mhurhangee/ep-ind-claims huggingface dataset:
An A/V decoder adapted to decode data in one or more data streams, comprising a loop locking an output sample rate to a system time reference, STR, said loop comprising: a digital STR recovery phase locked loop comprising an input for receiving input timing references and an output for outputting a STR broadcast wherein said STR recovery phase locked loop is adapted to recover said system time reference, STR, from said input timing references; and a first output rate manager phase locked loop and a second output rate manager phase locked loop each comprising an input for receiving said STR broadcast and an output for controlling audio and video output data of said output sample rate, characterized in that the first and second output rate manager phase locked loops (616 and 618) have a faster response time than the digital STR recovery phase locked loop, and the digital STR recovery phase locked loop is adapted to: remove timing jitter, detect discontinuities, lock to a new time base if it detects a discontinuity and notify the first and second output rate manager phase locked loops of the discontinuity. a digital STR recovery phase locked loop comprising an input for receiving input timing references and an output for outputting a STR broadcast wherein said STR recovery phase locked loop is adapted to recover said system time reference, STR, from said input timing references; and a first output rate manager phase locked loop and a second output rate manager phase locked loop each comprising an input for receiving said STR broadcast and an output for controlling audio and video output data of said output sample rate, characterized in that the first and second output rate manager phase locked loops (616 and 618) have a faster response time than the digital STR recovery phase locked loop, and the digital STR recovery phase locked loop is adapted to: remove timing jitter, detect discontinuities, lock to a new time base if it detects a discontinuity and notify the first and second output rate manager phase locked loops of the discontinuity. remove timing jitter, detect discontinuities, lock to a new time base if it detects a discontinuity and notify the first and second output rate manager phase locked loops of the discontinuity.
Hydraulic pressurizing medium supply assembly having a hydro machine for the supply of pressurizing medium of at least one hydraulic consumer (168, 170, 194, 196, 208), having a hydraulic control block for controlling the at least one consumer (168, 170, 194, 196, 208), and having a first and a second control module (20, 57), wherein the control block by way of the first control module is able to be controlled by at least one actuating signal, wherein a data interface is provided between the control modules (20, 57), and wherein the first control module by way of the data interface is configured for transferring as a second actuating signal to the second control module as input variable/variables a nominal outlet pressure for the hydro machine (2, 186) and/or a nominal delivery volume for the hydro machine (2, 186), wherein the second control module by means of the nominal outlet pressure and/or by means of the nominal delivery volume is configured for controlling an adjusting mechanism of the hydro machine by way of a valve actuating signal (18, 146), and wherein the pressurizing medium supply assembly is configured such that at least one hydraulic parameter (70, 74, 100, 102, 116, 130) is transmitted to the second control module by way of the data interface, said hydraulic parameter (70, 74, 100, 102, 116, 130) predefining and/or limiting a dynamic characteristic of the adjusting mechanism of the hydro machine, wherein a maximum delivery-volume adjustment rate of the hydro machine and/or a maximum pressure gradient for the actual outlet pressure of the hydro machine and/or a maximum nominal differential pressure for the hydro machine and/or a maximum torque gradient is/are provided as a parameter.
A method for intelligent data compression in a portable computing device, PCD, the method comprising: defining a threshold value for a key performance indicator within the PCD; receiving a first data block into a compression module and compressing the first data block according to a lossless compression algorithm, wherein the compression module is operable to toggle between a lossless compression algorithm and a lossy compression algorithm; after receiving the first data block into the compression module and compressing the first data block according to the lossless compression algorithm, and before receiving a second data block into the compression module, monitoring an active level for the key performance indicator and comparing the active level to the defined threshold value; based on the comparison of the active level for the key performance indicator to the defined threshold value, toggling the compression module to the lossy compression mode; and receiving the second data block into the compression module and compressing the second data block according to the lossy compression algorithm. defining a threshold value for a key performance indicator within the PCD; receiving a first data block into a compression module and compressing the first data block according to a lossless compression algorithm, wherein the compression module is operable to toggle between a lossless compression algorithm and a lossy compression algorithm; after receiving the first data block into the compression module and compressing the first data block according to the lossless compression algorithm, and before receiving a second data block into the compression module, monitoring an active level for the key performance indicator and comparing the active level to the defined threshold value; based on the comparison of the active level for the key performance indicator to the defined threshold value, toggling the compression module to the lossy compression mode; and receiving the second data block into the compression module and compressing the second data block according to the lossy compression algorithm.
