mhurhangee/patent-ind-claim-en huggingface dataset:
A protective jacket for a pressure vessel , the protective jacket comprising: a) a substantially flat, circular upper support rim for engaging an upper portion of a pressure vessel; b) a substantially flat, circular lower support rim for engaging a lower portion of the pressure vessel; c) a substantially cylindrical wall connecting the upper support rim and the lower support rim; and d) a pair of opposed, arcuate handles formed integral with the substantially cylindrical wall and extending above the upper support rim, the handles being configured at their upper most extent for nesting engagement with a handle receiving base feature defined in the lower support rim so that when multiple protective jackets are stacked one on top of the other, the handles can be engaged with the handle receiving base of another protective jacket; characterized in that the substantially cylindrical wall tapers inward along a curve beginning substantially in a medial region of the wall and extending beyond the upper support rim and into the handles; and in that there is e) a shock-absorbing padding in the lower support rim and disposed between the protective jacket 12 and a hybrid tank received within the protective jacket, the padding including a plurality of noncontinuously annular radially extending ribs disposed on a surface of the padding facing the hybrid trank, so that, when the hybrid tank is seated against the noncontinuously, annular, radially extending ribs, an annular flow channel is disposed between an outer surface of the hybrid tank and the wall . a) a substantially flat, circular upper support rim for engaging an upper portion of a pressure vessel; b) a substantially flat, circular lower support rim for engaging a lower portion of the pressure vessel; c) a substantially cylindrical wall connecting the upper support rim and the lower support rim; and d) a pair of opposed, arcuate handles formed integral with the substantially cylindrical wall and extending above the upper support rim, the handles being configured at their upper most extent for nesting engagement with a handle receiving base feature defined in the lower support rim so that when multiple protective jackets are stacked one on top of the other, the handles can be engaged with the handle receiving base of another protective jacket; characterized in that the substantially cylindrical wall tapers inward along a curve beginning substantially in a medial region of the wall and extending beyond the upper support rim and into the handles; and in that there is e) a shock-absorbing padding in the lower support rim and disposed between the protective jacket 12 and a hybrid tank received within the protective jacket, the padding including a plurality of noncontinuously annular radially extending ribs disposed on a surface of the padding facing the hybrid trank, so that, when the hybrid tank is seated against the noncontinuously, annular, radially extending ribs, an annular flow channel is disposed between an outer surface of the hybrid tank and the wall .
A communication device (13-1) comprising: transmission and reception circuitry (31-1) configured to communicate with an external communication device via a data signal line (14-1) and a clock signal line (14-2), the communication including transmitting and receiving data via the data signal line (14-1), the data including an expected parity and a payload, the expected parity including a first expected parity bit and a second expected parity bit; and control circuitry (32-1) configured to perform a parity check to received data by calculating a first calculated parity bit and a second calculated parity bit and comparing the first expected parity bit to the first calculated parity bit and the second expected parity bit to the second calculated parity bit, wherein one of the first calculated parity bit or the second calculated parity bit are calculated based on the data using an XOR function on one of all odd payload bits or all even payload bits, and the other one of the first calculated parity bit or the second calculated parity bit are calculated using an XOR function of the other of all odd payload bits or all even payload bits adding 1, wherein, in a case where the control circuitry (32-1) determines that an error has occurred, the control circuitry (32-1) causes the transmission and reception circuitry (31-1) to transmit a negative acknowledgement signal to the external communication device and the control circuitry (32-1) causes the transmission and reception circuitry (31-1) to interrupt the communication. transmission and reception circuitry (31-1) configured to communicate with an external communication device via a data signal line (14-1) and a clock signal line (14-2), the communication including transmitting and receiving data via the data signal line (14-1), the data including an expected parity and a payload, the expected parity including a first expected parity bit and a second expected parity bit; and control circuitry (32-1) configured to perform a parity check to received data by calculating a first calculated parity bit and a second calculated parity bit and comparing the first expected parity bit to the first calculated parity bit and the second expected parity bit to the second calculated parity bit, wherein one of the first calculated parity bit or the second calculated parity bit are calculated based on the data using an XOR function on one of all odd payload bits or all even payload bits, and the other one of the first calculated parity bit or the second calculated parity bit are calculated using an XOR function of the other of all odd payload bits or all even payload bits adding 1, wherein, in a case where the control circuitry (32-1) determines that an error has occurred, the control circuitry (32-1) causes the transmission and reception circuitry (31-1) to transmit a negative acknowledgement signal to the external communication device and the control circuitry (32-1) causes the transmission and reception circuitry (31-1) to interrupt the communication.
