mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treating appliance comprising: a drum having an inner surface at least partially defining a treating chamber and an end with an opening to define an access opening to the treating chamber , wherein the drum rotates about a horizontal axis; and a lifter extending from the inner surface inwardly into the treating chamber and having an adjustable element rotatably mounted to a housing of the lifter for rotation about a rotation axis between first and second positions and having first and second profiles wherein when the adjustable element is in the first position, the first profile provides the lifter with a first effective height, and when the adjustable element is in the second position, the second profile provides the lifter with a second effective height, which is less than the first effective height,; wherein the adjustable element has an asymmetrical body ; wherein the asymmetrical body comprises a maximum projection radially furthest from the rotation axis , and in the first position the maximum projection defines the first effective height; characterized in that the lifter further comprises a lock fixing the adjustable element in at least one of the first and second positions. a drum having an inner surface at least partially defining a treating chamber and an end with an opening to define an access opening to the treating chamber , wherein the drum rotates about a horizontal axis; and a lifter extending from the inner surface inwardly into the treating chamber and having an adjustable element rotatably mounted to a housing of the lifter for rotation about a rotation axis between first and second positions and having first and second profiles wherein when the adjustable element is in the first position, the first profile provides the lifter with a first effective height, and when the adjustable element is in the second position, the second profile provides the lifter with a second effective height, which is less than the first effective height,; wherein the adjustable element has an asymmetrical body ; wherein the asymmetrical body comprises a maximum projection radially furthest from the rotation axis , and in the first position the maximum projection defines the first effective height; characterized in that the lifter further comprises a lock fixing the adjustable element in at least one of the first and second positions.
Use of glutamic acid and xylose for inhibiting the proliferation of a cell in a cell culture medium, wherein the cell is selected from a human fibroblast and a human mesenchymal stem cell.
PROCESS FOR MANUFACTURING A MULTI-LAYERED SOLE DIRECTLY ON THE UPPER, of the type that employs the technique known as "direct injection on the upper", by which soles (S) are made of a plastic material and consist of a plurality of layers with different colour, density, softness and physical-mechanical properties, said layers forming at least an external sole, called "outsole" (S 1 ), an internal sole, called "insole" (S 2 ) that adheres and extends only partially or totally on the surface of the upper (T), and an intermediate sole, called "midsole" (S 3 ), that is intended to hold the other two above-said soles (S 1 , S 2 ), said process providing for the use of a single mould which is brought, when suitably equipped (100.1,100.2,100.3), in a well-defined sequence, in front of at least three distinct injectors (I 1 ,I 2 ,I 3 ) in order to obtain, also in sequence, by at least a first moulding operation (P 1 ) the lower portion of the sole, i.e. the "outsole" (S 1 ), by at least a second moulding operation (P 2 ) the upper part of the sole, i.e. the "insole" (S 2 ) and by at least a third moulding operation (P 3 ) the "midsole" (S 3 ), wherein said process employs a mould consisting of a number of components removably connected to each other in order to be able to be suitably equipped (100.1, 100.2 and 100.3) with respect to the relative type of injector (I 1 , I 2 , I 3 ), which components comprise a support , rotating about the axis (X) of its central pin on which a radial arm , ending with a form related to the upper (T), and an opposite radial arm , ending with a disc , are removably hooked, two opposed side half-rings (6.1, 6.2), two upper opposed half-rings (7.1, 7.2) and a base .
A submersible multi-parameter sonde having an integrated user interface comprising: a water-tight housing defining a water-tight volume , wherein said water-tight housing is at least partially optically transparent; a central processing unit (CPU) ; a display electronically connected to said CPU ; an accelerometer electronically connected to said CPU ; a measurement subsystem in electronic contact with said CPU and that provides an input to said CPU from a plurality of sonde sensors ; wherein said CPU , display , accelerometer and measurement subsystem are positioned in said water-tight volume ; and said accelerometer is configured to detect a change in orientation or an exerted force to generate an input to said CPU and said CPU is configured to process said input and control an output display configuration of said display based on said input, wherein said accelerometer allows a user to actively control said output display configuration and control various aspects of said display and sonde function by a combination of sonde tapping and changes in sonde orientation . a water-tight housing defining a water-tight volume , wherein said water-tight housing is at least partially optically transparent; a central processing unit (CPU) ; a display electronically connected to said CPU ; an accelerometer electronically connected to said CPU ; a measurement subsystem in electronic contact with said CPU and that provides an input to said CPU from a plurality of sonde sensors ;
A method of manufacturing ordered Alloy 690 with improved thermal conductivity, the method comprising: solution-annealing Alloy 690; cooling the solution-annealed Alloy 690 to a first temperature at a cooling rate of 200 °C/min or less; and ordering the cooled Alloy 690 by annealing at a temperature ranging from 410 to 520 °C. solution-annealing Alloy 690; cooling the solution-annealed Alloy 690 to a first temperature at a cooling rate of 200 °C/min or less; and ordering the cooled Alloy 690 by annealing at a temperature ranging from 410 to 520 °C.
