mhurhangee/ep-ind-claims huggingface dataset:
A door frame for a vehicle, comprising: a vertical portion to be fixed to an upper end portion of a door body and extending in an upward direction of the vehicle; a main frame portion connected to an upper end of the vertical portion and to be fixed to the upper end portion of the door body while extending in a forward or rearward direction of the vehicle; the vertical portion including an envelope portion serving as a main portion of the vertical portion and opening in an outward direction of the vehicle, and a fixing portion to which a holding member is fixed for holding a glass run together with the envelope portion, the envelope portion including a bottom wall positioned at a vehicle inner side, an outer wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an outer side of the door frame, and an inner wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an inner side of the door frame, and the width of the bottom wall in a longitudinal direction of the vehicle being greater in a vicinity of the door body than at an upper end side of the vertical portion, characterized in that the envelope portion includes a first rib formed to project in the outward direction of the vehicle. a vertical portion to be fixed to an upper end portion of a door body and extending in an upward direction of the vehicle; a main frame portion connected to an upper end of the vertical portion and to be fixed to the upper end portion of the door body while extending in a forward or rearward direction of the vehicle; the vertical portion including an envelope portion serving as a main portion of the vertical portion and opening in an outward direction of the vehicle, and a fixing portion to which a holding member is fixed for holding a glass run together with the envelope portion, the envelope portion including a bottom wall positioned at a vehicle inner side, an outer wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an outer side of the door frame, and an inner wall extending in the outward direction of the vehicle from an end portion of the bottom wall at an inner side of the door frame, and the width of the bottom wall in a longitudinal direction of the vehicle being greater in a vicinity of the door body than at an upper end side of the vertical portion, characterized in that the envelope portion includes a first rib formed to project in the outward direction of the vehicle.
A band-pass filtering structure, comprising a functional layer structure, wherein the functional layer structure comprises two or more first dielectric layers and a second dielectric layer that is disposed between two first dielectric layers, a plurality of first conductive geometric structures displayed in a periodical arrangement are disposed on each of the two first dielectric layers, a plurality of second conductive geometric structures displayed in a periodical arrangement are disposed on the second dielectric layer, the first conductive geometric structure comprises two conductive strips disposed crossly, and the second conductive geometric structure is a closed conductive geometric structure; wherein one end or both ends of at least one of the two conductive strips are disposed with an end conductive geometric structure; a shape of the end conductive geometric structure is circular, elliptical, or polygonal.
An ink set, comprising at least an ink A and an ink B, each of the ink A and the ink B containing a photocurable compound, a photopolymerization initiator, a gelling agent, and a colorant, and being cured through irradiation with actinic radiation, wherein the colorant has a phthalocyanine structure or a quinacridone structure, and the photopolymerization initiator is a composition containing a hydrogen abstraction photopolymerization initiator in the ink A, and the colorant has neither a phthalocyanine structure nor a quinacridone structure, and the photopolymerization initiator is a composition containing the hydrogen abstraction photopolymerization initiator in an amount less than 0.1mass% with respect to a total mass of the ink B in the ink B.
A panel assembly (400, 502, 600) for moisture management within an aircraft, comprising: at least one liquid flow path formed on at least one surface (104, 500, 602) through surface (104, 500, 602) treatment, wherein the at least one liquid flow path is formed in relation to at least one bank on the at least one surface (104, 500, 602), and wherein the at least one liquid flow path is configured to divert liquid to a desired location, wherein the at least one liquid flow path has a first wettability associated with a first surface energy of the liquid, characterized in that the at least one bank has a second wettability which is lower than the first wettability and which is associated with a second surface energy of the liquid lower than said first surface energy, wherein the first wettability provides increased liquid flow compared to the second wettability. at least one liquid flow path formed on at least one surface (104, 500, 602) through surface (104, 500, 602) treatment, wherein the at least one liquid flow path is formed in relation to at least one bank on the at least one surface (104, 500, 602), and wherein the at least one liquid flow path is configured to divert liquid to a desired location, wherein the at least one liquid flow path has a first wettability associated with a first surface energy of the liquid, characterized in that the at least one bank has a second wettability which is lower than the first wettability and which is associated with a second surface energy of the liquid lower than said first surface energy, wherein the first wettability provides increased liquid flow compared to the second wettability.