A synchronization method for synchronizing a first audio signal (Sa1) played back by a first sound playback device (11; 31) with a second audio signal (Sa2) played back by a second sound playback device (12; 32), the first audio signal and the second audio signal being derived from a single original audio signal, the method comprising the steps of: - measuring a superposed audio signal (Sup) resulting from playing back the first audio signal and the second audio signal; - processing the superposed audio signal in order to obtain a first processed signal (St1), the processing comprising calculating a cross-correlation function or an auto-correlation function; - from the first processed signal, estimating an absolute value for a time shift (Δt) between the first audio signal and the second audio signal; - modifying at least one characteristic of the first audio signal or of the second audio signal; - measuring the superposed sound signal once more; - performing processing once more on the superposed sound signal in order to obtain a second processed signal (St2) ; - estimating the sign of the time shift from the second processed signal; - synchronizing the first audio signal and the second audio signal by applying to the first audio signal or to the second audio signal a delay time or an advance time corresponding to the time shift. - measuring a superposed audio signal (Sup) resulting from playing back the first audio signal and the second audio signal; - processing the superposed audio signal in order to obtain a first processed signal (St1), the processing comprising calculating a cross-correlation function or an auto-correlation function; - from the first processed signal, estimating an absolute value for a time shift (Δt) between the first audio signal and the second audio signal; - modifying at least one characteristic of the first audio signal or of the second audio signal; - measuring the superposed sound signal once more; - performing processing once more on the superposed sound signal in order to obtain a second processed signal (St2) ; - estimating the sign of the time shift from the second processed signal; - synchronizing the first audio signal and the second audio signal by applying to the first audio signal or to the second audio signal a delay time or an advance time corresponding to the time shift.
A shoe assembly of a centrifugal-type slicing machine adapted for producing sliced food products, the shoe assembly comprising: a shoe ; a knife holder mounted to the shoe ; a knife mounted to the knife holder ; and means for clamping the knife to the knife holder ; wherein the knife comprises a longitudinal length defining oppositely-disposed first and second ends and defining oppositely-disposed edges between the first and second ends, and each of the edges has a cutting edge defined thereon adapted for slicing food products; and wherein when one cutting edge of the oppositely-disposed edges becomes dull during operation of the machine, the knife can be removed from the knife holder , turned over, and reinstalled so that the unused edge of the oppositely-disposed edges serves as the cutting edge of the knife ; and wherein the means for clamping the knife to the knife holder is configured to accommodate the knife such that the unused edge of the oppositely-disposed edges is not in contact with surfaces of the means for clamping while the knife is secured by the means for clamping ; characterised in the knife is a planar knife having rotational symmetry about a longitudinal axis thereof, wherein the cutting edges are bias-cut edges or wherein the cutting edges are substantially centered bevel-cut edges. a shoe ; a knife holder mounted to the shoe ; a knife mounted to the knife holder ; and means for clamping the knife to the knife holder ; wherein the knife comprises a longitudinal length defining oppositely-disposed first and second ends and defining oppositely-disposed edges between the first and second ends, and each of the edges has a cutting edge defined thereon adapted for slicing food products; and wherein when one cutting edge of the oppositely-disposed edges becomes dull during operation of the machine, the knife can be removed from the knife holder , turned over, and reinstalled so that the unused edge of the oppositely-disposed edges serves as the cutting edge of the knife ; and wherein the means for clamping the knife to the knife holder is configured to accommodate the knife such that the unused edge of the oppositely-disposed edges is not in contact with surfaces of the means for clamping while the knife is secured by the means for clamping ; characterised in the knife is a planar knife having rotational symmetry about a longitudinal axis thereof, wherein the cutting edges are bias-cut edges or wherein the cutting edges are substantially centered bevel-cut edges.
A method of wireless communication, comprising: receiving a downlink control information, DCI, comprising a resource assignment on a downlink, DL, component carrier, CC, in a carrier aggregation, CA, configuration, the resource assignment comprising an identifier associated with aperiodic sounding reference signal, A-SRS, transmissions on one or more uplink, UL, CCs in the CA configuration, an A-SRS trigger, and the resource assignment further comprising power control information for the A-SRS transmissions, wherein the identifier is an SRS radio network temporary identifier, RNTI, SRS-RNTI, and wherein the one or more UL CCs are configured to transmit A-SRS and not perform UL data transmissions; and transmitting the A-SRS transmissions on the one or more UL CCs in accordance with the power control information and the A-SRS trigger. receiving a downlink control information, DCI, comprising a resource assignment on a downlink, DL, component carrier, CC, in a carrier aggregation, CA, configuration, the resource assignment comprising an identifier associated with aperiodic sounding reference signal, A-SRS, transmissions on one or more uplink, UL, CCs in the CA configuration, an A-SRS trigger, and the resource assignment further comprising power control information for the A-SRS transmissions, wherein the identifier is an SRS radio network temporary identifier, RNTI, SRS-RNTI, and wherein the one or more UL CCs are configured to transmit A-SRS and not perform UL data transmissions; and transmitting the A-SRS transmissions on the one or more UL CCs in accordance with the power control information and the A-SRS trigger.
