mhurhangee/patent-ind-claim-en huggingface dataset:
A printing apparatus comprising: a printing unit configured to perform printing onto a medium; a supporting unit configured to support the medium to be printed by the printing unit; a pressing unit configured to be attachable and detachable with respect to the supporting unit and to be attached to the supporting unit to press the medium supported by the supporting unit; and a retainer configured to retain the pressing unit that is detached from the supporting unit, wherein the retainer has: a first portion on which the pressing unit is to be placed; and a second portion positioned closer to a leading end of the retainer than the first portion and above the first portion in a vertical direction. a printing unit configured to perform printing onto a medium; a supporting unit configured to support the medium to be printed by the printing unit; a pressing unit configured to be attachable and detachable with respect to the supporting unit and to be attached to the supporting unit to press the medium supported by the supporting unit; and a retainer configured to retain the pressing unit that is detached from the supporting unit, wherein the retainer has: a first portion on which the pressing unit is to be placed; and a second portion positioned closer to a leading end of the retainer than the first portion and above the first portion in a vertical direction. a first portion on which the pressing unit is to be placed; and a second portion positioned closer to a leading end of the retainer than the first portion and above the first portion in a vertical direction.
A photocurable resin composition comprising: an allyl polymer (a) produced by polymerization of an allyl compound represented by the following formula : Z-[-COOCH 2 CH=CH 2 ] n wherein n represents an integer of 2 to 4; Z is selected from a binding site, an n-valent aliphatic chain hydrocarbon group optionally having a hydroxyl group, an n-valent alicyclic hydrocarbon group optionally having an alkyl group, and an n-valent aromatic hydrocarbon group optionally having an alkyl group; n is 2 and two -COOCH 2 CH=CH 2 moieties are directly bonded to each other when Z is a binding site, wherein the allyl compound represented by the formula is any one selected from diallyl oxalate, diallyl malonate, diallyl succinate, diallyl glutarate, diallyl adipate, diallyl pimelate, diallyl suberate, diallyl azelate, diallyl sebacate, diallyl fumarate, diallyl maleate, diallyl malate, diallyl tartrate, triallyl citrate, and diallyl itaconate; a photocurable compound (b); and a photopolymerization initiator (c), wherein the photocurable resin composition does not contain a solvent. wherein n represents an integer of 2 to 4; Z is selected from a binding site, an n-valent aliphatic chain hydrocarbon group optionally having a hydroxyl group, an n-valent alicyclic hydrocarbon group optionally having an alkyl group, and an n-valent aromatic hydrocarbon group optionally having an alkyl group; n is 2 and two -COOCH 2 CH=CH 2 moieties are directly bonded to each other when Z is a binding site, wherein the allyl compound represented by the formula is any one selected from diallyl oxalate, diallyl malonate, diallyl succinate, diallyl glutarate, diallyl adipate, diallyl pimelate, diallyl suberate, diallyl azelate, diallyl sebacate, diallyl fumarate, diallyl maleate, diallyl malate, diallyl tartrate, triallyl citrate, and diallyl itaconate; a photocurable compound (b); and a photopolymerization initiator (c), wherein the photocurable resin composition does not contain a solvent.
A refrigerator comprising: a cabinet ; a partition member dividing an interior of the cabinet into a first storage space (W1) and into a second storage space (W2); an inner guide provided in the cabinet and having at least one discharge port for discharging air into the first storage space (W1) and a suction port for suctioning air in the first storage space (W1); a flow path layer provided in the inner guide , the flow path layer forms a discharge flow path (P2) for guiding air to the at least one discharge port ; a fan housing including a conduit for guiding air to the discharge flow path (P2), the fan housing comprises an opening coupled to the conduit , the fan housing comprises an outlet spaced apart from the opening ; and a fan inside the fan housing ; wherein the conduit has a leading end and a trailing end associated with the opening , the leading end being provided closer to an outer circumference of the fan than the trailing end , wherein the fan is positioned closer to the outlet than to the trailing end of the conduit ; characterized in that the refrigerator further comprises: an inner cover including an additional discharge port for discharging air into the second storage space (W2) and an additional suction port for suctioning air in the second storage space (W2); and a discharge duct for guiding air flow between the outlet of the fan housing and the additional discharge port of the inner cover . a cabinet ; a partition member dividing an interior of the cabinet into a first storage space (W1) and into a second storage space (W2); an inner guide provided in the cabinet and having at least one discharge port for discharging air into the first storage space (W1) and a suction port for suctioning air in the first storage space (W1); a flow path layer provided in the inner guide , the flow path layer forms a discharge flow path (P2) for guiding air to the at least one discharge port ; a fan housing including a conduit for guiding air to the discharge flow path (P2), the fan housing comprises an opening coupled to the conduit , the fan housing comprises an outlet spaced apart from the opening ; and a fan inside the fan housing ; wherein the conduit has a leading end and a trailing end associated with the opening , the leading end being provided closer to an outer circumference of the fan than the trailing end , wherein the fan is positioned closer to the outlet than to the trailing end of the conduit ; characterized in that the refrigerator further comprises: an inner cover including an additional discharge port for discharging air into the second storage space (W2) and an additional suction port for suctioning air in the second storage space (W2); and a discharge duct for guiding air flow between the outlet of the fan housing and the additional discharge port of the inner cover .
