherein a width of the bottom core structure is smaller than a width of the middle core structure. a liquid-impervious backsheet; a body-side top sheet; and an absorbent core assembly positioned between the liquid-impervious backsheet and the body-side top sheet, the absorbent core assembly including: an insult zone corresponding to a body-side insult surface area of the absorbent core assembly, the body-side insult surface area being less than a total body-side surface area of the absorbent core assembly; and discrete top, middle, and bottom absorbent core structures (101, 102, 103) that are at least partially overlapping at the insult zone; wherein said top, middle, and bottom absorbent core structures each comprise at least one of super-absorbent polymer and fluff; wherein at least two of the absorbent core structures have different body-side surface areas, wherein a width of the bottom core structure is smaller than a width of the middle core structure. an insult zone corresponding to a body-side insult surface area of the absorbent core assembly, the body-side insult surface area being less than a total body-side surface area of the absorbent core assembly; and discrete top, middle, and bottom absorbent core structures (101, 102, 103) that are at least partially overlapping at the insult zone; wherein said top, middle, and bottom absorbent core structures each comprise at least one of super-absorbent polymer and fluff;
A method of forming a domain adopting a digital rights management based on a predetermined network middleware standard, the method comprising: (a) informing a control point which manages the formation of the domain that a device is connected to a network including the domain; (b) the informed control point obtaining DRM information of the device from the device, the DRM information including a device attribute which is a value determining whether the device can be a master device or not, and a device mode identifying whether the device currently operates as a master device, a slave device or a guest device; (c) selecting the device as a master device based on the obtained DRM information of the device; and (d) the selected device as the master device forming the domain. (a) informing a control point which manages the formation of the domain that a device is connected to a network including the domain; (b) the informed control point obtaining DRM information of the device from the device, the DRM information including a device attribute which is a value determining whether the device can be a master device or not, and a device mode identifying whether the device currently operates as a master device, a slave device or a guest device; (c) selecting the device as a master device based on the obtained DRM information of the device; and (d) the selected device as the master device forming the domain.
A surgical instrument system, comprising: a first component, comprising a first connection portion; a second component comprising a second connection portion, wherein said second connection portion is engageable with said first connection portion to connect said second component to said first component; a firing member; a firing trigger actuatable to advance said firing member; and characterized in that the surgical instrument system further comprises: a trigger lock (9290 - figure 96); and a controller configured to detect whether said second component is properly connected to said first component, wherein said controller is configured to actuate said trigger lock to prevent said firing trigger from being actuated when said controller detects that said second component is not properly connected to said first component and to indicate to the user of the surgical instrument system that said second component is not properly connected to said first component. a first component, comprising a first connection portion; a second component comprising a second connection portion, wherein said second connection portion is engageable with said first connection portion to connect said second component to said first component; a firing member; a firing trigger actuatable to advance said firing member; and characterized in that the surgical instrument system further comprises: a trigger lock (9290 - figure 96); and a controller configured to detect whether said second component is properly connected to said first component, wherein said controller is configured to actuate said trigger lock to prevent said firing trigger from being actuated when said controller detects that said second component is not properly connected to said first component and to indicate to the user of the surgical instrument system that said second component is not properly connected to said first component. a trigger lock (9290 - figure 96); and a controller configured to detect whether said second component is properly connected to said first component, wherein said controller is configured to actuate said trigger lock to prevent said firing trigger from being actuated when said controller detects that said second component is not properly connected to said first component and to indicate to the user of the surgical instrument system that said second component is not properly connected to said first component.