Date mechanism comprising - a date wheel intended to provide an item of information relating to the date, - a control wheel intended to be driven by a clockwork movement and to drive the date wheel by at least one step per day, in which the control wheel comprises: - a first drive level (12.2) for driving the date wheel by one step at the end of each day, - a second drive level (12.4) for driving the date wheel by an additional step at the end of the last day of a month comprising 30 days, and in which the date wheel bears: - a jumping end-of-month wheel (10.0), intended to collaborate with the second drive level (12.4) of the control wheel at least at the end of months comprising 30 days, the said jumping end-of-month wheel (10.0) being mounted in the manner of a satellite on the date wheel , characterized in that the date wheel also bears: - an assembly of an annual cam (10.1) and of a feeler-spindle (10.2), the latter being borne by a lever and being designed to position the jumping end-of-month wheel (10.0) angularly with reference to its own axis of rotation on the date wheel . - a date wheel intended to provide an item of information relating to the date, - a control wheel intended to be driven by a clockwork movement and to drive the date wheel by at least one step per day, - a first drive level (12.2) for driving the date wheel by one step at the end of each day, - a second drive level (12.4) for driving the date wheel by an additional step at the end of the last day of a month comprising 30 days, - a jumping end-of-month wheel (10.0), intended to collaborate with the second drive level (12.4) of the control wheel at least at the end of months comprising 30 days, the said jumping end-of-month wheel (10.0) being mounted in the manner of a satellite on the date wheel , - an assembly of an annual cam (10.1) and of a feeler-spindle (10.2), the latter being borne by a lever and being designed to position the jumping end-of-month wheel (10.0) angularly with reference to its own axis of rotation on the date wheel .
An ultrasonic welding system comprising: a support structure for supporting a workpiece (102a1, 300, 300a1); a weld head assembly including an ultrasonic converter carrying a sonotrode , the sonotrode being configured to operate during a welding operation at a bond force of between 5-500 kg, and with a sonotrode tip motion amplitude of between 5-150 microns; the system being characterised by : the weld head assembly being movable along a plurality of substantially horizontal axes; a camera , said camera preferably being carried by the weld head assembly, for imaging operations related to the alignment between sonotrode and clamped workpiece. a support structure for supporting a workpiece (102a1, 300, 300a1); a weld head assembly including an ultrasonic converter carrying a sonotrode , the sonotrode being configured to operate during a welding operation at a bond force of between 5-500 kg, and with a sonotrode tip motion amplitude of between 5-150 microns; the system being characterised by : the weld head assembly being movable along a plurality of substantially horizontal axes; a camera , said camera preferably being carried by the weld head assembly, for imaging operations related to the alignment between sonotrode and clamped workpiece.
A method for wireless communications by a user equipment, UE, comprising: identifying a plurality of slots in a subframe; receiving a resource configuration for an uplink channel, wherein the resource configuration is associated with a physical resource block, PRB, of a first slot of the plurality of slots, wherein the uplink channel is associated with a transmission time interval, TTI, duration of a slot of a subframe; determining a PRB resource for transmitting the uplink channel in a second slot of the plurality of slots, wherein the PRB resource is determined based on the resource configuration associated with the first slot of the plurality of slots, wherein the determining comprises calculating a mirrored location of the PRB of the first slot from the resource configuration associated with the first slot, wherein a PRB index of the PRB of the first slot is different to a PRB index of the PRB resource of the second slot, and wherein the determining further comprises calculating a second resource within the PRB of the second slot based on at least one of a first resource within the PRB of the first slot or a format of the uplink channel; and transmitting the uplink channel in the second slot using the determined PRB resource. identifying a plurality of slots in a subframe; receiving a resource configuration for an uplink channel, wherein the resource configuration is associated with a physical resource block, PRB, of a first slot of the plurality of slots, wherein the uplink channel is associated with a transmission time interval, TTI, duration of a slot of a subframe; determining a PRB resource for transmitting the uplink channel in a second slot of the plurality of slots, wherein the PRB resource is determined based on the resource configuration associated with the first slot of the plurality of slots, wherein the determining comprises calculating a mirrored location of the PRB of the first slot from the resource configuration associated with the first slot, wherein a PRB index of the PRB of the first slot is different to a PRB index of the PRB resource of the second slot, and wherein the determining further comprises calculating a second resource within the PRB of the second slot based on at least one of a first resource within the PRB of the first slot or a format of the uplink channel; and transmitting the uplink channel in the second slot using the determined PRB resource.