Pneumatic hammer for de-coring of foundry castings; wherein the hammer comprises: - a jacket comprising: ∘ an inner chamber, ∘ an inlet circuit for the entry of compressed air, and ∘ an outlet circuit for the exit of compressed air; - a motion mechanism, for generating a vibratory motion under the action of compressed air, said motion mechanism comprising a head for appropriately directing an air flow, a cylinder, and a beating mass adapted to slide within an inner cavity of the same cylinder, said cylinder being partially located within the jacket; - a punch or beater, connected to said motion mechanism, for coming into contact with the casting to be subjected to de-coring, forming a first end of the hammer; wherein said inlet circuit comprises an inlet connector for connecting the hammer to a compressed-air circuit; said inlet connector being located at a second end of the hammer, opposite to the end where the punch or beater is located; wherein said outlet circuit comprises an outlet connector for connecting the hammer to an air recovery circuit; said outlet connector being located at the second end of the hammer, in proximity to the inlet connector; characterized in that: the outlet circuit comprises: - an outlet opening formed in the jacket, through which air comes out upon activation of the motion mechanism; and - at least one exit duct extending from said outlet opening to said second end of the hammer; said exit duct being formed in the jacket. - a jacket comprising: ∘ an inner chamber, ∘ an inlet circuit for the entry of compressed air, and ∘ an outlet circuit for the exit of compressed air; ∘ an inner chamber, ∘ an inlet circuit for the entry of compressed air, and ∘ an outlet circuit for the exit of compressed air; - a motion mechanism, for generating a vibratory motion under the action of compressed air, said motion mechanism comprising a head for appropriately directing an air flow, a cylinder, and a beating mass adapted to slide within an inner cavity of the same cylinder, said cylinder being partially located within the jacket; - a punch or beater, connected to said motion mechanism, for coming into contact with the casting to be subjected to de-coring, forming a first end of the hammer; wherein said inlet circuit comprises an inlet connector for connecting the hammer to a compressed-air circuit; said inlet connector being located at a second end of the hammer, opposite to the end where the punch or beater is located; wherein said outlet circuit comprises an outlet connector for connecting the hammer to an air recovery circuit; said outlet connector being located at the second end of the hammer, in proximity to the inlet connector; - an outlet opening formed in the jacket, through which air comes out upon activation of the motion mechanism; and - at least one exit duct extending from said outlet opening to said second end of the hammer; said exit duct being formed in the jacket.
A computer-readable medium having stored instructions, the stored instructions including instructions which, when executed by a controller, cause the controller to perform the steps of: detecting a first pressure on a first input device (2; 30); outputting a first control output signal to an actuator to provide a first tactile sensation to the first input device (2; 30); detecting a second pressure on the first input device (2; 30), the second pressure greater than the first pressure; and characterised by: outputting a second control output signal, being different from the first control output signal, to the actuator to provide a second tactile sensation to the first input device (2; 30). detecting a first pressure on a first input device (2; 30); outputting a first control output signal to an actuator to provide a first tactile sensation to the first input device (2; 30); detecting a second pressure on the first input device (2; 30), the second pressure greater than the first pressure; and characterised by: outputting a second control output signal, being different from the first control output signal, to the actuator to provide a second tactile sensation to the first input device (2; 30).
