mhurhangee/ep-ind-claims huggingface dataset:
A method for demodulating received symbols using a turbo-demodulation scheme, the received symbols being transferred on plural streams and received through plural antennas, the turbo-demodulation scheme comprising an iterative MIMO decoder decoding the plural streams and wherein an iterative channel decoder is used in the turbo-demodulation scheme for iteratively decoding a channel code, wherein the iterative channel decoder performs a first iterative process named iterative decoding process, the turbo-demodulation performing a second iterative process named iterative demodulation and decoding process, at each iteration of the second iterative process, the iterative channel decoder executing plural iterations in order to decode bits from which symbols are derived from, the turbo-demodulation scheme comprises a de-interleaving process based on a set of several code blocks of said channel code, and wherein the method comprises the steps executed by the iterative channel decoder of: - memorizing at the end of the iterations of the first iterative process, the variables used internally by the iterative channel decoder, - receiving, by the iterative channel decoder, a controller message indicating to the iterative channel decoder that the iterative channel decoder has to read the memorized variables at the following iteration of the second iterative process or to reset the memorized variables, the message further comprising a block identifier of the next block to be decoded, within the set of several code blocks, - reading the memorized variables corresponding to the block identifier within the set of several code blocks of the next block to be decoded at the following iteration of the second iterative process when the controller message indicates to the iterative channel decoder that the iterative channel decoder has to read the memorized variables. - memorizing at the end of the iterations of the first iterative process, the variables used internally by the iterative channel decoder, - receiving, by the iterative channel decoder, a controller message indicating to the iterative channel decoder that the iterative channel decoder has to read the memorized variables at the following iteration of the second iterative process or to reset the memorized variables, the message further comprising a block identifier of the next block to be decoded, within the set of several code blocks, - reading the memorized variables corresponding to the block identifier within the set of several code blocks of the next block to be decoded at the following iteration of the second iterative process when the controller message indicates to the iterative channel decoder that the iterative channel decoder has to read the memorized variables.
A plastic tealight cup comprising a bottom and an outside wall, wherein the bottom contains an inclined part, the inclined part runs from the outer wall and the inclined part has an incline of > 1°; wherein the inclined part i) comprises a first inclined plane that is connected to the outer wall and ii) a second inclined plane that is connected to the first inclined plane, said plastic tealight cup characterized in that: - the first inclined plane has an incline that is greater than the incline of the second inclined plane, - the first inclined plane and the second inclined plane are inclined in the same direction, - the first inclined plane meets the outer wall at 40 to 55% of the height of the outer wall and runs up to a height of 1-10% of the height of the outside wall and the radial length of the first inclined plane is 25% to 45% of the radius of the tealight cup, and - the outer wall runs uninterruptedly at least up to or below the last point of the bottom, such that when the tealight is placed upon an external surface, a closed space is created between the outer wall, the bottom and the external surface. - the first inclined plane has an incline that is greater than the incline of the second inclined plane, - the first inclined plane and the second inclined plane are inclined in the same direction, - the first inclined plane meets the outer wall at 40 to 55% of the height of the outer wall and runs up to a height of 1-10% of the height of the outside wall and the radial length of the first inclined plane is 25% to 45% of the radius of the tealight cup, and - the outer wall runs uninterruptedly at least up to or below the last point of the bottom, such that when the tealight is placed upon an external surface, a closed space is created between the outer wall, the bottom and the external surface.
