mhurhangee/ep-ind-claims huggingface dataset:
A method of writing an exposure pattern on a substrate, wherein a light spot is scanned along a trajectory over the substrate by moving the substrate and a spot position relative to each other, the method comprising: - providing a definition of a geometry of an exposure pattern (40, 42); - selecting respective spot sizes of the light for illuminating the substrate in respective parts (44, 46a,b) of the trajectory according to the geometry; - selecting respective pitch values between successive ones of the parts (44, 46a,b) of the trajectory, in relation to the spot size selected for the respective parts (44, 46a,b); - scanning the light spot over the substrate along the trajectory, with the selected pitch values between the trajectory parts (44, 46a,b) and a position dependent spot size along the trajectory, characterized in that a trajectory is used that crosses a boundary of the exposure pattern at the starting points of successive trajectory parts (44, 46a,b) across a part of the exposure pattern, the light spot being switched effectively on and off along the trajectory according to parts of the exposure pattern encountered in the trajectory, to assemble illumination of the substrate according to the exposure pattern. - providing a definition of a geometry of an exposure pattern (40, 42); - selecting respective spot sizes of the light for illuminating the substrate in respective parts (44, 46a,b) of the trajectory according to the geometry; - selecting respective pitch values between successive ones of the parts (44, 46a,b) of the trajectory, in relation to the spot size selected for the respective parts (44, 46a,b); - scanning the light spot over the substrate along the trajectory, with the selected pitch values between the trajectory parts (44, 46a,b) and a position dependent spot size along the trajectory, characterized in that a trajectory is used that crosses a boundary of the exposure pattern at the starting points of successive trajectory parts (44, 46a,b) across a part of the exposure pattern, the light spot being switched effectively on and off along the trajectory according to parts of the exposure pattern encountered in the trajectory, to assemble illumination of the substrate according to the exposure pattern.
A device with a receiving antenna, wherein the receiving antenna comprises a secondary coil, and is arranged for inductively connecting to a transmitting antenna comprising a primary coil, characterized in that the receiving antenna further comprises: a tertiary coil arranged to have connection to a load in the device; and a capacitor to which the secondary coil is connected; and there is an encapsulation comprising a low liquid permeability and non-conductive material encapsulating at least a part of the receiving antenna such that the windings of the tertiary coil are set on top of the encapsulation; and the receiving antenna is arranged to resonate substantially at the same frequency as the transmitting antenna. a tertiary coil arranged to have connection to a load in the device; and a capacitor to which the secondary coil is connected;
Device for conveying and positioning sheets in the feeder of a sheet-processing machine by means of a transport belt and a pressure roller acting on the sheet from above, characterized in that at least one sensor for detecting a leading edge of a sheet is disposed in the region of a positioning line defined by the leading-edge stops and that the pressure roller is disposed to be linearly movable in and against the direction of sheet transport as a function of measured values of the sensor.
A valve in which, in a state in which a packing for sealing is attached inside a bonnet in a longneck structure, a stem is axially inserted so as to freely ascend and descend and a flow path inside a valve box is provided so as to be freely opened and closed by a valve body provided at a lower end of this stem, wherein the bonnet is integrally provided in a state of being divided into an upper bonnet and a lower bonnet at a position higher than a position at which a fluid flowing inside the valve box ascends in a liquid state, and a backseat mechanism has a fixed-side seal surface formed on a lower end side of the upper bonnet and a movable-side seal surface formed on an outer peripheral surface of the stem and forms abutting sealing by the movable-side seal surface and the fixed-side seal surface when the valve body is open, wherein, in a state in which an insertion part formed on a lower part of the upper bonnet fits in a diameter-enlarged recessed groove formed on an inner periphery of an upper part of the lower bonnet, these upper bonnet and lower bonnet abut against each other and are welded by means of a welded part, characterized in that a space is provided between a lower end face of the insertion part and a bottom surface of the diameter-enlarged recessed groove, and the welded part is provided at a position with an appropriate distance kept from the fixed-side seal surface so that the fixed-side seal surface is not thermally deformed. a space is provided between a lower end face of the insertion part and a bottom surface of the diameter-enlarged recessed groove, and the welded part is provided at a position with an appropriate distance kept from the fixed-side seal surface so that the fixed-side seal surface is not thermally deformed.
