mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding video data, the method comprising: receiving a parameter set comprising one or more first bits and one or more second bits, wherein the one or more first bits indicate whether tiles are enabled for a series of video blocks, wherein the one or more second bits are different from the one or more first bits, and wherein the one or more second bits indicate whether wavefront parallel processing is enabled for the series of video blocks; in response to both tiles and WPP being enabled for a slice, a tile starts the slice, wavefronts are present entirely within tiles, wavefronts do not span across multiple tiles and the entry points signaled in the slice header are interpreted as WPP entry points; in response to only tiles being enabled, interpreting entry points signaled in a slice header as corresponding to tile entry points; in response to only WPP being enabled, interpreting the entry points signaled in the slice header as corresponding to WPP entry points; decoding the series of video blocks based on the parameter set. receiving a parameter set comprising one or more first bits and one or more second bits, wherein the one or more first bits indicate whether tiles are enabled for a series of video blocks, wherein the one or more second bits are different from the one or more first bits, and wherein the one or more second bits indicate whether wavefront parallel processing is enabled for the series of video blocks; in response to both tiles and WPP being enabled for a slice, a tile starts the slice, wavefronts are present entirely within tiles, wavefronts do not span across multiple tiles and the entry points signaled in the slice header are interpreted as WPP entry points; in response to only tiles being enabled, interpreting entry points signaled in a slice header as corresponding to tile entry points; in response to only WPP being enabled, interpreting the entry points signaled in the slice header as corresponding to WPP entry points; decoding the series of video blocks based on the parameter set.
A method for generating pulsed laser energy, the method comprising: (a) reflecting laser energy generated by a lasing medium between a first mirror with at least 90% reflectivity at one end of a resonator and a second mirror with at least 90% reflectivity at the opposite end of said resonator and through a polarizer and a Pockels cell within said resonator; (b) applying to the Pockels cell a first time dependent bias voltage that establishes a first mode of operation of the resonator in which a modelocked pulse is generated within the resonator; (c) then applying to the Pockels cell a second bias voltage to cause no change in the plane of polarization of the modelocked pulse after two passes through the Pockels cell and reflection at the second mirror and wherein the modelocked pulse traverses the polarizer substantially without loss of intensity or amplitude and is amplified by energy previously pumped and stored in the lasing medium during modelocking; and (d) then applying a third bias voltage to the Pockels cell to cause a 90° change in the plane of polarization of the amplified modelocked pulse after two passes through the Pockels cell and reflection at the second mirror and wherein a portion of the energy of the amplified modelocked pulse is rejected at the polarizer and exits the resonator as pulsed laser energy. (a) reflecting laser energy generated by a lasing medium between a first mirror with at least 90% reflectivity at one end of a resonator and a second mirror with at least 90% reflectivity at the opposite end of said resonator and through a polarizer and a Pockels cell within said resonator; (b) applying to the Pockels cell a first time dependent bias voltage that establishes a first mode of operation of the resonator in which a modelocked pulse is generated within the resonator; (c) then applying to the Pockels cell a second bias voltage to cause no change in the plane of polarization of the modelocked pulse after two passes through the Pockels cell and reflection at the second mirror and wherein the modelocked pulse traverses the polarizer substantially without loss of intensity or amplitude and is amplified by energy previously pumped and stored in the lasing medium during modelocking; and (d) then applying a third bias voltage to the Pockels cell to cause a 90° change in the plane of polarization of the amplified modelocked pulse after two passes through the Pockels cell and reflection at the second mirror and wherein a portion of the energy of the amplified modelocked pulse is rejected at the polarizer and exits the resonator as pulsed laser energy.
Arrangement for holding a luggage compartment bin on a motor vehicle body structure, the luggage compartment bin being mounted on a front part of the vehicle body structure located between a passenger compartment part of the motor vehicle and a front end of the vehicle, under an opening portion of the bonnet type consisting of a skin forming a visible side and a lining forming a reinforcement, said luggage compartment bin comprising an upper rabbet which extends circumferentially beneath said lining of said bonnet and on which there is designed to be secured a sealing profile that is designed to be compressed between said upper rabbet of said luggage compartment bin and said lining of said bonnet, in a closed position of said bonnet, characterized in that said luggage compartment bin has a lower wall located opposite said bonnet with respect to said upper rabbet, said lower wall being mounted in the rear part on a crossmember extending along a transverse axis of the vehicle between two front stringers (3, 4) laterally delimiting said front part of said body structure, via the intermediary of at least two connection zones, each connection zone comprising a bridge that has an arch-shaped section, designed to be secured between an upper wall of said crossmember and said lower wall of said luggage compartment bin, said bridge being dimensioned in such a way that it can collapse on itself in the event of an impact on said bonnet, in particular from the head of a pedestrian, so as to constitute a deformable connection zone that allows said luggage compartment bin to be depressed along the vertical axis of the vehicle in the event of said impact.