A video encoding apparatus that encodes a block to be encoded among a plurality of blocks obtained by dividing a picture to be encoded, included in video data, the video encoding apparatus comprising: a source encoding unit that performs orthogonal transformation on prediction error signals of respective pixels in the block to be encoded, to calculate orthogonal transform coefficients, and quantizes the orthogonal transform coefficients based on a quantization value applied to the block to be encoded, to encode the block to be encoded; a decoding unit that decodes the encoded block to be encoded, to generate a locally-decoded block; a correction unit that corrects filter coefficients of an in-loop filter applied to an encoded reference block adjacent to the block to be encoded, based on a quantization value applied to the reference block and the quantization value applied to the block to be encoded, to calculate corrected filter coefficients, when a mode of an in-loop filter applied to the block to be encoded is the same as a mode of the in-loop filter applied to the reference block; a filter processing unit that uses the corrected filter coefficients to apply the in-loop filter to the locally-decoded block; and an addition unit that adds, to encoded data of the block to be encoded, information indicating that the block to be encoded refers to the reference block for the in-loop filter. a source encoding unit that performs orthogonal transformation on prediction error signals of respective pixels in the block to be encoded, to calculate orthogonal transform coefficients, and quantizes the orthogonal transform coefficients based on a quantization value applied to the block to be encoded, to encode the block to be encoded; a decoding unit that decodes the encoded block to be encoded, to generate a locally-decoded block; a correction unit that corrects filter coefficients of an in-loop filter applied to an encoded reference block adjacent to the block to be encoded, based on a quantization value applied to the reference block and the quantization value applied to the block to be encoded, to calculate corrected filter coefficients, when a mode of an in-loop filter applied to the block to be encoded is the same as a mode of the in-loop filter applied to the reference block; a filter processing unit that uses the corrected filter coefficients to apply the in-loop filter to the locally-decoded block; and an addition unit that adds, to encoded data of the block to be encoded, information indicating that the block to be encoded refers to the reference block for the in-loop filter.
An ultrasonic surgical assembly comprising: a ultrasonic transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404); and a handle body (1308; 1408; 1800; 2301; 3901): having an ultrasonic surgical waveguide (318; 1310; 2508; 4402); and operable to removably couple the transducer (316; 1302; 2006; 2300, 2406; 2516; 3402; 3602; 4404) to the waveguide (318; 1310; 2508; 4402), the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) being removably couplable to the handle body (1308; 1408; 1800; 2301; 3901), characterized in that the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) is a reusable cordless ultrasonic transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404); the handle body (1308; 1408; 1800; 2301; 3901) is disposable and defines a battery-holding compartment (1422; 2410; 3908; 4612) therein; and the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) is operable to dynamically produce a resonant wave along the waveguide (318; 1310; 2508; 4402) coupled thereto to thereby produce movement at a portion of the waveguide (318; 1310; 2508; 4402). a ultrasonic transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404); and a handle body (1308; 1408; 1800; 2301; 3901): having an ultrasonic surgical waveguide (318; 1310; 2508; 4402); and operable to removably couple the transducer (316; 1302; 2006; 2300, 2406; 2516; 3402; 3602; 4404) to the waveguide (318; 1310; 2508; 4402), the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) being removably couplable to the handle body (1308; 1408; 1800; 2301; 3901), having an ultrasonic surgical waveguide (318; 1310; 2508; 4402); and operable to removably couple the transducer (316; 1302; 2006; 2300, 2406; 2516; 3402; 3602; 4404) to the waveguide (318; 1310; 2508; 4402), the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) being removably couplable to the handle body (1308; 1408; 1800; 2301; 3901), characterized in that the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) is a reusable cordless ultrasonic transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404); the handle body (1308; 1408; 1800; 2301; 3901) is disposable and defines a battery-holding compartment (1422; 2410; 3908; 4612) therein; and the transducer (316; 1302; 1402; 2006; 2406; 2516; 3402; 3602; 4404) is operable to dynamically produce a resonant wave along the waveguide (318; 1310; 2508; 4402) coupled thereto to thereby produce movement at a portion of the waveguide (318; 1310; 2508; 4402).
A method, comprising: receiving, by a processor of an apparatus, a synchronization signal block, SS block, from a network apparatus; detecting, by the processor of the apparatus, a transmission beam of the network apparatus according to the SS block; and wherein the SS block comprises a first synchronization signal, a second synchronization signal, reference signals and a broadcast channel for detecting the transmission beam; wherein the first synchronization signal is a primary synchronization signal, PSS, the second synchronization signal is a secondary synchronization signal, SSS, and the reference signals are demodulation reference signals, DMRS; characterized in that two orthogonal frequency-division multiplexing, OFDM, symbols occupied by the broadcast channel and the DMRS are separated by at least one of the PSS and the SSS of the same SS block. receiving, by a processor of an apparatus, a synchronization signal block, SS block, from a network apparatus; detecting, by the processor of the apparatus, a transmission beam of the network apparatus according to the SS block; and wherein the SS block comprises a first synchronization signal, a second synchronization signal, reference signals and a broadcast channel for detecting the transmission beam; wherein the first synchronization signal is a primary synchronization signal, PSS, the second synchronization signal is a secondary synchronization signal, SSS, and the reference signals are demodulation reference signals, DMRS; characterized in that two orthogonal frequency-division multiplexing, OFDM, symbols occupied by the broadcast channel and the DMRS are separated by at least one of the PSS and the SSS of the same SS block.