An information transmission method, comprising: determining, by a control device , a first transmission channel in at least one transmission channel configured between a first network device (A) and a second network device (B) based on at least two parameters: a packet sending frequency and a transmission performance, wherein the packet sending frequency of a packet flow is a maximum packet sending frequency required by the packet flow, the transmission performance of a transmission channel indicates a performance of one deterministic transmission service that is provided by the transmission channel in a packet transmission process, the performance of the deterministic transmission service including at least one of: a maximum latency of packet transmission, a maximum delay variation of packet transmission, and reliability of a packet transmission service, the first transmission channel is used to transmit a packet that belongs to at least one packet flow, the packet sending frequency currently supported by the first transmission channel is greater than or equal to a sum of packet sending frequencies of the at least one packet flow, and the transmission performance of the first transmission channel meets the transmission performance of the at least one packet flow; and sending, by the control device , first identification information to the first network device (A), wherein the first identification information is used to identify the first transmission channel. determining, by a control device , a first transmission channel in at least one transmission channel configured between a first network device (A) and a second network device (B) based on at least two parameters: a packet sending frequency and a transmission performance, wherein the packet sending frequency of a packet flow is a maximum packet sending frequency required by the packet flow, the transmission performance of a transmission channel indicates a performance of one deterministic transmission service that is provided by the transmission channel in a packet transmission process, the performance of the deterministic transmission service including at least one of: a maximum latency of packet transmission, a maximum delay variation of packet transmission, and reliability of a packet transmission service, the first transmission channel is used to transmit a packet that belongs to at least one packet flow, the packet sending frequency currently supported by the first transmission channel is greater than or equal to a sum of packet sending frequencies of the at least one packet flow, and the transmission performance of the first transmission channel meets the transmission performance of the at least one packet flow; and sending, by the control device , first identification information to the first network device (A), wherein the first identification information is used to identify the first transmission channel.
A surface-modified nanodiamond comprising: a nanodiamond; and a group being bound to a particulate surface of the nanodiamond and represented by formula : -NHCOR wherein R represents a straight-chain or branched-chain alkyl group having 1 to 22 carbon atoms or a 3- to 22-membered cycloalkyl group; and the left end, in the formula, of the group serves to form bonding to the nanodiamond. a nanodiamond; and a group being bound to a particulate surface of the nanodiamond and represented by formula : -NHCOR wherein R represents a straight-chain or branched-chain alkyl group having 1 to 22 carbon atoms or a 3- to 22-membered cycloalkyl group; and the left end, in the formula, of the group serves to form bonding to the nanodiamond.
A water-entanglement system comprising: a first rotatable surface , wherein the first rotatable surface comprises a first water jet configured to water entangle a preform in situ; and a second rotatable surface disposed proximate the first rotatable surface , wherein the second rotatable surface comprises a second water jet configured to water entangle the preform in situ, wherein the first rotatable surface is oriented substantially parallel to the second rotatable surface , wherein the first water jet is oriented towards the second rotatable surface and wherein the second water jet is oriented towards the first rotatable surface , wherein the first rotatable surface and the second rotatable surface bound a gap , wherein the preform is an annular preform comprising of a plurality of layers, wherein the first rotatable surface and the second rotatable surface are configured to rotate about a common axis substantially in unison, the water-entanglement system further comprising a first fabric source and a second fabric source. a first rotatable surface , wherein the first rotatable surface comprises a first water jet configured to water entangle a preform in situ; and a second rotatable surface disposed proximate the first rotatable surface , wherein the second rotatable surface comprises a second water jet configured to water entangle the preform in situ, wherein the first rotatable surface is oriented substantially parallel to the second rotatable surface , wherein the first water jet is oriented towards the second rotatable surface and wherein the second water jet is oriented towards the first rotatable surface , wherein the first rotatable surface and the second rotatable surface bound a gap , wherein the preform is an annular preform comprising of a plurality of layers, wherein the first rotatable surface and the second rotatable surface are configured to rotate about a common axis substantially in unison, the water-entanglement system further comprising a first fabric source and a second fabric source.