A method for detecting that an additional serving cell is activated, the method being implemented by a network node of a wireless communication system supporting carrier aggregation, wherein the network node serves a wireless device configured with a first serving cell and the additional serving cell, the method being characterized in that it comprises prior to an activation of the additional serving cell: - configuring the wireless device to transmit feedback information associated with the additional serving cell at a first rate, the method further comprising: - transmitting a command to the wireless device to activate the additional serving cell, - detecting the activation of the additional serving cell based on reception of the feedback information from the wireless device, and - configuring the wireless device to transmit the feedback information associated with the additional serving cell at a second rate after activation of the additional serving cell, wherein the second rate is lower than the first rate. - configuring the wireless device to transmit feedback information associated with the additional serving cell at a first rate, - transmitting a command to the wireless device to activate the additional serving cell, - detecting the activation of the additional serving cell based on reception of the feedback information from the wireless device, and - configuring the wireless device to transmit the feedback information associated with the additional serving cell at a second rate after activation of the additional serving cell, wherein the second rate is lower than the first rate.
A hot-runner system, comprising: a melt flow modular assembly having a gate melt flow control apparatus; and a Lorentz force actuator assembly being coupled to the gate melt flow control apparatus, wherein the Lorentz force actuator assembly is configured to move the gate melt flow control apparatus to a plastic melt no-flow position in which movement of the gate melt flow control apparatus then disables plastic melt flow through the melt flow modular assembly, said hot-runner system further comprising a locking assembly being configured to prevent movement of the gate melt flow control apparatus so that the Lorentz force actuator assembly may be de-energized in such way that the gate melt flow control apparatus may remain stationary while the Lorentz force actuator assembly may remain de-energized, characterized in that the locking assembly includes a locking rib for arresting movement of the gate melt flow control apparatus by having the locking rib extend along a valve pin assembly of the gate melt flow control apparatus for a stroke length of the Lorentz force actuator assembly, and a locking slide having an electrical locking coil, and operates, in use, perpendicular to movement of the gate melt flow control apparatus for arresting movement of the gate melt flow control apparatus and maintaining a position of the gate melt flow control apparatus without power applied to the electrical locking coil and the Lorentz force actuator assembly.
Cooking appliance apparatus (10a-c), in particular hob apparatus, with a plurality of at least two heating branches (12a-c), each of which comprise at least one heating unit (14a-c) and at least one branch switching unit (16a-c), with a switching unit (18a-c) common to the heating branches (12a-c) and with at least one control unit (20a-c), which, in an operating state for adjusting a heating power of at least one of the heating branches (12a-c) to be operated, adapts at least one switching parameter (22a-c) of a set of switching parameters of the branch switching unit (16a-c) of the at least one heating branch (12-a-c) to be operated, wherein the control unit (20a-c) periodically operates the branch switching units (16a-c) of the heating branches 12a-c) to be operated with a common cycle duration (28a-c) in each case, characterised in that in the operating state the control unit (20a-c) operates the common switching unit (18a-c) periodically with the common cycle duration (28a-c).
A method implemented by an electronic device, the electronic device comprising a touchscreen; the method comprising: sequentially ordering a multiplicity of panels (200a, 200b; 300a, 300b, 300c, 300d) of a homescreen of the electronic device, the multiplicity of panels comprising a fullscreen view for a first application executing on the electronic device and a plurality of launch panels comprising one or more graphical user interface elements (220a, 220b) each associated with a corresponding application entry point to launch a corresponding application; displaying a first launch panel of the plurality of launch panels on a display of the electronic device; in response to a first swipe gesture (250a, 250b; 254a, 254b) on the first launch panel, displaying in sequence a second launch panel of the plurality of launch panels on the display; in response to a second swipe gesture on the second launch panel displaying an intermediate lock interface (1500a; 1600a, 1600b, 1600c); and upon receipt of an unlocking input at the lock interface, displaying the panel presenting the first application in the fullscreen view. sequentially ordering a multiplicity of panels (200a, 200b; 300a, 300b, 300c, 300d) of a homescreen of the electronic device, the multiplicity of panels comprising a fullscreen view for a first application executing on the electronic device and a plurality of launch panels comprising one or more graphical user interface elements (220a, 220b) each associated with a corresponding application entry point to launch a corresponding application; displaying a first launch panel of the plurality of launch panels on a display of the electronic device; in response to a first swipe gesture (250a, 250b; 254a, 254b) on the first launch panel, displaying in sequence a second launch panel of the plurality of launch panels on the display; in response to a second swipe gesture on the second launch panel displaying an intermediate lock interface (1500a; 1600a, 1600b, 1600c); and upon receipt of an unlocking input at the lock interface, displaying the panel presenting the first application in the fullscreen view.