A dispenser for creating a solution by dissolving a solid product with a liquid, the dispenser comprising: a dock configured to be fixed in place at a use device, the dock having a first portion and a second portion, the first portion including a fixation element that is configured to fix the dock in place at the use device, the second portion including a receiving structure wherein the receiving structure comprises a flange that extends out from the second portion, and wherein the flange forms a track surface at a location on the flange that is spaced from the second portion; a solid product holder configured to be removably secured to the dock, the solid product holder comprising: a retaining structure configured to removably secure the solid product holder to the receiving structure at the second portion of the dock, wherein the retaining structure comprises a catch that is configured to sit on the track surface; a base defining a plurality of apertures that form an open area at which the liquid is received at the solid product holder; and a support structure extending from the base and defining an internal volume for holding the solid product at the solid product holder. a dock configured to be fixed in place at a use device, the dock having a first portion and a second portion, the first portion including a fixation element that is configured to fix the dock in place at the use device, the second portion including a receiving structure wherein the receiving structure comprises a flange that extends out from the second portion, and wherein the flange forms a track surface at a location on the flange that is spaced from the second portion; a solid product holder configured to be removably secured to the dock, the solid product holder comprising: a retaining structure configured to removably secure the solid product holder to the receiving structure at the second portion of the dock, wherein the retaining structure comprises a catch that is configured to sit on the track surface; a base defining a plurality of apertures that form an open area at which the liquid is received at the solid product holder; and a support structure extending from the base and defining an internal volume for holding the solid product at the solid product holder. a retaining structure configured to removably secure the solid product holder to the receiving structure at the second portion of the dock, wherein the retaining structure comprises a catch that is configured to sit on the track surface; a base defining a plurality of apertures that form an open area at which the liquid is received at the solid product holder; and a support structure extending from the base and defining an internal volume for holding the solid product at the solid product holder.
A robot controller that drives joints (121, 123, 125, 131, 133, 135) of a robot having a plurality of legs to make the robot walk, the robot controller being configured to: determine a permissible range for a trunk vertical position of the robot based on measured environmental parameters, the measured environmental parameters being information of an environment around the robot; and make the robot walk based on measured posture parameters representing a posture of the robot so that the trunk vertical position remains within the permissible range, wherein in order to adjust the trunk vertical position within the permissible range, a trunk vertical position reference input, which is a target value of the trunk vertical position of the robot, is set to the lower bound when the trunk vertical position calculated based on the measured posture parameters is smaller than a lower bound of the permissible range, whereas the trunk vertical position reference input is set to the upper bound when the trunk vertical position is larger than an upper bound of the permissible range. determine a permissible range for a trunk vertical position of the robot based on measured environmental parameters, the measured environmental parameters being information of an environment around the robot; and make the robot walk based on measured posture parameters representing a posture of the robot so that the trunk vertical position remains within the permissible range, wherein in order to adjust the trunk vertical position within the permissible range, a trunk vertical position reference input, which is a target value of the trunk vertical position of the robot, is set to the lower bound when the trunk vertical position calculated based on the measured posture parameters is smaller than a lower bound of the permissible range, whereas the trunk vertical position reference input is set to the upper bound when the trunk vertical position is larger than an upper bound of the permissible range.
Optic group for a road lighting system of the type comprising a plurality of solid state light sources, said optic group comprising a plurality of optics each of which is positionable in proximity of at least a correspondent solid state light source of said plurality of solid state light sources wherein said plurality of optics comprises at least an asymmetric optic which is asymmetric respect to a longitudinal axis of at least a correspondent solid state light source, said optic group further comprising a planar housing matrix of said plurality of optics in order to facilitate the assembling of the same lighting system, and at least an asymmetric optic is coupled to a correspondent housing and it is at the same time rotated respect to a third axis, which is parallel to said longitudinal axis of a correspondent solid state light source, of a first predetermined angle which is measured respect to an axis which is orthogonal to said third axis, at least another asymmetric optic is coupled to a correspondent housing and at the same time it is rotated respect to a third axis, which is parallel to a longitudinal axis of a correspondent solid state light source, of a second predetermined angle measured respect to an axis which is orthogonal to said third axis, said optic group being characterized in that said plurality of optics is made integral with said housing planar matrix and said plurality of optics is realized in just one piece with said housing planar matrix.