An apparatus comprising: a switcher configured to receive a first input signal comprising noise and to provide a first output signal (Vsw) to a summer, the first output signal (Vsw) comprising switcher noise from the switcher; characterised in that the apparatus comprises: a feedforward circuit configured to receive the first output signal (Vsw) and provide a feedforward signal (V FB), the feedforward circuit having a transfer function selected to attenuate the switcher noise; and an envelope amplifier configured to receive an envelope signal (V ENV) and the feedforward signal (V FB) and to provide a second output signal (V LOAD) to the summer, the second output signal (V LOAD) comprising a second version of the noise; the summer configured to sum the first (Vsw) and second (V LOAD) output signals and provide a third output signal to a load, wherein the second version of the noise is used to attenuate the switcher noise at the load. a switcher configured to receive a first input signal comprising noise and to provide a first output signal (Vsw) to a summer, the first output signal (Vsw) comprising switcher noise from the switcher; characterised in that the apparatus comprises: a feedforward circuit configured to receive the first output signal (Vsw) and provide a feedforward signal (V FB), the feedforward circuit having a transfer function selected to attenuate the switcher noise; and an envelope amplifier configured to receive an envelope signal (V ENV) and the feedforward signal (V FB) and to provide a second output signal (V LOAD) to the summer, the second output signal (V LOAD) comprising a second version of the noise; the summer configured to sum the first (Vsw) and second (V LOAD) output signals and provide a third output signal to a load, wherein the second version of the noise is used to attenuate the switcher noise at the load. a feedforward circuit configured to receive the first output signal (Vsw) and provide a feedforward signal (V FB), the feedforward circuit having a transfer function selected to attenuate the switcher noise; and an envelope amplifier configured to receive an envelope signal (V ENV) and the feedforward signal (V FB) and to provide a second output signal (V LOAD) to the summer, the second output signal (V LOAD) comprising a second version of the noise; the summer configured to sum the first (Vsw) and second (V LOAD) output signals and provide a third output signal to a load, wherein the second version of the noise is used to attenuate the switcher noise at the load.
An adjustable scaffolding deck, in particular for a construction scaffolding, an event scaffolding or the like, comprising a first scaffolding deck element extending in a scaffolding deck longitudinal direction with at least one hook-like adapted first scaffolding deck attachment member in each of the two scaffolding deck longitudinal end regions (38, 40) for attaching the scaffolding deck at a scaffold carrier and with a scaffolding deck walking surface region, wherein the first scaffolding deck element comprises an element body with an essentially L-shaped or U-shaped cross section profile, wherein a first profile limb of the first element body essentially provides the scaffolding deck walking surface region and wherein the at least one first scaffolding deck attachment member is provided at a second profile limb of the first element body in each scaffolding deck longitudinal end region (38, 40), characterized in that in each scaffolding deck longitudinal end region (38, 40) at least one hook-like formed second scaffolding deck attachment member is provided at the first scaffolding deck element adjustable substantially in a scaffolding deck width direction and lockable against an adjustment movement so that by adjusting second scaffolding deck attachment members provided in the scaffolding deck longitudinal end regions (38, 40), a protrusion region of the scaffolding deck walking surface region can be modified in the scaffolding deck width direction beyond the second scaffolding deck attachment members, and that a second scaffolding deck element comprises a second element body with a substantially L-shaped or U-shaped cross section profile, wherein the second scaffolding deck element can be locked at the scaffolding deck walking surface region of the first scaffolding deck element by a first profile limb of the second element body and that the at least one second scaffolding deck attachment member is provided at a second profile limb of the second element body in each scaffolding deck longitudinal end region (38, 40).
System for carrying a first contact wire and a second contact wire crossing or merging the first contact wire through an interruption above a railway junction, comprising - a supporting beam, - a first carrying element that is connected to the supporting beam at a first position and adapted to carry the first contact wire, - a second carrying element that is connected to the supporting beam at a second position and adapted to carry the first contact wire, and - a spacer that is connected to the supporting beam at a third position between the first position and the second position and adapted to secure a predefined minimum length for the interruption of the first contact wire seen in a course direction of the first contact wire, characterized in that - the spacer includes a disc intersected by a slot that is adapted to receive the second contact wire. - a supporting beam, - a first carrying element that is connected to the supporting beam at a first position and adapted to carry the first contact wire, - a second carrying element that is connected to the supporting beam at a second position and adapted to carry the first contact wire, and - a spacer that is connected to the supporting beam at a third position between the first position and the second position and adapted to secure a predefined minimum length for the interruption of the first contact wire seen in a course direction of the first contact wire, - the spacer includes a disc intersected by a slot that is adapted to receive the second contact wire.
A twin-tub washing machine comprising: a first water tub to contain water therein; a first water heater to heat water contained in the first water tub; a second water tub to contain water therein; and a second water heater to heat water contained in the second water tub; characterized in that the twin-tub washing machine comprises a control unit configured to control the first water heater to operate after an operation of the second water heater is completed, wherein the control unit is configured to control an on of the first water heater to operate after an on of the second water heater is completed, and wherein the control unit is configured to control the first water heater in the first washing tub to be turned on, when the second water heater in the second washing tub is turned off. a first water tub to contain water therein; a first water heater to heat water contained in the first water tub; a second water tub to contain water therein; and a second water heater to heat water contained in the second water tub; characterized in that the twin-tub washing machine comprises a control unit configured to control the first water heater to operate after an operation of the second water heater is completed, wherein the control unit is configured to control an on of the first water heater to operate after an on of the second water heater is completed, and wherein the control unit is configured to control the first water heater in the first washing tub to be turned on, when the second water heater in the second washing tub is turned off.