A subsurface diver transport vehicle, comprising: a vehicle body comprising a plurality of individual mission modules mechanically assembled together to define a substantially continuous hull and deck of said vehicle , said mission modules comprising a plurality of adjacent inline battery modules adapted for supplying electrical current to electrical subsystems of said vehicle , and at least one propulsion device attached to said vehicle body and capable of propelling said vehicle through a body of water, characterized in that each battery module comprises a plurality of individual electrically isolated lithium-ion battery packs , and a flexible conductive battery cable extending from one end of said battery module and a complementary battery cable connector located at an opposite end of said battery module , such that upon connecting said battery cable and cable connector of adjacent battery modules electrical current is operatively transferred between and among said battery modules for distribution to other mission modules of said vehicle body , wherein said battery module further comprises a distribution manifold , and said battery cable and cable connector electrically connect to the distribution manifold . a vehicle body comprising a plurality of individual mission modules mechanically assembled together to define a substantially continuous hull and deck of said vehicle , said mission modules comprising a plurality of adjacent inline battery modules adapted for supplying electrical current to electrical subsystems of said vehicle , and at least one propulsion device attached to said vehicle body and capable of propelling said vehicle through a body of water, characterized in that each battery module comprises a plurality of individual electrically isolated lithium-ion battery packs , and a flexible conductive battery cable extending from one end of said battery module and a complementary battery cable connector located at an opposite end of said battery module , such that upon connecting said battery cable and cable connector of adjacent battery modules electrical current is operatively transferred between and among said battery modules for distribution to other mission modules of said vehicle body , wherein said battery module further comprises a distribution manifold , and said battery cable and cable connector electrically connect to the distribution manifold .
A method for decoding a signal, comprising: receiving a bitstream comprising an encoded bitstream of a low frequency signal, an adaptively encoded bitstream of a high frequency signal, and a result of a classification decision process; wherein the result of the classification decision process determines a current frame type of the high frequency signal, wherein, the types of the high frequency signals include a transient signal and a non-transient signal; allocating bits according to the current frame type of the high frequency signal; wherein, according to the result of the classification decision process, values of M1=16,N1=16, or M2=32, N2=0 are selected to allocate bits, and a time envelope and a spectral envelope are decoded by using the allocated bits; M1 represents bits occupied by the time envelope of the transient signal, N1 represents bits occupied by the spectral envelope of the transient signal; M2 represents bits occupied by the spectral envelope of the non-transient signal, N2 represents bits occupied by the time envelope of the non-transient signal; adaptively decoding the time envelope and the spectral envelope of the current frame of the high frequency signal according to a determined excitation signal by using the allocated bits; and obtaining an output signal comprising a decoded low frequency signal and the adaptively decoded high frequency signal; wherein the method further comprises: determining the excitation signal according to the result of the classification decision process and the decoded low frequency signal. receiving a bitstream comprising an encoded bitstream of a low frequency signal, an adaptively encoded bitstream of a high frequency signal, and a result of a classification decision process; wherein the result of the classification decision process determines a current frame type of the high frequency signal, wherein, the types of the high frequency signals include a transient signal and a non-transient signal; allocating bits according to the current frame type of the high frequency signal; wherein, according to the result of the classification decision process, values of M1=16,N1=16, or M2=32, N2=0 are selected to allocate bits, and a time envelope and a spectral envelope are decoded by using the allocated bits; M1 represents bits occupied by the time envelope of the transient signal, N1 represents bits occupied by the spectral envelope of the transient signal; M2 represents bits occupied by the spectral envelope of the non-transient signal, N2 represents bits occupied by the time envelope of the non-transient signal; adaptively decoding the time envelope and the spectral envelope of the current frame of the high frequency signal according to a determined excitation signal by using the allocated bits; and obtaining an output signal comprising a decoded low frequency signal and the adaptively decoded high frequency signal; wherein the method further comprises: determining the excitation signal according to the result of the classification decision process and the decoded low frequency signal.