A retroviral or lentiviral vector having a viral envelope which comprises: (i) a first mitogenic T-cell activating transmembrane protein which comprises a mitogenic domain which binds CD3, and a transmembrane domain; and (ii) a second mitogenic T-cell activating transmembrane protein which comprises a mitogenic domain which binds CD28, and a transmembrane domain wherein the mitogenic T-cell activating transmembrane proteins are not part of a viral envelope glycoprotein. (i) a first mitogenic T-cell activating transmembrane protein which comprises a mitogenic domain which binds CD3, and a transmembrane domain; and (ii) a second mitogenic T-cell activating transmembrane protein which comprises a mitogenic domain which binds CD28, and a transmembrane domain
A heat radiator including a heat pipe panel having a tubular shape, the heat pipe panel comprising a plurality of inner panels in which a plurality of heat pipes is embedded in a circumferential direction of the heat pipe panel, the heat pipes of the plurality of heat pipes being connected to one another in the circumferential direction, wherein the plurality of inner panels are configured to be arranged around a structure of an artificial satellite or a structure of a spacecraft, wherein an electronic apparatus is mounted on an inner panel of the plurality of inner panels, wherein a plurality of outer panels surrounds the plurality of inner panels, each of the outer panels including a heat radiation surface on an outer surface thereof, wherein the electronic apparatus is mounted between the plurality of inner panels and the plurality of outer panels on an outer surface of the inner panel facing an inner surface of the plurality of outer panels. a plurality of inner panels in which a plurality of heat pipes is embedded in a circumferential direction of the heat pipe panel, the heat pipes of the plurality of heat pipes being connected to one another in the circumferential direction, wherein the plurality of inner panels are configured to be arranged around a structure of an artificial satellite or a structure of a spacecraft, wherein an electronic apparatus is mounted on an inner panel of the plurality of inner panels, wherein a plurality of outer panels surrounds the plurality of inner panels, each of the outer panels including a heat radiation surface on an outer surface thereof, wherein the electronic apparatus is mounted between the plurality of inner panels and the plurality of outer panels on an outer surface of the inner panel facing an inner surface of the plurality of outer panels.
A reciprocating pump comprising a fluid end housing having a number of plunger sections, each plunger section including a plunger bore within which a plunger is slidably received, a suction bore within which a suction valve is positioned and a discharge bore within which a discharge valve is positioned, wherein a cross bore chamber is located between said bores (28, 36, 38) and each of said bores (28, 36, 38) intersects the cross-bore chamber to thereby define a respective cross curve (28a, 36a, 38a) which is spatially separated from each adjacent cross curve, characterized in that the cross-bore chamber is configured as a surface of revolution and the cross-bore chamber defines a single, smooth contiguous surface which extends around and between all of said cross curves.
A composite of a CNT assembly comprising a plurality of carbon nanotubes (CNTs) and at least one metalcone material, the composite being tunable, by a vapor phase chemical modification, to adopt one or more collective properties selected from mechanical, chemical, physical or electrical properties, the vapor phase chemical modification comprising associating said composite with one or more materials inducing said properties, wherein the CNT assembly is part of a CNT macrostructure selected from a CNT mat, a CNT yarn, a CNT fiber, CNT web, a carbon cloth and a buckypaper, wherein the CNT assembly is in a form of a multilayered structure, wherein the CNT assembly forms the inner-most part of the multilayered structure and each of the at least one metalcone material forms at least one layer on the surface of the CNT assembly, and wherein the metalcone layer comprises a plurality of metal atoms in-layer associated to each other, directly or via bridging atoms or organic ligands, wherein the metal atoms are further associated with one or more surface exposed hydroxides, oxides and/or alkoxide groups. wherein the CNT assembly is in a form of a multilayered structure, wherein the CNT assembly forms the inner-most part of the multilayered structure and each of the at least one metalcone material forms at least one layer on the surface of the CNT assembly, and wherein the metalcone layer comprises a plurality of metal atoms in-layer associated to each other, directly or via bridging atoms or organic ligands, wherein the metal atoms are further associated with one or more surface exposed hydroxides, oxides and/or alkoxide groups.
A method for capturing memory errors, the method comprising: receiving, with a first buffer of a first error compactor unit, ECU circuit configured to capture concurrent error packets from a sub-set of a plurality of memories, a first memory error packet (300, 302) from a first memory; receiving, with the first buffer, a second memory error packet (300, 302) from a second memory; transmitting a first reading request (S REQ_i) for reading the first memory error packet (300, 302); receiving the first reading request with an arbiter circuit of an error aggregator unit, EAU circuit of a central memory error management unit, MEMU circuit, the EAU circuit configured to process error packets from the plurality of memories and the MEMU circuit configured to store and process error data packets received from the plurality of memories; in response to receiving the first reading request, reading the first memory error packet (300, 302) from the first buffer, transmitting the first memory error packet (300, 302) to a controller of the central MEMU circuit, and transmitting a first acknowledgement (S ACK i) to the first ECU circuit; receiving the first acknowledgement with the first ECU circuit; and in response to receiving the first acknowledgement, transmitting a second reading request for reading the second memory error packet (300, 302). receiving, with a first buffer of a first error compactor unit, ECU circuit configured to capture concurrent error packets from a sub-set of a plurality of memories, a first memory error packet (300, 302) from a first memory; receiving, with the first buffer, a second memory error packet (300, 302) from a second memory; transmitting a first reading request (S REQ_i) for reading the first memory error packet (300, 302); receiving the first reading request with an arbiter circuit of an error aggregator unit, EAU circuit of a central memory error management unit, MEMU circuit, the EAU circuit configured to process error packets from the plurality of memories and the MEMU circuit configured to store and process error data packets received from the plurality of memories; in response to receiving the first reading request, reading the first memory error packet (300, 302) from the first buffer, transmitting the first memory error packet (300, 302) to a controller of the central MEMU circuit, and transmitting a first acknowledgement (S ACK i) to the first ECU circuit; receiving the first acknowledgement with the first ECU circuit; and in response to receiving the first acknowledgement, transmitting a second reading request for reading the second memory error packet (300, 302).