A tactile communication device equipped with at least one module comprising tactile, preferably vibratory, actuators or "tactons" each comprising at least one tactile zone intended to be applied, directly or indirectly, on the skin of an individual (I); and wherein: - the tactile zone of each tacton is disposed in the vicinity of one of the ends thereof, called the free tactile end and opposite to the base end of the tacton ; - each tacton comprises a cylindrical body having a height, a lower planar face and an identical upper planar face, the lower planar face being located on the side of the base end and the upper planar face being located on the side of the free tactile end ; - the cylindrical body of each tacton has a form factor F, defined by the ratio of its height to the greatest length of the lower and upper planar faces, such that F > 1; preferably 4 ≥ F > 1; and, more preferably still, 4 ≥ F ≥ 2; characterised in that - each tacton contains at least one tactile, preferably vibratory, source ; - the tactons are connected, by the base ends thereof, to a flexible fastening support comprising at least one plate ; each tacton being partially fitted, by the base end thereof, in an opening of the plate of the flexible support , the length of the fitted portion of the tacton preferably being comprised between 25% and 60% of the length of the tacton ; - and each plate of the flexible fastening support is made of a flexible material, having a Young's modulus comprised between 0.001 GPa and 0.5 GPa, preferably selected from the family of elastomers. - the tactile zone of each tacton is disposed in the vicinity of one of the ends thereof, called the free tactile end and opposite to the base end of the tacton ; - each tacton comprises a cylindrical body having a height, a lower planar face and an identical upper planar face, the lower planar face being located on the side of the base end and the upper planar face being located on the side of the free tactile end ; - the cylindrical body of each tacton has a form factor F, defined by the ratio of its height to the greatest length of the lower and upper planar faces, such that F > 1; preferably 4 ≥ F > 1; and, more preferably still, 4 ≥ F ≥ 2; - each tacton contains at least one tactile, preferably vibratory, source ; - the tactons are connected, by the base ends thereof, to a flexible fastening support comprising at least one plate ; each tacton being partially fitted, by the base end thereof, in an opening of the plate of the flexible support , the length of the fitted portion of the tacton preferably being comprised between 25% and 60% of the length of the tacton ; - and each plate of the flexible fastening support is made of a flexible material, having a Young's modulus comprised between 0.001 GPa and 0.5 GPa, preferably selected from the family of elastomers.
A multilayer tablet produced by a tableting step, the multilayer tablet comprising a concave portion having a depth comprised between 0.1 mm and 0.4 mm formed on at least one surface of both the front and back surfaces of the multilayer tablet, wherein a layer having said one surface having the concave portion is the top layer, wherein each of all layers other than the top layer has a concave portion with the same shape as said concave portion, in a top layer-side surface of the both surfaces of each layer, and the materials of the next layer are protruding into the concave portion, wherein said concave portion is one or more groove-like concave portions and said groove-like concave portion is a V-shaped groove, and said V-shaped groove has an inside angle of the V-shape of 70 degrees - 100 degrees, wherein the multilayer tablet contains various active pharmaceutical ingredients.
A stereo sound decoding method for decoding left and right channels of a stereo sound signal, the method is characterised by : receiving encoding parameters comprising encoding parameters of a primary channel, encoding parameters of a secondary channel, and a factor β , wherein the primary channel encoding parameters comprise LP filter coefficients of the primary channel; decoding the primary channel in response to the primary channel encoding parameters to provide a decoded primary channel; decoding the secondary channel using one of a plurality of coding models to provide a decoded secondary channel, wherein at least one of the coding models uses the primary channel LP filter coefficients to decode the secondary channel; and time domain up-mixing the decoded primary and secondary channels using the factor β to produce the decoded left and right channels of the stereo sound signal, wherein the factor β determines respective contributions of the primary and secondary channels upon production of the left and right channels. receiving encoding parameters comprising encoding parameters of a primary channel, encoding parameters of a secondary channel, and a factor β , wherein the primary channel encoding parameters comprise LP filter coefficients of the primary channel; decoding the primary channel in response to the primary channel encoding parameters to provide a decoded primary channel; decoding the secondary channel using one of a plurality of coding models to provide a decoded secondary channel, wherein at least one of the coding models uses the primary channel LP filter coefficients to decode the secondary channel; and time domain up-mixing the decoded primary and secondary channels using the factor β to produce the decoded left and right channels of the stereo sound signal, wherein the factor β determines respective contributions of the primary and secondary channels upon production of the left and right channels.