A thrust reverser assembly, comprising: a cascade of vanes; a sleeve configured to translate relative to the cascade of vanes, the sleeve including an inner sleeve portion and an outer sleeve portion; a first track coupled to a radially outward surface of the inner sleeve portion, the first track defining a first aperture; a second track coupled to the radially outward surface of the inner sleeve portion and defining a second aperture, wherein the second track is circumferentially adjacent to the first track; a first blocker door located between the inner sleeve portion and the outer sleeve portion, the first blocker door including a first pin located through the first aperture, and and a second pin located through the second aperture; a third track coupled to the radially outward surface of the inner sleeve portion; a second blocker door circumferentially adjacent to the first blocker door and slidably coupled to the third track; and characterized in further comprising a plurality of guide rails coupled to the radially outward surface of the inner sleeve portion, wherein a first guide rail of the plurality of guide rails includes the first track and the third track, and wherein a second guide rail of the plurality of guide rails includes the second track and a fourth track. a cascade of vanes; a sleeve configured to translate relative to the cascade of vanes, the sleeve including an inner sleeve portion and an outer sleeve portion; a first track coupled to a radially outward surface of the inner sleeve portion, the first track defining a first aperture; a second track coupled to the radially outward surface of the inner sleeve portion and defining a second aperture, wherein the second track is circumferentially adjacent to the first track; a first blocker door located between the inner sleeve portion and the outer sleeve portion, the first blocker door including a first pin located through the first aperture, and and a second pin located through the second aperture; a third track coupled to the radially outward surface of the inner sleeve portion; a second blocker door circumferentially adjacent to the first blocker door and slidably coupled to the third track; and characterized in further comprising a plurality of guide rails coupled to the radially outward surface of the inner sleeve portion, wherein a first guide rail of the plurality of guide rails includes the first track and the third track, and wherein a second guide rail of the plurality of guide rails includes the second track and a fourth track.
A phased array antenna comprising: a two dimensional array of lens enhanced radiator units, each radiator unit comprising: a radiator for generating a radio frequency, RF, signal; a two-dimensional phase variable lens group defining an aperture in a transmission path of the RF signal, the lens group comprising a two dimensional array of individually controllable lens elements enabling a varying transmission phase to be applied to the RF signal across the aperture of the lens group; wherein the aperture of each lens group is greater than twice a minimum operating wavelength λ of the RF signal. a two dimensional array of lens enhanced radiator units, each radiator unit comprising: a radiator for generating a radio frequency, RF, signal; a two-dimensional phase variable lens group defining an aperture in a transmission path of the RF signal, the lens group comprising a two dimensional array of individually controllable lens elements enabling a varying transmission phase to be applied to the RF signal across the aperture of the lens group; wherein the aperture of each lens group is greater than twice a minimum operating wavelength λ of the RF signal. a radiator for generating a radio frequency, RF, signal; a two-dimensional phase variable lens group defining an aperture in a transmission path of the RF signal, the lens group comprising a two dimensional array of individually controllable lens elements enabling a varying transmission phase to be applied to the RF signal across the aperture of the lens group; wherein the aperture of each lens group is greater than twice a minimum operating wavelength λ of the RF signal.
Shock absorber bearing for an arbor of a timepiece wheel set, particularly for a balance staff, comprising a bearing assembly comprising a housing, a bearing support arranged against the bottom of said housing and comprising an external centring wall, a pivot bearing mounted on the bearing support for receiving a pivot of the wheel set arbor and an elastic support arrangement for the wheel set arbor pivot, the shock absorber bearing further comprising a play recentring device, characterized in that the play recentring device comprises, on the one hand, a first part comprising a centring element having an internal centring wall inside which is arranged the external centring wall of the bearing support, and on the other hand, a second part resting on the bearing assembly and arranged to have a return effect on the first part, and in that the bearing assembly comprises an internal wall comprising a cylindrical shoulder having a radial bearing surface and an axial bearing surface and in that said second part of the play recentring device comprises an annular portion arranged on the radial bearing surface of the shoulder and an elastic portion extending beyond said radial bearing surface towards the axis of the bearing.