A method comprising: receiving at a network element a packet including a Network Services Header, NSH", wherein the NSH includes an Infrastructure, I, flag and a service path header comprising a Service Index, SI, and a Service Path ID SPI; determining whether the I flag is set to a first value; if the I flag is set to the first value: setting the I flag to a second value; and forwarding the packet to the service function that corresponds to the SI for processing; if the I flag is not set to the first value: decrementing the SI; and making a forwarding decision based an a new value of the SI and the SPI, wherein the I flag will be set to 1 if the packet is to be forwarded to a forwarding element and to 0 if the packet is to be forwarded to a service function. receiving at a network element a packet including a Network Services Header, NSH", wherein the NSH includes an Infrastructure, I, flag and a service path header comprising a Service Index, SI, and a Service Path ID SPI; determining whether the I flag is set to a first value; if the I flag is set to the first value: setting the I flag to a second value; and forwarding the packet to the service function that corresponds to the SI for processing; setting the I flag to a second value; and forwarding the packet to the service function that corresponds to the SI for processing; if the I flag is not set to the first value: decrementing the SI; and making a forwarding decision based an a new value of the SI and the SPI, wherein the I flag will be set to 1 if the packet is to be forwarded to a forwarding element and to 0 if the packet is to be forwarded to a service function. decrementing the SI; and making a forwarding decision based an a new value of the SI and the SPI, wherein the I flag will be set to 1 if the packet is to be forwarded to a forwarding element and to 0 if the packet is to be forwarded to a service function.
A pixel array comprising: a first photosensor for generating charge in response to applied light; a second photosensor for generating charge in response to applied light; first and second high dynamic range/anti-blooming ("HDR/AB") transistors respectively coupled to the first and the second photosensors for draining the generated charges away from the photosensors to a common drain region, said transistors having a common HDR/AB gate; a third photosensor and a fourth photosensor for generating respective charges in response to applied light; and third and fourth HDR/AB transistors respectively coupled to the third and fourth photosensors for draining the generated charges away from the third and fourth photosensors to said common drain region, said third and fourth HDR/AB transistors including said common HDR/AB gate. a first photosensor for generating charge in response to applied light; a second photosensor for generating charge in response to applied light; first and second high dynamic range/anti-blooming ("HDR/AB") transistors respectively coupled to the first and the second photosensors for draining the generated charges away from the photosensors to a common drain region, said transistors having a common HDR/AB gate; a third photosensor and a fourth photosensor for generating respective charges in response to applied light; and third and fourth HDR/AB transistors respectively coupled to the third and fourth photosensors for draining the generated charges away from the third and fourth photosensors to said common drain region, said third and fourth HDR/AB transistors including said common HDR/AB gate.
A cooking device for cooking food placed thereon, the cooking device being extended in a lateral direction and a longitudinal direction as viewed from the top comprising: a plurality of banks (11, 21) arranged in the lateral direction, each of the banks (11, 21) having a placement surface (12, 22) for supporting the food being placed; and a groove formed between the plurality of banks (11, 21), wherein, in each of the plurality of banks (11, 21), a lateral width of the placement surface varies depending on positions along the longitudinal direction of the bank, wherein a heating element is applied to the bank surfaces of the banks (11, 21) and the groove, and the heating element is an electromagnetic wave absorbing material configured to absorb microwaves, characterized in that the depth of the groove in proximity to a portion of the placement surface having a larger lateral width is shallower than the depth of the groove in proximity to a portion of the placement surface having a smaller lateral width. a plurality of banks (11, 21) arranged in the lateral direction, each of the banks (11, 21) having a placement surface (12, 22) for supporting the food being placed; and a groove formed between the plurality of banks (11, 21), wherein, in each of the plurality of banks (11, 21), a lateral width of the placement surface varies depending on positions along the longitudinal direction of the bank, wherein a heating element is applied to the bank surfaces of the banks (11, 21) and the groove, and the heating element is an electromagnetic wave absorbing material configured to absorb microwaves, characterized in that the depth of the groove in proximity to a portion of the placement surface having a larger lateral width is shallower than the depth of the groove in proximity to a portion of the placement surface having a smaller lateral width.
A table tennis racket component to be attached to a blade of the table tennis racket, comprising: a resin foam forming at least a part of a surface of the table tennis racket component; and a porous material contained in the resin foam, characterized in that a ratio of the porous material to 100 parts by mass of a resin component making up the resin foam is 10 parts by mass or more. a resin foam forming at least a part of a surface of the table tennis racket component; and a porous material contained in the resin foam, characterized in that a ratio of the porous material to 100 parts by mass of a resin component making up the resin foam is 10 parts by mass or more.
