mhurhangee/ep-ind-claims huggingface dataset:
Diffractive combiner for a head-up display device, said combiner comprising a first optical diffraction grating configured to diffract, in a diffraction direction, light of a first wavelength incident on said first optical diffraction grating in a direction of incidence, and a second optical diffraction grating configured to diffract, in said diffraction direction, light of a second wavelength incident on said second optical diffraction grating in said direction of incidence, said combiner being characterized in that it comprises: a carrier made of transparent material having first and second opposite faces on which are formed in relief the first and second optical diffraction gratings, respectively, and in that at least one of the first and second optical diffraction gratings is a wavelength-multiplexed optical diffraction grating configured to diffract, in said diffraction direction, light of a third wavelength incident on said at least one of the first and second optical diffraction gratings in said direction of incidence. a carrier made of transparent material having first and second opposite faces on which are formed in relief the first and second optical diffraction gratings, respectively, and in that at least one of the first and second optical diffraction gratings is a wavelength-multiplexed optical diffraction grating configured to diffract, in said diffraction direction, light of a third wavelength incident on said at least one of the first and second optical diffraction gratings in said direction of incidence.
A method for selective processing of file system objects for an image level backup, comprising: receiving backup parameters for an image level backup, wherein the backup parameters include a selection of at least one file system object to include in the image level backup; attaching (230,240) to a source disk as a block device, wherein the source disk corresponds to the selected at least one file system object, and a file system includes a file allocation table, FAT (150,160); and determining file system objects of the source disk to be excluded for the image level backup based on the selection of the at least one file system object; issuing file deletion API calls to initiate deletion of the determined file system objects from the source disk; initializing an input/output (I/O) interception module on a backup server; intercepting write requests to the FAT caused by the file deletion API calls; storing, in a memory of the backup server, a FAT content change based on the intercepted write requests; and creating a reconstructed disk image from the source disk based on the FAT and the stored FAT content change. receiving backup parameters for an image level backup, wherein the backup parameters include a selection of at least one file system object to include in the image level backup; attaching (230,240) to a source disk as a block device, wherein the source disk corresponds to the selected at least one file system object, and a file system includes a file allocation table, FAT (150,160); and determining file system objects of the source disk to be excluded for the image level backup based on the selection of the at least one file system object; issuing file deletion API calls to initiate deletion of the determined file system objects from the source disk; initializing an input/output (I/O) interception module on a backup server; intercepting write requests to the FAT caused by the file deletion API calls; storing, in a memory of the backup server, a FAT content change based on the intercepted write requests; and creating a reconstructed disk image from the source disk based on the FAT and the stored FAT content change.
A method for producing a puncture sealant, characterised by comprising: performing a first mixing to mix an anti-freezing agent and water; performing a second mixing to mix a mixed liquid obtained from the first mixing and a rubber latex; and performing a third mixing to mix a mixed liquid obtained from the second mixing and an adhesive agent. performing a first mixing to mix an anti-freezing agent and water; performing a second mixing to mix a mixed liquid obtained from the first mixing and a rubber latex; and performing a third mixing to mix a mixed liquid obtained from the second mixing and an adhesive agent.
A method for managing instruction blocks in an instruction window disposed in a processor core, comprising: explicitly tracking ages of fetched instructions blocks which are buffered in the instruction window and maintaining an age-ordered list of fetched blocks, in which the explicit tracking is performed independently from instruction block order within the instruction window; replacing a committed instruction block with a new instruction block, in which the buffering is performed with contiguous instruction block replacement or non-contiguous instruction block replacement, wherein when buffering with contiguous replacement, operating the instruction window as a circular buffer and replacing instruction blocks based on their order in the instruction window, and when buffering with non-contiguous replacement, replacing instruction blocks out of order in the instruction window in which blocks are replaced based on a the explicitly-tracked ages of instruction blocks, based on at least one of: checking the age-ordered list for a match or mapping the fetched block to an available slot in the instruction window; and executing the replacement instruction blocks. explicitly tracking ages of fetched instructions blocks which are buffered in the instruction window and maintaining an age-ordered list of fetched blocks, in which the explicit tracking is performed independently from instruction block order within the instruction window; replacing a committed instruction block with a new instruction block, in which the buffering is performed with contiguous instruction block replacement or non-contiguous instruction block replacement, wherein when buffering with contiguous replacement, operating the instruction window as a circular buffer and replacing instruction blocks based on their order in the instruction window, and when buffering with non-contiguous replacement, replacing instruction blocks out of order in the instruction window in which blocks are replaced based on a the explicitly-tracked ages of instruction blocks, based on at least one of: checking the age-ordered list for a match or mapping the fetched block to an available slot in the instruction window; and executing the replacement instruction blocks.