Shared-key encryption method using a key shared between a central server (100, 300) and a smart meter (130, 13N, 200), the method being carried out by the smart meter, the method being characterized in that it comprises: - receiving a first message comprising a first password, the first message indicating the opening of a communication session, - determining a first fingerprint corresponding to a fingerprint of the first password, - obtaining a second predetermined fingerprint, and, when the first fingerprint is equal to the second fingerprint, then: - obtaining a predetermined encryption parameter, - generating an encryption key on the basis of the received first password and of the encryption parameter, - receiving a second message from the central server, the second message being encrypted and comprising a command to query a value of a meter of a metering module of the smart meter, and - decrypting the second message by means of the encryption key, - determining a new value for the encryption parameter, which new value is chosen so as to be equal to the value of the meter of the metering module that has been queried, - transmitting (427, 429) a third message to the central server, the third message comprising the new value of the encryption parameter and being encrypted by means of the encryption key, and - updating the value of the encryption parameter recorded on a storage module with the new value of the encryption parameter, the new value of the encryption parameter being used to determine a new encryption key, which is common to the central server and to the smart meter, during a new communication session. - receiving a first message comprising a first password, the first message indicating the opening of a communication session, - determining a first fingerprint corresponding to a fingerprint of the first password, - obtaining a second predetermined fingerprint, and, - obtaining a predetermined encryption parameter, - generating an encryption key on the basis of the received first password and of the encryption parameter, - receiving a second message from the central server, the second message being encrypted and comprising a command to query a value of a meter of a metering module of the smart meter, and - decrypting the second message by means of the encryption key, - determining a new value for the encryption parameter, which new value is chosen so as to be equal to the value of the meter of the metering module that has been queried, - transmitting (427, 429) a third message to the central server, the third message comprising the new value of the encryption parameter and being encrypted by means of the encryption key, and - updating the value of the encryption parameter recorded on a storage module with the new value of the encryption parameter, the new value of the encryption parameter being used to determine a new encryption key, which is common to the central server and to the smart meter, during a new communication session.
A culture apparatus for culturing cells and/or a tissue or portion thereof and comprising a holder body, the holder body comprising a plurality of chambers for containing a cell culture media and at least one fluid communication pathway extending between at least two respective chambers of the plurality of chambers, each fluid communication pathway permitting bi-directional fluid flow between said at least two chambers, and wherein said fluid communication pathway has a width of between 1.5mm and 3.5mm; and wherein each chamber of the plurality of chambers is configured to accommodate a chamber insert element configured to support a cell scaffold element, wherein said chamber insert element further comprises a cell scaffold element having a plurality of pores, said plurality of pores having an average diameter of between about around 8μm to about 150μm. said fluid communication pathway has a width of between 1.5mm and 3.5mm; and wherein each chamber of the plurality of chambers is configured to accommodate a chamber insert element configured to support a cell scaffold element, wherein said chamber insert element further comprises a cell scaffold element having a plurality of pores, said plurality of pores having an average diameter of between about around 8μm to about 150μm.
A circuit board component, comprising a circuit board and a trace disposed on the circuit board, wherein the trace comprises a first portion and a second portion, a line width of the first portion is greater than or equal to a preset line width threshold for the trace, and a line width of the second portion is less than the line width threshold, wherein the circuit board component further comprises an auxiliary trace disposed between the circuit board and the second portion, and the auxiliary trace is electrically connected to the trace, wherein the trace is a trace connected between a charging interface and a charging conversion component, wherein the circuit board component further comprises a first hollow area and a second hollow area, and the first hollow area and the second hollow area are respectively on two opposite sides of the second portion, wherein the first hollow area and the second hollow area are each a rectangular area, a length of the first hollow area along an extension direction of the trace is equal to a length of the auxiliary trace, and a line width of the auxiliary trace is equal to a sum of a width of the first hollow area and a width of the second hollow area. the circuit board component further comprises an auxiliary trace disposed between the circuit board and the second portion, and the auxiliary trace is electrically connected to the trace, wherein the trace is a trace connected between a charging interface and a charging conversion component, wherein the circuit board component further comprises a first hollow area and a second hollow area, and the first hollow area and the second hollow area are respectively on two opposite sides of the second portion, wherein the first hollow area and the second hollow area are each a rectangular area, a length of the first hollow area along an extension direction of the trace is equal to a length of the auxiliary trace, and a line width of the auxiliary trace is equal to a sum of a width of the first hollow area and a width of the second hollow area.