A method for wireless communication by a base station, BS, comprising: assigning at least one user equipment, UE, -specific configuration, wherein the UE-specific configuration comprises an allocation of resources for a synchronization signal, SS, for mobility, wherein the mobility is a L3 mobility wherein the UE has an active radio resource control, RRC, connection with a base station; and wherein the UE-specific configuration comprises an indication of a SS to be transmitted by a serving base station and an indication of a SS to be transmitted by a target base station, wherein the indications of the SS indicate locations in time and/or frequency of the SS; and communicating with the UE based, at least in part, on the UE-specific configuration.
A data management apparatus comprising: a transformed data set generation unit that generates a transformed data set by randomly mixing a sequence of rows or columns of an original data set formed in rows and columns; and a data management unit that provides the transformed data set to the user terminal , characterized in that the data management unit matches and stores information on the sequence of rows or columns of the transformed data set that is randomly mixed from the original data set, and information on a user who is provided with the transformed data set, wherein the transformed data set generation unit uses the sequence of the rows or the columns of the original data set that is differently mixed each time the transformed data set is generated from the original data set, and wherein, when a predetermined transformed data set is provided, the data management unit identifies a user who is provided with the predetermined transformed data set, using information on a sequence of rows or columns of the predetermined transformed data set. a transformed data set generation unit that generates a transformed data set by randomly mixing a sequence of rows or columns of an original data set formed in rows and columns; and a data management unit that provides the transformed data set to the user terminal , characterized in that the data management unit matches and stores information on the sequence of rows or columns of the transformed data set that is randomly mixed from the original data set, and information on a user who is provided with the transformed data set, wherein the transformed data set generation unit uses the sequence of the rows or the columns of the original data set that is differently mixed each time the transformed data set is generated from the original data set, and wherein, when a predetermined transformed data set is provided, the data management unit identifies a user who is provided with the predetermined transformed data set, using information on a sequence of rows or columns of the predetermined transformed data set.
A use of a composition comprising a peptide consisting of an amino acid sequence of SEQ ID NO: 1 comprising an RGD motif (Arg-Gly-Asp motif) or its fragment comprising an RGD motif (Arg-Gly-Asp motif) as an active ingredient, for skin wrinkle reduction.
A comb comprising a comb main body having one edge comb part projecting from one end of the comb main body , another edge comb part projecting from another end of the comb main body , and a plurality of comb teeth projecting from the comb main body between the one edge comb part and the other edge comb part , wherein the one edge comb part is divided into a range on a tip-end side having a tapered tip end, a range on the root side connected with the comb main body and a range of a middle part which is between the tip-end side and the root side , and wherein an outer edge surface forming an edge of a perimeter of the one edge comb part in a front view is concave at the middle part and convex at the tip-end side by forming a dented part at the middle part in the outer edge surface , characterized in that : a tip end through-hole penetrating in the width directions of the one edge comb part is formed within the range on the tip-end side , and a counter bore is formed around the tip end through-hole . a tip end through-hole penetrating in the width directions of the one edge comb part is formed within the range on the tip-end side , and a counter bore is formed around the tip end through-hole .