Viewfinder with red dot and illuminator comprising a first fixed light source and a first reflective plate (34, 53), the light source generating a first collimated beam of light that is projected on the reflective plate (34, 53) in order to materialize a red dot or reticle visible for the shooter by the reflection on the reflective plate (34, 53) and the first beam being projected on the reflective plate (34, 53) by means of a rotary mirror, the incline angle of which relative to the first light beam is adjustable, characterized in that said viewfinder further comprises a second fixed light source generating a second collimated beam of light that is initially parallel to the first beam of light returned by said rotary mirror toward a second reflective plate (35, 54) arranged at a 90° angle from the first reflective plate in order to illuminate/designate a target.
An information processing apparatus comprising: control means for checking a power supply start-up state of the information processing apparatus; first communication means for establishing a wireless communication with an external apparatus; and second communication means for communicating with the external apparatus via a close proximity wireless communication; wherein the second communication means is configured to receive a request from the external apparatus when the external apparatus is in close proximity to the information processing apparatus; wherein the second communication means is configured to transmit, in response to the request from the external apparatus, time information based on the power supply start-up state to the external apparatus; wherein the time information indicates a time required for the information processing apparatus to reach a state in which the information processing apparatus can receive an access request from the external apparatus using the first communication means. control means for checking a power supply start-up state of the information processing apparatus; first communication means for establishing a wireless communication with an external apparatus; and second communication means for communicating with the external apparatus via a close proximity wireless communication; wherein the second communication means is configured to receive a request from the external apparatus when the external apparatus is in close proximity to the information processing apparatus; wherein the second communication means is configured to transmit, in response to the request from the external apparatus, time information based on the power supply start-up state to the external apparatus; wherein the time information indicates a time required for the information processing apparatus to reach a state in which the information processing apparatus can receive an access request from the external apparatus using the first communication means.
A dental floss insertion device for inserting an end of a length of dental floss into an enclosed oral space, the device comprising: a body at least partially defining a floss guide path configured to receive the end of the length of floss; a tip located on a distal end of the body and defining a distal orifice that communicates with the floss guide path; a first roller positioned on a first side of the guide path and rotatable about a first axis; and, a second roller positioned on a second side of the guide path and rotatable about a second axis for advancing the end of the length of floss along the guide path and through the distal orifice, characterized in that the second axis is moveable toward and away from the first axis, wherein a portion of the second roller extends outside the body and is configured to permit a user to exert a compressive force on the floss by way of the second roller while simultaneously rolling the second roller to advance the floss along the guide path. a body at least partially defining a floss guide path configured to receive the end of the length of floss; a tip located on a distal end of the body and defining a distal orifice that communicates with the floss guide path; a first roller positioned on a first side of the guide path and rotatable about a first axis; and, a second roller positioned on a second side of the guide path and rotatable about a second axis for advancing the end of the length of floss along the guide path and through the distal orifice, characterized in that the second axis is moveable toward and away from the first axis,
Thermal printer mechanism comprising: - a frame comprising on each side a flat profile portion, - a thermal printhead comprising a thermal dot line, said thermal printhead being integral and fixed to the frame in a direction substantially perpendicular to the flat profile portion of the frame, - a platen roller having a gear at one end of its axle, said axle being able for tangent contact with the flat profile portion of the frame and being able to move in translation along such flat profile portion of the frame, in order to be guided and aligned to the printhead thermal dot line, - pressure means to urge the platen roller against the printhead, - a motor to move in rotation the platen roller, characterized in that it further comprises a helicoid screw for transmitting of the mechanical power from the motor to the platen roller gear, said helicoid screw being positioned substantially perpendicular to the printhead and engaged with the platen roller gear when the platen roller axle is in tangent contact with the flat profile portion of the frame. - a frame comprising on each side a flat profile portion, - a thermal printhead comprising a thermal dot line, said thermal printhead being integral and fixed to the frame in a direction substantially perpendicular to the flat profile portion of the frame, - a platen roller having a gear at one end of its axle, said axle being able for tangent contact with the flat profile portion of the frame and being able to move in translation along such flat profile portion of the frame, in order to be guided and aligned to the printhead thermal dot line, - pressure means to urge the platen roller against the printhead, - a motor to move in rotation the platen roller,
A method, comprising: receiving input audio content representing mixed audio sources; separating the mixed audio sources, thereby obtaining separated audio source signals and a residual signal, wherein the residual signal is a signal which remains after the mixed audio sources have been separated, and wherein the residual signal results from an imperfect separation of the mixed audio sources; and generating output audio content by mixing the separated audio source signals and the residual signal. receiving input audio content representing mixed audio sources; separating the mixed audio sources, thereby obtaining separated audio source signals and a residual signal, wherein the residual signal is a signal which remains after the mixed audio sources have been separated, and wherein the residual signal results from an imperfect separation of the mixed audio sources; and generating output audio content by mixing the separated audio source signals and the residual signal.