A dry lubricant composition comprising: 0.1 wt% to 25 wt% of one or more fatty acids; 50 wt% to 90 wt% of one or more mineral oils; 0.01 wt% to 15 wt% of one or more sorbitan esters; and 0.1 wt% to 20 wt% of one or more nonionic surfactants, wherein the non-ionic surfactant is an alcohol alkoxylate, an EO/PO block copolymer or an alkyl phenol alkoxylate; and 0.001wt% to 10 wt% of one or more polyglycols; and Wherein the composition is substantially-free of water and free of a silicone component, and provides lubricity for metal and plastic conveyors. 0.1 wt% to 25 wt% of one or more fatty acids; 50 wt% to 90 wt% of one or more mineral oils; 0.01 wt% to 15 wt% of one or more sorbitan esters; and 0.1 wt% to 20 wt% of one or more nonionic surfactants, wherein the non-ionic surfactant is an alcohol alkoxylate, an EO/PO block copolymer or an alkyl phenol alkoxylate; and 0.001wt% to 10 wt% of one or more polyglycols; and Wherein the composition is substantially-free of water and free of a silicone component, and provides lubricity for metal and plastic conveyors.
Method for controlling a braking system for motor vehicles, comprising a hydraulically actuable wheel brake which can be actuated by means of an electronically controllable pressure supply device which comprises a cylinder-piston arrangement with a hydraulic pressure chamber, the piston of which can be displaced by an electromechanical actuator, with the result that a predefined setpoint pressure value (P V,Setp) in the hydraulic pressure chamber can be adjusted, wherein a position (X Akt) of the pressure supply device is detected, and wherein an actual pressure (P V,Act) of the pressure supply device is determined by means of a measuring device, wherein manipulated variables (ω Akt,Setp, M Akt,Setp) for the electromechanical actuator are formed on the basis of the predefined setpoint pressure value (P V,Setp) and an actual pressure value (P V,Dach), characterized in that the actual pressure value (P V,Dach) is determined as a function of the setpoint pressure value (P V,Setp) by weighted addition of the actual pressure (P V,Act) and of a model pressure (P V,Mod) calculated from a current position (X Akt) of the pressure supply device.
Burner for a combustion machine, with a pilot burner which extends in the axial direction, with a nozzle chamber, with a combustion region and with a cover plate which is arranged between the nozzle chamber and the combustion region and which has an inlet opening, and also nozzles which are arranged around the pilot burner in the nozzle chamber and which extend in each case in the axial direction and which have in each case a nozzle outlet which corresponds in each case to a recess which is introduced into the cover plate, wherein an adapter is arranged for guiding air from the nozzle chamber along a predetermined flow path in the direction of the combustion region, wherein between the adapter and the cover plate a flow passage is formed as part of the flow path, and the adapter has a radially extending annular section which with the cover plate forms a radial section of the flow passage for cooling the cover plate by means of the air, characterized in that the nozzles have in each case an end section which is arranged in the radial section.
A metal-resin composite structure comprising: a surface-roughened metal member; and a resin member bonded to the metal member and composed of a polyarylene sulfide resin composition, wherein the metal member is made of aluminum, copper, magnesium, iron, titanium or an alloy containing at least one of them, and the polyarylene sulfide resin composition is a molded product of a resin composition including a polyarylene sulfide resin and a phenol resin in an amount of 0.05 to 20 parts by mass with respect to 100 parts by mass of the polyarylene sulfide resin, wherein the phenol resin is a novolac phenol resin, and wherein the distance between protrusions adjacent to each other is 5 nm or more and 700 μm or less, and the height difference between recess and protrusion is 50 nm or more and 500 μm or less.