A method for performing a digital assay, comprising: (a) partitioning into a plurality of partitions (i) three or more nucleic acid targets and (ii) a set of nucleic acid probes comprising a first nucleic acid probe, a second nucleic acid probe, and a third nucleic acid probe; (b) amplifying the three or more nucleic acid targets in the partitions; (c) generating N signals from the set of nucleic acid probes, each of which N signals corresponds to the presence of a unique combination of nucleic acid targets of the three or more nucleic acid targets in a partition of the plurality of partitions; and (d) detecting the N signals in a single optical channel; wherein, in (a), the first nucleic acid probe, second nucleic acid probe and third nucleic acid probe are configured such that (i) the concentration of the first nucleic acid probe is about X, the concentration of the second nucleic acid probe is at least about 2X, and the concentration of the third nucleic acid probe is at least about 4X, or (ii) the first nucleic acid probe has an intensity level of about Y, the second nucleic acid probe has an intensity level of at least about 2Y and the third nucleic acid probe has an intensity level of at least about 4Y. (a) partitioning into a plurality of partitions (i) three or more nucleic acid targets and (ii) a set of nucleic acid probes comprising a first nucleic acid probe, a second nucleic acid probe, and a third nucleic acid probe; (b) amplifying the three or more nucleic acid targets in the partitions; (c) generating N signals from the set of nucleic acid probes, each of which N signals corresponds to the presence of a unique combination of nucleic acid targets of the three or more nucleic acid targets in a partition of the plurality of partitions; and (d) detecting the N signals in a single optical channel; wherein, in (a), the first nucleic acid probe, second nucleic acid probe and third nucleic acid probe are configured such that (i) the concentration of the first nucleic acid probe is about X, the concentration of the second nucleic acid probe is at least about 2X, and the concentration of the third nucleic acid probe is at least about 4X, or (ii) the first nucleic acid probe has an intensity level of about Y, the second nucleic acid probe has an intensity level of at least about 2Y and the third nucleic acid probe has an intensity level of at least about 4Y.
A method of decoding at least one image from a bitstream , the image being split into hierarchical coding structures including at least one slice , the method comprising: decoding encoded data of the slice, using a palette coding mode, the palette coding mode using, for each of processed pixel blocks of the slice, an associated palette that comprises a set of entries associating respective entry indexes with corresponding pixel values, wherein the palette associated with each processed pixel block is predicted from a palette predictor using prediction information including a bitmap of flags, each flag defining whether or not a corresponding entry in the palette predictor is selected as an entry to generate an entry in the palette, from the bitstream ; obtaining, from the bitstream , information about a number of color components and a palette predictor initializer associated with a coding structure hierarchically above the slice, the structure of the palette predictor initializer being based on said information about the number of color components; and initializing the palette predictor for the slice using the obtained palette predictor initializer, wherein each palette predictor subsequent to the initialized palette predictor is built from a current palette associated with a block currently being decoded and the palette predictor used for predicting the current palette. decoding encoded data of the slice, using a palette coding mode, the palette coding mode using, for each of processed pixel blocks of the slice, an associated palette that comprises a set of entries associating respective entry indexes with corresponding pixel values, wherein the palette associated with each processed pixel block is predicted from a palette predictor using prediction information including a bitmap of flags, each flag defining whether or not a corresponding entry in the palette predictor is selected as an entry to generate an entry in the palette, from the bitstream ; obtaining, from the bitstream , information about a number of color components and a palette predictor initializer associated with a coding structure hierarchically above the slice, the structure of the palette predictor initializer being based on said information about the number of color components; and initializing the palette predictor for the slice using the obtained palette predictor initializer, wherein each palette predictor subsequent to the initialized palette predictor is built from a current palette associated with a block currently being decoded and the palette predictor used for predicting the current palette.