A method of identifying a subject having a bacterial infection comprising detecting in a subject derived RNA sample the modulation in gene expression levels of a gene signature comprising two or more genes, but no more than 10 genes, selected from the group consisting of: IFI44L, FAM89A, IFI27, IFIT1, RSAD2, IFIT3, OTOF, IFIT2, EPSTI1, SERPING1, OAS1, IFI6, HLA-DRB6, HBZ, HS.386275, EIF2AK2, IFIT1L, FCER1A, C21ORF7, GYPE, GYPB, HBM, EIF1AY, LOC649143, HBD, FBX07, KCNMA1, MERTK, EBI3, UPB1, EMR1, PTPN20, TMEM119, SLPI, S100P and PI3.
An oral care composition comprising: a. a phenolic alkenone comprising zingerone, where the zingerone is present in an amount from 0.01 to 1 wt %, based on the total weight of the composition, b. zinc oxide; c. zinc citrate; and d. a stannous ion source, wherein the source of stannous ions is stannous fluoride in an amount of 0.1 to 2 wt %, based on the total weight of the composition; wherein the zinc citrate is present in an amount of from 0.25 to 1.0 wt % and zinc oxide is present in an amount of from 0.75 to 1.25 wt %, based on the total weight of the composition. a. a phenolic alkenone comprising zingerone, where the zingerone is present in an amount from 0.01 to 1 wt %, based on the total weight of the composition, b. zinc oxide; c. zinc citrate; and d. a stannous ion source, wherein the source of stannous ions is stannous fluoride in an amount of 0.1 to 2 wt %, based on the total weight of the composition;
A process for manufacturing a silver-plated copper or copper alloy blank wire, having a silver layer thickness of 1.5 μm to 15 μm, comprising the step of electrolytically depositing silver on the copper or copper alloy blank wire, said electrolytic deposition being performed at a pulsating current with reversal in a silver-plating bath comprising from 40 to 70 g/l of silver cyanide and from 90 g/l to 150 g/l of potassium cyanide, the electrolytic conditions being as follows: - average current density Jm comprised between 1.5 A/dm 2 and 15 A/dm 2, advantageously between 1.78 A/dm 2 and 5 A/dm 2; - pulse frequency f comprised between 0.8 Hz and 1.6 Hz, advantageously between 0.8 Hz and 1.4 Hz, in particular 1 Hz; - duty cycle Q comprised between 50 and 80%, advantageously between 55% and 65%; - current density of the cathode peak Jc comprised between 3 A/dm 2 and 11 A/dm 2, advantageously between 5 A/dm 2 and 10 A/dm 2; - current density of the anode peak Ja comprised between 1 A/dm 2 and 5 A/dm 2, advantageously between 1.28 A/dm 2 and 4.2 A/dm 2; - time of maintaining the cathodic pulse Tc comprised between 0.2 s and 0.8 s, advantageously between 0.55 s and 0.65 s and - time of maintaining the anode pulse Ta comprised between 0.06 s and 0.5 s, advantageously between 0.35 s and 0.45 s. - average current density Jm comprised between 1.5 A/dm 2 and 15 A/dm 2, advantageously between 1.78 A/dm 2 and 5 A/dm 2; - pulse frequency f comprised between 0.8 Hz and 1.6 Hz, advantageously between 0.8 Hz and 1.4 Hz, in particular 1 Hz; - duty cycle Q comprised between 50 and 80%, advantageously between 55% and 65%; - current density of the cathode peak Jc comprised between 3 A/dm 2 and 11 A/dm 2, advantageously between 5 A/dm 2 and 10 A/dm 2; - current density of the anode peak Ja comprised between 1 A/dm 2 and 5 A/dm 2, advantageously between 1.28 A/dm 2 and 4.2 A/dm 2; - time of maintaining the cathodic pulse Tc comprised between 0.2 s and 0.8 s, advantageously between 0.55 s and 0.65 s and - time of maintaining the anode pulse Ta comprised between 0.06 s and 0.5 s, advantageously between 0.35 s and 0.45 s.