A method of projecting augmented reality content on a physical surface, the method comprising: capturing an image of a portion of the physical surface; dividing the image into tiles, and identifying common tiles for a desktop region and the augmented reality content; determining, for each common tile, a pair of surface complexity measures for said physical surface from said captured image, said pair comprising an entropy value and a standard deviation value calculated from pixel values of said captured image; determining, for each common tile, a pair of content complexity measures for the augmented reality content to be projected on said physical surface, said pair comprising an entropy value and a standard deviation value calculated from pixel values of said augmented reality content, and representing an amount of fine detail in said augmented reality content; determining whether or not said augmented reality content will be legible once projected on the physical surface, based on a comparison between pairs of surface complexity measures and corresponding pairs of content complexity measure; if said augmented reality content will not be legible once projected on the physical surface, increasing a size of said augmented reality content to improve the legibility of said augmented reality content; and projecting the augmented reality content with the increased size on said physical surface. capturing an image of a portion of the physical surface; dividing the image into tiles, and identifying common tiles for a desktop region and the augmented reality content; determining, for each common tile, a pair of surface complexity measures for said physical surface from said captured image, said pair comprising an entropy value and a standard deviation value calculated from pixel values of said captured image; determining, for each common tile, a pair of content complexity measures for the augmented reality content to be projected on said physical surface, said pair comprising an entropy value and a standard deviation value calculated from pixel values of said augmented reality content, and representing an amount of fine detail in said augmented reality content; determining whether or not said augmented reality content will be legible once projected on the physical surface, based on a comparison between pairs of surface complexity measures and corresponding pairs of content complexity measure; if said augmented reality content will not be legible once projected on the physical surface, increasing a size of said augmented reality content to improve the legibility of said augmented reality content; and projecting the augmented reality content with the increased size on said physical surface.
A decoding method for decoding a coded picture signal for a coding unit, the coding unit including one or more transform units, the decoding method comprising: obtaining, from the coded picture signal, a luminance CBF flag indicating whether or not a quantized coefficient is included in a transform unit from among the one or more transform units; judging whether or not a size of the coding unit is identical to a size of the transform unit; characterized by setting ctxldxlnc for prescribing probability information used for arithmetic decoding to either 0 or 1 according to whether or not the size of the coding unit is identical to the size of the transform unit and whether or not the size of the transform unit is the same as a maximum size of the transform unit, so that (i) ctxldxlnc is set to 1 when the size of the coding unit is identical to the size of the transform unit or the size of the transform unit is the same as the maximum size of the transform unit and (ii) ctxldxlnc is set to 0 when the size of the coding unit is not identical to the size of the transform unit and the size of the transform unit is not the same as the maximum size of the transform unit; performing arithmetic decoding on the luminance CBF flag using probability information based on the ctxldxlnc; and reconstructing a picture signal for the coding unit using the quantized coefficient of the transform unit when the luminance CBF flag indicates that the quantized coefficient is included in the transform unit. obtaining, from the coded picture signal, a luminance CBF flag indicating whether or not a quantized coefficient is included in a transform unit from among the one or more transform units; judging whether or not a size of the coding unit is identical to a size of the transform unit; characterized by setting ctxldxlnc for prescribing probability information used for arithmetic decoding to either 0 or 1 according to whether or not the size of the coding unit is identical to the size of the transform unit and whether or not the size of the transform unit is the same as a maximum size of the transform unit, so that (i) ctxldxlnc is set to 1 when the size of the coding unit is identical to the size of the transform unit or the size of the transform unit is the same as the maximum size of the transform unit and (ii) ctxldxlnc is set to 0 when the size of the coding unit is not identical to the size of the transform unit and the size of the transform unit is not the same as the maximum size of the transform unit; performing arithmetic decoding on the luminance CBF flag using probability information based on the ctxldxlnc; and reconstructing a picture signal for the coding unit using the quantized coefficient of the transform unit when the luminance CBF flag indicates that the quantized coefficient is included in the transform unit.