An optical modulation device comprising: a nano-antenna; a conductor; an active layer disposed between the nano-antenna and the conductor, wherein at least one property of the active layer is variable based on a voltage applied thereto; a first dielectric layer disposed between the active layer and the conductor; a second dielectric layer disposed between the active layer and the nano-antenna; and a signal applying unit configured to independently apply an electrical signal to at least two of the nano-antenna, the active layer, and the conductor; wherein the active layer comprises a first charge concentration varying region and a second charge concentration varying region, wherein the first charge concentration varying region and the second charge concentration varying region are formed by application of the electrical signal by the signal applying unit, and wherein the first charge concentration varying region is adjacent to the first dielectric layer, and the second charge concentration varying region is adjacent to the second dielectric layer. a nano-antenna; a conductor; an active layer disposed between the nano-antenna and the conductor, wherein at least one property of the active layer is variable based on a voltage applied thereto; a first dielectric layer disposed between the active layer and the conductor; a second dielectric layer disposed between the active layer and the nano-antenna; and a signal applying unit configured to independently apply an electrical signal to at least two of the nano-antenna, the active layer, and the conductor; wherein the active layer comprises a first charge concentration varying region and a second charge concentration varying region, wherein the first charge concentration varying region and the second charge concentration varying region are formed by application of the electrical signal by the signal applying unit, and wherein the first charge concentration varying region is adjacent to the first dielectric layer, and the second charge concentration varying region is adjacent to the second dielectric layer.
An angular rate sensor comprising: first and second proof masses spaced apart from a surface of a substrate, the first and second proof masses being configured to move along a first axis and a second axis, the first axis being perpendicular to the surface of the substrate and the second axis being parallel to the surface of the substrate; first drive systems; and second drive systems, one each of the first and second drive systems being interconnected with one each of the first and second proof masses, wherein the first and second drive systems are configured to enable drive motion of the first and second proof masses along both of the first and second axes in an orbital drive direction at a drive frequency, the second proof mass being driven out-of-phase relative to the first proof mass; wherein the angular rate sensor is sensitive to angular velocity about a third axis oriented parallel to the surface of the substrate and perpendicular to the second axis; and the drive frequency of the drive motion of the first and second proof masses is configured to change in response to the angular velocity of the angular rate sensor about the third axis. first and second proof masses spaced apart from a surface of a substrate, the first and second proof masses being configured to move along a first axis and a second axis, the first axis being perpendicular to the surface of the substrate and the second axis being parallel to the surface of the substrate; first drive systems; and second drive systems, one each of the first and second drive systems being interconnected with one each of the first and second proof masses, wherein the first and second drive systems are configured to enable drive motion of the first and second proof masses along both of the first and second axes in an orbital drive direction at a drive frequency, the second proof mass being driven out-of-phase relative to the first proof mass; wherein the angular rate sensor is sensitive to angular velocity about a third axis oriented parallel to the surface of the substrate and perpendicular to the second axis; and the drive frequency of the drive motion of the first and second proof masses is configured to change in response to the angular velocity of the angular rate sensor about the third axis.
An apparatus comprising: a heater comprising a heating element having a region that does not contain a surface heating portion of the heating element; a thermostat positioned in the region; a medallion coupled to the thermostat; a housing coupled to the medallion; and an urging element configured to mechanically deform to provide vertical movement of the medallion in response to a downward force applied from the object to the thermostat, the thermostat comprising a switch configured to prevent a current from conducting through the heating element when a contact surface experiences a temperature equal to or greater than a temperature limit; characterized in that: the medallion is positioned below a top surface of the heating element, the thermostat comprises the contact surface disposed to make physical contact with an object placed on the surface heating portion; the medallion comprising a medallion aperture shaped to allow the contact surface to extend vertically through the medallion aperture to make physical contact with the object; and the urging element comprises legs welded to the housing, and an urging surface connected to the thermostat and providing an upward force to the thermostat. a heater comprising a heating element having a region that does not contain a surface heating portion of the heating element; a thermostat positioned in the region; a medallion coupled to the thermostat; a housing coupled to the medallion; and an urging element configured to mechanically deform to provide vertical movement of the medallion in response to a downward force applied from the object to the thermostat, the thermostat comprising a switch configured to prevent a current from conducting through the heating element when a contact surface experiences a temperature equal to or greater than a temperature limit; characterized in that: the medallion is positioned below a top surface of the heating element, the thermostat comprises the contact surface disposed to make physical contact with an object placed on the surface heating portion; the medallion comprising a medallion aperture shaped to allow the contact surface to extend vertically through the medallion aperture to make physical contact with the object; and the urging element comprises legs welded to the housing, and an urging surface connected to the thermostat and providing an upward force to the thermostat. the medallion is positioned below a top surface of the heating element, the thermostat comprises the contact surface disposed to make physical contact with an object placed on the surface heating portion; the medallion comprising a medallion aperture shaped to allow the contact surface to extend vertically through the medallion aperture to make physical contact with the object; and the urging element comprises legs welded to the housing, and an urging surface connected to the thermostat and providing an upward force to the thermostat.