A system for reducing erroneous weighing of an item on a weigh platter (20, 120) of a scanner-scale (10, 110), comprising a light source (26, 126) disposed in or on a housing of the scanner-scale (10, 110) for producing a light beam (32, 38, 132, 138) along an edge of the weigh platter (20, 120); a detector (40, 140) for receiving the light beam (32, 38, 132, 138), the detector (40, 140) disposed in or on the housing; wherein the detector (40, 140) is operative for detecting an interruption of the light beam (32, 38, 132, 138) due to an item encroaching upon or overhanging an edge of the weigh platter (20, 120); characterized by a light guide disposed in the weigh platter (20, 120) for routing the light beam (32, 38, 132, 138) to the detector (40, 140).
A carbonated beverage filled into a container, wherein in the beverage a content of RebA is 250 ppm or less, a content of RebM is 486 ppm or less, (RebM/RebA) is 2.5 or more in mass ratio, a total content of RebA and RebM is 1.0 to 11.5 in Brix in terms of sucrose, caffeine content is 1 to 200 ppm, and the gas pressure of carbon dioxide gas is 211 kPa (2.15 kgf/cm 2) or more.
A method comprising: receiving a first input signal (s 1 (t)) associated with a first microphone and a second input signal (s 2 (t)) associated with a second microphone; scaling the second input signal (s 2 (t)) by multiplying the second input signal (s 2 (t)) by a calibration factor (c 1 (t)) to obtain a scaled second input signal (s' 2 (t)); applying a beamforming technique to the first input signal (s 1 (t)) and to the scaled second input signal (s' 2 (t)) to obtain corresponding first and second output signals (x 1 (t), x 2 (t)), wherein applying a beamforming technique includes adding the first input signal (s 1 (t)) to the scaled second input signal (s' 2 (t)) to obtain the first output signal (x 1 (t)) and subtracting the first input signal (s 1 (t)) from the scaled second input signal (s' 2 (t)) to obtain the second output signal (x 2 (t)); and applying a blind source separation, BSS, technique to the first output signal(x 1 (t)) and second output signal (x 2 (t)) to generate a first BSS signal and a second BSS signal. receiving a first input signal (s 1 (t)) associated with a first microphone and a second input signal (s 2 (t)) associated with a second microphone; scaling the second input signal (s 2 (t)) by multiplying the second input signal (s 2 (t)) by a calibration factor (c 1 (t)) to obtain a scaled second input signal (s' 2 (t)); applying a beamforming technique to the first input signal (s 1 (t)) and to the scaled second input signal (s' 2 (t)) to obtain corresponding first and second output signals (x 1 (t), x 2 (t)), wherein applying a beamforming technique includes adding the first input signal (s 1 (t)) to the scaled second input signal (s' 2 (t)) to obtain the first output signal (x 1 (t)) and subtracting the first input signal (s 1 (t)) from the scaled second input signal (s' 2 (t)) to obtain the second output signal (x 2 (t)); and applying a blind source separation, BSS, technique to the first output signal(x 1 (t)) and second output signal (x 2 (t)) to generate a first BSS signal and a second BSS signal.
Rotating pump having at least one driven conveying element (7, 8) which is arranged in a product space, flowed through by the product to be conveyed, and is driven by means of a shaft (9, 10) which protrudes into the product space from the outside, the shaft being sealed with respect to a wall of the product space, and the seal being configured as a slide ring seal (61, 62) to be mounted on the product side with an outer positively locking positional securing means, characterized in that the positional securing means is set up to prevent a turning of the slide ring seal (61, 62) and a displacement of the slide ring seal (61, 62) in the direction of the product space.
Method for regulating voltage in a distribution network including at least one power transformer, distribution lines, switches (14,15) and distribution transformers, characterized in that the method includes the following steps: a) checking the state of the distribution network, b) performing a detailed analysis of the distribution network for each distribution transformer to find which distribution transformer(s), connected to the power transformer, which has highest voltage at the secondary side of the distribution transformer during operation, c) calculating voltage or acquiring voltage measurements from the secondary side of the chosen distribution transformer(s), d) calculating deviation between desired voltage and measured voltage at the secondary side of the chosen distribution transformer(s), and settings for the power transformer, e) regulating the power transformer so that desired voltage at the secondary side of the chosen distribution transformer(s) is achieved, f) repeating the steps a)-e) at predefined intervals. a) checking the state of the distribution network, b) performing a detailed analysis of the distribution network for each distribution transformer to find which distribution transformer(s), connected to the power transformer, which has highest voltage at the secondary side of the distribution transformer during operation, c) calculating voltage or acquiring voltage measurements from the secondary side of the chosen distribution transformer(s), d) calculating deviation between desired voltage and measured voltage at the secondary side of the chosen distribution transformer(s), and settings for the power transformer, e) regulating the power transformer so that desired voltage at the secondary side of the chosen distribution transformer(s) is achieved, f) repeating the steps a)-e) at predefined intervals.