A brake carrier (1, 100) for a pneumatically or electromotively actuated disc brake of a utility vehicle, comprising: - a connecting region (2, 120) for fixing to a vehicle axle; - at least one pad shaft for receiving and supporting at least one brake pad; - this pad shaft being formed by a run-in-side carrier horn (4, 140), a run-out-side carrier horn (5, 150) and a bridge (3, 130) that connects the run-in-side carrier horn (4, 140) and the run-out-side carrier horn (5, 150); - regions of this bridge (3, 130) adjacent to the carrier horns (4, 5, 140, 150) forming bearing surfaces (31, 32, 131, 132) for providing radial support for the at least one brake pad; - there being arranged on a lateral face (42, 52, 142, 152) of the carrier horns (4, 5, 140, 150) guide contours (44, 54, 144, 154) for guiding the brake pad into an insertion position to the side of the pad shaft in which the brake pad can be inserted into the pad shaft between the carrier horns (4, 5, 140, 150) axially in relation to the vehicle axle; characterised in that - the guide contours (44, 54, 144, 154) of the carrier horns (4, 5, 140, 150) of a pad shaft are formed continuously one on top of another towards the bridge (3, 130). - a connecting region (2, 120) for fixing to a vehicle axle; - at least one pad shaft for receiving and supporting at least one brake pad; - this pad shaft being formed by a run-in-side carrier horn (4, 140), a run-out-side carrier horn (5, 150) and a bridge (3, 130) that connects the run-in-side carrier horn (4, 140) and the run-out-side carrier horn (5, 150); - regions of this bridge (3, 130) adjacent to the carrier horns (4, 5, 140, 150) forming bearing surfaces (31, 32, 131, 132) for providing radial support for the at least one brake pad; - there being arranged on a lateral face (42, 52, 142, 152) of the carrier horns (4, 5, 140, 150) guide contours (44, 54, 144, 154) for guiding the brake pad into an insertion position to the side of the pad shaft in which the brake pad can be inserted into the pad shaft between the carrier horns (4, 5, 140, 150) axially in relation to the vehicle axle; - the guide contours (44, 54, 144, 154) of the carrier horns (4, 5, 140, 150) of a pad shaft are formed continuously one on top of another towards the bridge (3, 130).
A method for sorting cellular bodies comprising: receiving images representing manipulation of first cellular bodies in a holding space of a flow cell, the flow cell including or being connected to a sorting device, the manipulation including: providing the first cellular bodies in the holding space to allow at least part of the first cellular bodies to contact a functionalized wall of the holding space; applying a force, preferably an acoustic force, to the contacted first cellular bodies in a direction away from the functionalized wall for detaching at least part of the first cellular bodies; and, transporting the detached cellular bodies to the sorting device for sorting the detached cellular bodies; processing the sequence of images during the manipulation of the first cellular bodies and controlling the sorting device based on the image processing, the processing and controlling including: detecting detachments of first cellular bodies in the images during the application of the force; determining for detected detached first cellular body a detachment force; tracking the location of detected detached first cellular bodies during the transport of the detached cellular bodies to the sorting device; and, sorting the detached cellular bodies by controlling the sorting device based on the detachment force. receiving images representing manipulation of first cellular bodies in a holding space of a flow cell, the flow cell including or being connected to a sorting device, the manipulation including: providing the first cellular bodies in the holding space to allow at least part of the first cellular bodies to contact a functionalized wall of the holding space; applying a force, preferably an acoustic force, to the contacted first cellular bodies in a direction away from the functionalized wall for detaching at least part of the first cellular bodies; and, transporting the detached cellular bodies to the sorting device for sorting the detached cellular bodies; processing the sequence of images during the manipulation of the first cellular bodies and controlling the sorting device based on the image processing, the processing and controlling including: detecting detachments of first cellular bodies in the images during the application of the force; determining for detected detached first cellular body a detachment force; tracking the location of detected detached first cellular bodies during the transport of the detached cellular bodies to the sorting device; and, sorting the detached cellular bodies by controlling the sorting device based on the detachment force.
A stabilizer system associated with a power converter controller and being configured to be coupled to a converter interface controller, the stabilizer system comprising: a regulator (184, 204) coupled to the converter interface controller and configured to generate a first command signal (192, 166) and transmit the first command signal (192, 166) to the converter interface controller, a regulator stabilizer configured to receive a phase locked loop error signal and to generate a regulator stabilization signal based at least partially on the PLL error signal, wherein the PLL error signal is indicative of system oscillations, and characterized in that the regulator (184, 204) is coupled to said regulator stabilizer, said regulator being (184, 204) configured to: receive the regulator stabilization signal; and generate the first command signal (192, 166), based at least partially on the regulator stabilization signal, that reduces the system oscillations. a regulator (184, 204) coupled to the converter interface controller and configured to generate a first command signal (192, 166) and transmit the first command signal (192, 166) to the converter interface controller, a regulator stabilizer configured to receive a phase locked loop error signal and to generate a regulator stabilization signal based at least partially on the PLL error signal, wherein the PLL error signal is indicative of system oscillations, and characterized in that the regulator (184, 204) is coupled to said regulator stabilizer, said regulator being (184, 204) configured to: receive the regulator stabilization signal; and generate the first command signal (192, 166), based at least partially on the regulator stabilization signal, that reduces the system oscillations. receive the regulator stabilization signal; and generate the first command signal (192, 166), based at least partially on the regulator stabilization signal, that reduces the system oscillations.