An after-recording apparatus comprising: first means (101b, 102b) for compressively encoding an audio signal into encoding-resultant audio data divided in units; second means (101a, 102a) for compressively encoding a video signal into encoding-resultant video data divided in units; third means for adding an audio time stamp for audio-video synchronous reproduction to every unit of the encoding-resultant audio data to generate time-stamp-added audio data; fourth means for adding a video time stamp for audio-video synchronous reproduction to every unit of the encoding-resultant video data to generate time-stamp-added video data; fifth means for multiplexing the time-stamp-added audio data and the time-stamp-added video data into main data; sixth means (102b, 103b, 110) for adding, to a first after-recording-purpose encoding-resultant data, time stamps for reproduction synchronous with a portion of the main data and identification information for identifying the first after-recording-purpose encoding-resultant data, to convert the first after-recording-purpose encoding-resultant data into a second after-recording-purpose encoding-resultant data; and seventh means for recording in separate files the main data and the second after-recording-purpose encoding-resultant data, respectively, and play list information on a recording medium, the play list information providing information for a link between the main data and the second after-recording-purpose encoding-resultant data. first means (101b, 102b) for compressively encoding an audio signal into encoding-resultant audio data divided in units; second means (101a, 102a) for compressively encoding a video signal into encoding-resultant video data divided in units; third means for adding an audio time stamp for audio-video synchronous reproduction to every unit of the encoding-resultant audio data to generate time-stamp-added audio data; fourth means for adding a video time stamp for audio-video synchronous reproduction to every unit of the encoding-resultant video data to generate time-stamp-added video data; fifth means for multiplexing the time-stamp-added audio data and the time-stamp-added video data into main data; sixth means (102b, 103b, 110) for adding, to a first after-recording-purpose encoding-resultant data, time stamps for reproduction synchronous with a portion of the main data and identification information for identifying the first after-recording-purpose encoding-resultant data, to convert the first after-recording-purpose encoding-resultant data into a second after-recording-purpose encoding-resultant data; and seventh means for recording in separate files the main data and the second after-recording-purpose encoding-resultant data, respectively, and play list information on a recording medium, the play list information providing information for a link between the main data and the second after-recording-purpose encoding-resultant data.
A dose indicator comprising, a chassis comprising a chassis frame, an indexable first display unit mounted on the chassis frame and indexable about a first display axis, an indexable second display unit mounted on the chassis frame and indexable about a second display axis, the second display axis being transverse to the first display axis, characterized in that the chassis further comprises a displacement portion comprising a drive means to engage the first display unit, and the chassis further comprises at least one hinge means directly or indirectly connecting the displacement portion and chassis frame so as to permit relative movement therebetween.
Energy generating installation, especially a wind power station, with a drive shaft, a generator and with a differential transmission (11 to 13) with three drives and outputs, respectively, a first drive being connected to the drive shaft, one output being connected to a generator, and a second drive being connected to a differential drive, a ring gear carrier being connected to a generator shaft, characterized in that the generator shaft is mounted via the ring gear carrier on a housing of the generator.
A method of reporting Minimization of Drive Test, MDT, logs for a mobile communication device (10, 20) in a service network (12, 22) comprising a plurality of cells, the method comprising: transmitting, by the mobile communication device (10, 20), an MDT log to the service network (12, 22) via a serving cell upon receiving a request message for the MDT log; characterized by: terminating, by the mobile communication device (10, 20), transmission of the MDT log in response to a change of the serving cell from a first cell to a second cell in the service network (12, 22). transmitting, by the mobile communication device (10, 20), an MDT log to the service network (12, 22) via a serving cell upon receiving a request message for the MDT log; characterized by: terminating, by the mobile communication device (10, 20), transmission of the MDT log in response to a change of the serving cell from a first cell to a second cell in the service network (12, 22). terminating, by the mobile communication device (10, 20), transmission of the MDT log in response to a change of the serving cell from a first cell to a second cell in the service network (12, 22).