Stamp, in particular a self-inking stamp, comprising at least one stamping component and one stamping insert, wherein the stamping component is formed of a top part with a handle element and a bottom part with a cushion-receiving element, wherein the top part is preferably designed bow-shaped and the stamping insert is connected so as to move synchronously via a reversing mechanism having a slide track in the bottom part via a shaft or trunnion to the top part, wherein in the resting position a text plate mounted on the stamping insert abuts against an ink cartridge with pad soaked with stamp ink in the cushion-receiving element, and that in a stamping process for producing a stamp impression in the stamping position the stamping insert with the text plate can be shifted by the reversing mechanism into a stamping position, characterized in that the closed slide track of the reversing mechanism is designed in such a way that a text plate mounting area is arranged in the compressed state over a frame of the bottom part and/or a contact area of the stamp, and in that this position is assigned a locked position and an assembly position for attaching a text plate.
Apparatus for producing a compressed tablet utilizable for an analysis of sample material, wherein the apparatus comprises a press tool, wherein the press tool has a plurality of alternatively utilizable press surfaces (6, 7), which are positionable in the apparatus such that they can interact alternatively with a punch of the apparatus to compress a sample material to form the compressed tablet, wherein one of the press surfaces is relatively smooth and the other press surface is relatively rough, wherein the press tool has a press surface carrier comprising a first press surface and a second press surface, wherein the press surface carrier is integrated into the apparatus so as to be movable such that it is possible to position the press surfaces (6, 7) for the alternative interaction with the punch, wherein the press surface carrier is integrated into the apparatus so as to be rotatable.
A method for producing epoxyalkane, the method comprising: separating, in a separation column, a first stream containing epoxyalkane, extractant and diol; producing an epoxyalkane product stream from the upper part of the separation column; and discharging the extractant mainly in a form of the column kettle stream from the lower part of the separation column, it is characterized in that the method further comprises producing a second stream containing an azeotrope of the extractant and diol from the side-draw of the separation column located lower than a feed position; wherein the extractant is selected from at least one of C7-C20 straight and branched chain hydrocarbons. separating, in a separation column, a first stream containing epoxyalkane, extractant and diol; producing an epoxyalkane product stream from the upper part of the separation column; and discharging the extractant mainly in a form of the column kettle stream from the lower part of the separation column, it is characterized in that the method further comprises producing a second stream containing an azeotrope of the extractant and diol from the side-draw of the separation column located lower than a feed position; wherein the extractant is selected from at least one of C7-C20 straight and branched chain hydrocarbons.
A method in a device gateway (11; 121) of relaying application data between an Internet of Things, IoT, device (10; 120) and an application server (17; 126) in a network, the method comprising: - sending to a network server (13, 14; 122;124) over a pre-established communication service with the network, a request to establish an application virtual data path, VDP, with an application server gateway (16; 125) for transporting application data from the IoT device (10; 120) towards the application server (17; 126) associated with the application server gateway (16; 125) and wherein the request comprises a unique IoT device identity; - receiving a response message comprising a VDP identifier for the application VDP; - storing an association comprising the VDP identifier and the unique IoT device identity; and - upon receiving the application data from the IoT device (10; 120), determining the VDP identifier associated with the IoT device (10; 120), encapsulating the application data in a VDP header comprising the VDP identifier and relaying the encapsulated application data over the pre-established communication service, the device gateway (11; 121) and the IoT device (10; 120) being unaware of any destination address associated with the application server (17; 126). - sending to a network server (13, 14; 122;124) over a pre-established communication service with the network, a request to establish an application virtual data path, VDP, with an application server gateway (16; 125) for transporting application data from the IoT device (10; 120) towards the application server (17; 126) associated with the application server gateway (16; 125) and wherein the request comprises a unique IoT device identity; - receiving a response message comprising a VDP identifier for the application VDP; - storing an association comprising the VDP identifier and the unique IoT device identity; and - upon receiving the application data from the IoT device (10; 120), determining the VDP identifier associated with the IoT device (10; 120), encapsulating the application data in a VDP header comprising the VDP identifier and relaying the encapsulated application data over the pre-established communication service, the device gateway (11; 121) and the IoT device (10; 120) being unaware of any destination address associated with the application server (17; 126).