A method of encoding comprising: obtaining a stream of information bits ; encoding the stream of information bits into a plurality of forward error correct, FEC, codeblocks by: encoding the stream of information bits at a first layer to obtain a stream of FEC bits, partitioning the stream of FEC bits into a plurality of subsets of FEC bits, and encoding each subset of FEC bits at a layer lower than the first layer using a secondary FEC code to obtain the plurality of FEC code blocks, wherein each FEC codeblock is independently decodable without relying on data of the other FEC codeblocks for supporting successive interference cancellation, SIC, at a receiver; mapping the plurality of FEC codeblocks to a plurality of resource blocks, wherein each FEC codeblock is mapped to a single one of the resource blocks to obtain independently decodable resource blocks and a resource block refers to a collection of resources in a network; and transmitting the plurality of FEC codeblocks as a data stream in accordance with the independently decodable resource blocks; and wherein encoding each subset of FEC bits at the layer lower than the first layer comprises encoding each subset of FEC bits using a unique one of a plurality of secondary FEC codes to obtain a corresponding one of the plurality of FEC codeblocks; the method characterized by (i) at least some of the plurality of secondary FEC codes used for encoding have different coding rates and (ii) use an FEC convolutional code in the encoding of the steam of information bits at the first layer. obtaining a stream of information bits ; encoding the stream of information bits into a plurality of forward error correct, FEC, codeblocks by: encoding the stream of information bits at a first layer to obtain a stream of FEC bits, partitioning the stream of FEC bits into a plurality of subsets of FEC bits, and encoding each subset of FEC bits at a layer lower than the first layer using a secondary FEC code to obtain the plurality of FEC code blocks, wherein each FEC codeblock is independently decodable without relying on data of the other FEC codeblocks for supporting successive interference cancellation, SIC, at a receiver; mapping the plurality of FEC codeblocks to a plurality of resource blocks, wherein each FEC codeblock is mapped to a single one of the resource blocks to obtain independently decodable resource blocks and a resource block refers to a collection of resources in a network; and transmitting the plurality of FEC codeblocks as a data stream in accordance with the independently decodable resource blocks; and wherein encoding each subset of FEC bits at the layer lower than the first layer comprises encoding each subset of FEC bits using a unique one of a plurality of secondary FEC codes to obtain a corresponding one of the plurality of FEC codeblocks; the method characterized by (i) at least some of the plurality of secondary FEC codes used for encoding have different coding rates and (ii) use an FEC convolutional code in the encoding of the steam of information bits at the first layer.
Process for dissolving nuclear fuel, comprising immersion of the nuclear fuel in a nitric acid solution, characterized in that it further comprises mechanical milling of the nuclear fuel, this mechanical milling being performed in the nitric acid solution during said immersion.
Decoder for reconstructing a sample array from a data stream , configured to derive a bi-partition of a predetermined block of the sample array into first and second partitions by generating, for each of a plurality of block sizes, an ordered list of wedgelet patterns, each wedgelet pattern corresponding to a combination of start and end points of a wedgelet separation line, by using an algorithm determining which samples to plot to form a close approximation to a straight line between the start and end points and indexing a wedgelet pattern within a list of wedgelet patterns generated for a block size of the predetermined block using an index explicitly signaled in the data stream so as to obtain the first and second partitions; associate each of neighboring samples of the sample array , adjoining to the predetermined block, with a respective one of the first and second partitions so that each neighboring sample adjoins the partition with which same is associated; predict the predetermined block by assigning a mean value of values of the neighboring samples associated with the first partition to samples of the sample array positioned within the first partition and/or a mean value of values of the neighboring samples associated with the second partition to samples of the sample array positioned within the second partition.
A packaging machine comprising a work station , an infeed conveyor , an outfeed conveyor , a control system and a gripper system , wherein the gripper system comprises at least first and second grippers each displaceable in a transport direction (T), wherein the first gripper is configured to move one or more packaging trays from the infeed conveyor into the work station , and the second gripper is configured to move one or more packaging trays from the work station to the outfeed conveyor , wherein the control system is configured to move the first gripper independently of the second gripper and is further configured to control the movements of the two grippers such that a collision of the grippers is prevented, and wherein the work station comprises a lower part of a tool and an upper part of the tool, one or both of which are movable to open and close the work station , characterized in that the control system is configured to control the first gripper and/or the second gripper without collision and at least in phases simultaneously with the lower part of the tool and/or the upper part of the tool, wherein the control system is configured to feed the first gripper and/or the second gripper into the opening work station . wherein the control system is configured to move the first gripper independently of the second gripper and is further configured to control the movements of the two grippers such that a collision of the grippers is prevented, and wherein the work station comprises a lower part of a tool and an upper part of the tool, one or both of which are movable to open and close the work station , characterized in that the control system is configured to control the first gripper and/or the second gripper without collision and at least in phases simultaneously with the lower part of the tool and/or the upper part of the tool, wherein the control system is configured to feed the first gripper and/or the second gripper into the opening work station .