A head-related transfer function, HRTF, dataset modification system, the system comprising: an HRTF identifying unit operable to identify a first HRTF from an HRTF dataset, the first HRTF being associated with a first location; a filter generating unit operable to generate a filter in dependence upon the first HRTF, wherein the generating comprises the steps of: identifying a spectral response of the first HRTF, identifying one or more second HRTFs within the HRTF dataset, each associated with respective second locations within a predetermined distance of that of the first HRTF, wherein the predetermined distance is identified in dependence upon the location associated with the first HRTF, and a corresponding spectral response associated with each of the second HRTFs, generating an average of the identified spectral responses of the first and second HRTFs, and generating a filter using the inverse of this average; and an HRTF modification unit operable to modify the first HRTF by applying the generated filter to the identified spectral response of the first HRTF to generate an output HRTF. an HRTF identifying unit operable to identify a first HRTF from an HRTF dataset, the first HRTF being associated with a first location; a filter generating unit operable to generate a filter in dependence upon the first HRTF, wherein the generating comprises the steps of: identifying a spectral response of the first HRTF, identifying one or more second HRTFs within the HRTF dataset, each associated with respective second locations within a predetermined distance of that of the first HRTF, wherein the predetermined distance is identified in dependence upon the location associated with the first HRTF, and a corresponding spectral response associated with each of the second HRTFs, generating an average of the identified spectral responses of the first and second HRTFs, and generating a filter using the inverse of this average; and an HRTF modification unit operable to modify the first HRTF by applying the generated filter to the identified spectral response of the first HRTF identifying a spectral response of the first HRTF, identifying one or more second HRTFs within the HRTF dataset, each associated with respective second locations within a predetermined distance of that of the first HRTF, wherein the predetermined distance is identified in dependence upon the location associated with the first HRTF, and a corresponding spectral response associated with each of the second HRTFs, generating an average of the identified spectral responses of the first and second HRTFs, and generating a filter using the inverse of this average; and an HRTF modification unit operable to modify the first HRTF by applying the generated filter to the identified spectral response of the first HRTF to generate an output HRTF.
A discharge device comprising: a dielectric; a first electrode and a second electrode arranged with the dielectric interposed therebetween; and a circuit unit to which the first electrode and the second electrode are electrically connected, for generating a high voltage to be applied to the first electrode and the second electrode, wherein the dielectric is formed in a tube shape or a pipe shape having the circuit unit installed therein, characterized in that the circuit unit includes: high-voltage output terminals and a ground terminal which contact the first electrode and the second electrode, respectively; a PCB to which the high-voltage output terminals and the ground terminal are fixed for electrical connection; and a transformer installed on the PCB. a dielectric; a first electrode and a second electrode arranged with the dielectric interposed therebetween; and a circuit unit to which the first electrode and the second electrode are electrically connected, for generating a high voltage to be applied to the first electrode and the second electrode, high-voltage output terminals and a ground terminal which contact the first electrode and the second electrode, respectively; a PCB to which the high-voltage output terminals and the ground terminal are fixed for electrical connection; and a transformer installed on the PCB.
A silver paste comprising: an aqueous dispersion of a silver-containing structure containing, as main constituent components, at least one compound selected from the group consisting of a compound containing polyethyleneimine (a) having a number-average molecular weight of 500 to 50,000 and an amino group to which polyethylene glycol (b) having a number-average molecular weight of 500 to 5,000 is bonded, a compound containing polyethyleneimine (a) having a number-average molecular weight of 500 to 50,000 and an amino group to which a linear epoxy resin (c) is bonded, and a compound containing polyethyleneimine (a) having a number-average molecular weight of 500 to 50,000 and an amino group to which polyethylene glycol (b) having a number-average molecular weight of 500 to 5,000 and a linear epoxy resin (c) are bonded, and silver nanoparticles; a compound having a functional group reactable with a nitrogen atom in the polyethyleneimine (a), wherein the compound is an inorganic acid; and at least one compound selected from the group consisting of a compound having an amine functional group and a compound having an amide functional group, wherein the compound is at least one compound selected from the group consisting of a water-soluble amine compound, a water-soluble alcoholamine compound, and a water-soluble amide compound, and wherein the compound is used in an amount of 1.0% to 9.0% by weight relative to the silver solid content in the aqueous dispersion. an aqueous dispersion of a silver-containing structure containing, as main constituent components, at least one compound selected from the group consisting of a compound containing polyethyleneimine (a) having a number-average molecular weight of 500 to 50,000 and an amino group to which polyethylene glycol (b) having a number-average molecular weight of 500 to 5,000 is bonded, a compound containing polyethyleneimine (a) having a number-average molecular weight of 500 to 50,000 and an amino group to which a linear epoxy resin (c) is bonded, and a compound containing polyethyleneimine (a) having a number-average molecular weight of 500 to 50,000 and an amino group to which polyethylene glycol (b) having a number-average molecular weight of 500 to 5,000 and a linear epoxy resin (c) are bonded, and silver nanoparticles; a compound having a functional group reactable with a nitrogen atom in the polyethyleneimine (a), wherein the compound is an inorganic acid; and at least one compound selected from the group consisting of a compound having an amine functional group and a compound having an amide functional group, wherein the compound is at least one compound selected from the group consisting of a water-soluble amine compound, a water-soluble alcoholamine compound, and a water-soluble amide compound, and wherein the compound is used in an amount of 1.0% to 9.0% by weight relative to the silver solid content in the aqueous dispersion.