A method for manufacturing a power distribution component for use in a predetermined position of an electric device, the method including steps of processing a round metallic wire formed of a cross-section circular solid wire, for use as a conductor of the power distribution component , the method comprising: a correction step of linearly correcting a coiled material of the round metallic wire ; a cross-section non-circular portion forming step of forming a cross-section non-circular portion having a non-circular cross-sectional shape in a diameter direction in at least one position of the round metallic wire linearly corrected by the correction step; a bending step of holding the cross-section non-circular portion in a wire holding portion of a bending machine and performing bending in a predetermined three-dimensional shape; and the step of integrally attaching a resin member on an outer periphery of the cross-section non-circular portion of the processed product of the round metallic wire . a correction step of linearly correcting a coiled material of the round metallic wire ; a cross-section non-circular portion forming step of forming a cross-section non-circular portion having a non-circular cross-sectional shape in a diameter direction in at least one position of the round metallic wire linearly corrected by the correction step; a bending step of holding the cross-section non-circular portion in a wire holding portion of a bending machine and performing bending in a predetermined three-dimensional shape; and the step of integrally attaching a resin member on an outer periphery of the cross-section non-circular portion of the processed product of the round metallic wire .
A method for transmitting a file folder from a sending end to a receiving end, the method comprising: generating a directory structure file of the file folder; sending a file folder transmission request to the receiving end through an instant messaging channel; generating an index identifier of the directory structure file by extracting the index identifier from the directory structure file using a message digest algorithm, and sending the index identifier to the receiving end to enable the receiving end to determine whether the directory structure file already exists therein using the index identifier; if the directory structure file does not already exist in the receiving end, sending the directory structure file from the sending end to the receiving end through a network data transmission channel; determining one or more files in the file folder that need to be transmitted from the sending end to the receiving end; and transmitting the one or more files in the file folder that need to be transmitted to the receiving end through the network data transmission channel. generating a directory structure file of the file folder; sending a file folder transmission request to the receiving end through an instant messaging channel; generating an index identifier of the directory structure file by extracting the index identifier from the directory structure file using a message digest algorithm, and sending the index identifier to the receiving end to enable the receiving end to determine whether the directory structure file already exists therein using the index identifier; if the directory structure file does not already exist in the receiving end, sending the directory structure file from the sending end to the receiving end through a network data transmission channel; determining one or more files in the file folder that need to be transmitted from the sending end to the receiving end; and transmitting the one or more files in the file folder that need to be transmitted to the receiving end through the network data transmission channel.
A system for guiding a vehicle of an amusement park ride, comprising: a plurality of paths on a surface , wherein each path is defined by ultraviolet (UV) reactive paint configured to emit visible light in response to UV light; a vehicle , wherein the vehicle comprises: a UV source configured to emit UV light; a sensor configured to detect the visible light emitted by the UV reactive paint of a respective path of the plurality of paths; and a controller configured to guide the vehicle along the respective path based on a wavelength of the visible light detected by the sensor . a plurality of paths on a surface , wherein each path is defined by ultraviolet (UV) reactive paint configured to emit visible light in response to UV light; a vehicle , wherein the vehicle comprises: a UV source configured to emit UV light; a sensor configured to detect the visible light emitted by the UV reactive paint of a respective path of the plurality of paths; and a controller configured to guide the vehicle along the respective path based on a wavelength of the visible light detected by the sensor . a UV source configured to emit UV light; a sensor configured to detect the visible light emitted by the UV reactive paint of a respective path of the plurality of paths; and a controller configured to guide the vehicle along the respective path based on a wavelength of the visible light detected by the sensor .
A device for aligning a light beam that is exiting from a light source or from a light guide along an optical axis, comprising: - an outer housing defining a longitudinal direction ; - an inner housing defining a longitudinal direction and being arranged at least partially inside the outer housing ; - the inner housing being designed to accommodate and support in a fixed manner the light source or the light guide such that the optical axis of the light beam is fixed relative to the longitudinal direction of the inner housing ; - wherein the inner housing is mounted to the outer housing in an adjustably manner such that different inclinations are adjustable between the longitudinal direction of the inner housing and the longitudinal direction of the outer housing in order to align the optical axis of the light beam relative to the longitudinal direction of the outer housing , the inner housing being inclinable in any direction perpendicular to its longitudinal direction ; characterized in that a lens or a lens system is mounted in or on the inner housing to cause beam forming of the light beam. - an outer housing defining a longitudinal direction ; - an inner housing defining a longitudinal direction and being arranged at least partially inside the outer housing ; - the inner housing being designed to accommodate and support in a fixed manner the light source or the light guide such that the optical axis of the light beam is fixed relative to the longitudinal direction of the inner housing ; - wherein the inner housing is mounted to the outer housing in an adjustably manner such that different inclinations are adjustable between the longitudinal direction of the inner housing and the longitudinal direction of the outer housing in order to align the optical axis of the light beam relative to the longitudinal direction of the outer housing , the inner housing being inclinable in any direction perpendicular to its longitudinal direction ;