A compound of structural Formula V: wherein M is selected from the group consisting of (+)-camphor-10-sulfonic acid, 2,2-dichloroacetic acid, 2-hydroxyethanesulfonic acid, acetic acid, aspartic acid, benzenesulfonic acid, citric acid, cyclamic acid, di(tert-butyl) naphthalenesulfonic acid, dodecylsulfonic acid, ethanesulfonic acid, formic acid, fumaric acid, glutamic acid, glycerophosphoric acid, glycine, hydroboric acid, hydrobromic acid, hydrochloric acid, lactic acid, maleic acid, malic acid, methanesulfonic acid, naphthalene-2-sulfonic acid, nitric acid, oxalic acid, phosphoric acid, p-toluenesulfonic acid, pyruvic acid, saccharine, succinic acid, sulfuric acid, tartaric acid, and thiocyanic acid; a is a fractional or whole number between about 0.5 and about 3.5 inclusive; and b is a fractional or whole number between about 0 and about 5 inclusive. wherein M is selected from the group consisting of (+)-camphor-10-sulfonic acid, 2,2-dichloroacetic acid, 2-hydroxyethanesulfonic acid, acetic acid, aspartic acid, benzenesulfonic acid, citric acid, cyclamic acid, di(tert-butyl) naphthalenesulfonic acid, dodecylsulfonic acid, ethanesulfonic acid, formic acid, fumaric acid, glutamic acid, glycerophosphoric acid, glycine, hydroboric acid, hydrobromic acid, hydrochloric acid, lactic acid, maleic acid, malic acid, methanesulfonic acid, naphthalene-2-sulfonic acid, nitric acid, oxalic acid, phosphoric acid, p-toluenesulfonic acid, pyruvic acid, saccharine, succinic acid, sulfuric acid, tartaric acid, and thiocyanic acid; a is a fractional or whole number between about 0.5 and about 3.5 inclusive; and b is a fractional or whole number between about 0 and about 5 inclusive.
Power Sourcing Equipment, PSE, in a Power over Ethernet system, comprising: threshold setting circuitry for setting a current limit threshold, and an auto-zero circuit for comparing the current limit threshold with a monitored output current of the PSE to control an output of the PSE. threshold setting circuitry for setting a current limit threshold, and an auto-zero circuit for comparing the current limit threshold with a monitored output current of the PSE to control an output of the PSE.
A method of image data synchronizing in a terminal, comprising: storing a received original image; checking whether a thumbnail image related to the original image was previously stored; if the thumbnail image was not previously stored, simultaneously to storing the received original image, generating and storing, from the original image, the thumbnail image related to the original image, the thumbnail image having a predetermined size, upon detection of an image receiving event, wherein the image receiving event comprises at least one of image downloading, image photographing, and email reception; providing an overwrite message to the user if the thumbnail image was previously stored as a result of the checking, and generating and storing a new thumbnail image if the overwrite message is approved by the user; processing the stored thumbnail image in a synchronized manner such that, when the thumbnail image is moved to another directory or its file name is amended, a directory or file name of the original image is modified accordingly; and processing the stored thumbnail image in a synchronized manner such that, when the thumbnail image is erased, the original image is erased; decoding the stored thumbnail image instead of the original image when an image browsing feature is activated; and displaying the decoded thumbnail image. storing a received original image; checking whether a thumbnail image related to the original image was previously stored; if the thumbnail image was not previously stored, simultaneously to storing the received original image, generating and storing, from the original image, the thumbnail image related to the original image, the thumbnail image having a predetermined size, upon detection of an image receiving event, wherein the image receiving event comprises at least one of image downloading, image photographing, and email reception; providing an overwrite message to the user if the thumbnail image was previously stored as a result of the checking, and generating and storing a new thumbnail image if the overwrite message is approved by the user; processing the stored thumbnail image in a synchronized manner such that, when the thumbnail image is moved to another directory or its file name is amended, a directory or file name of the original image is modified accordingly; and processing the stored thumbnail image in a synchronized manner such that, when the thumbnail image is erased, the original image is erased; decoding the stored thumbnail image instead of the original image when an image browsing feature is activated; and displaying the decoded thumbnail image.