Abstract:
PROBLEM TO BE SOLVED: To accurately retrieve biological sequence information, at high speed, having an important secondary structure, such as a functional RNA, from a retrieval target database which stores a large quantity of biological sequence information. SOLUTION: The retrieval device of biological sequence information 100 comprises: a central processing part 200: and a parallel processing part 300 arranged in an element different from the central processing part 200, and is configured to communicate with the retrieval target database 102 related to the biological sequence information. The parallel processing part 300 includes a first candidate sequence extraction part 302 for extracting a first candidate sequence in which a value obtained by a first inquiry function satisfies a predetermined criterion. The central processing part 200 includes a second candidate sequence extraction part 214 for extracting a second candidate sequence in which a value obtained by a second inquiry function satisfies the predetermined criterion. In addition, the first inquiry function and the second inquiry function are functions for calculating structural validity when the biological sequence information is applied to inquiry structure patterns. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To accurately retrieve target biological sequence information at high speed from a retrieval target database which stores a large quantity of biological sequence information. SOLUTION: The retrieval device of biological sequence information 100 comprises: a central processing part 200: and a parallel processing part 300 arranged in an element different from the central processing part 200, and is configured to communicate with the retrieval target database 102 related to the biological sequence information. The central processing part 200 includes a parallel processing inquiry sequence generation part 204 for generating a parallel processing inquiry sequence based on an inquiry sequence. The parallel processing part 300 includes a first candidate sequence extraction part 302 for performing sequence matching between the parallel processing inquiry sequence and the retrieval target database 102, and for extracting a first candidate sequence. The central processing part 200 further includes a second candidate sequence extraction part 210 for performing the sequence matching between the inquiry sequence and the first candidate sequence, and for extracting a second candidate sequence. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To speed up processing of analysis on biological sequence information such as a base sequence and an amino acid sequence. SOLUTION: A comparator 28 compares sequence information with a reference sequence by parallel collation processing. A sequence processing control part 30 controls the comparator 28, feeds the reference sequence to the comparator 28, and obtains a comparison result from the comparator 28. When the sequence processing control part 30 makes the comparator 28 operate parallel collation processing, in which a wild card is set at a site equivalent to a part of the reference sequence, a processing result of the sequence information is obtained. The sequence processing control part 30 offers the reference sequence with a wild card set in a part to the comparator. Using the reference sequence in which the wild card is set, similarity search is carried out. An amino acid sequence code area is retrieved by using the reference sequence in which the wild card is set to the site, in which bases corresponding to kinds of the amino acid are unspecified, is used. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To speed up processing of analysis on biological sequence information such as a base sequence and an amino acid sequence. SOLUTION: A comparator 28 compares sequence information with a reference sequence by parallel collation processing. A sequence processing control part 30 controls the comparator 28, feeds a sequence processing control reference sequence to the comparator 28, and obtains a comparison result from the comparator 28. The sequence processing control part 30 includes a mask processing part 46 turning at least a part of the sequence information written in the comparator 28 into a masked condition in which sequence elements are not distinguished. When mask processing by the mask processing part 46 based on the comparison result by the comparator 28 is carried out, a processing result of the sequence information is acquired. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To accelerate analysis processing of biological sequence information such as a base sequence and an amino acid sequence. SOLUTION: A storage processor having a parallel collation function, typically a CAM, namely Content Addressable Memory is used. Sequence information is stored in the storage processor to be used as collated data. Sequence analysis information is obtained by making the storage processor collate the collating data with the collated data by parallel processing and obtaining information indicating coincidence between the collating data and the collated data. In a preferable embodiment, a plurality of sequences are stored in the CAM which is the storage processor so that they are arranged in the collating direction by turning the direction to cross the collating direction. The same character string is used as the collating data. Whether or not the plurality of sequences coincide is determined by collation of the CAM. When the plurality of sequences are excluded from collating objects one by one, what sequence is different is understood. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To speed up the analysis of biological sequence information such as base sequences and amino acid sequences. SOLUTION: A storage processing apparatus with a parallel collating function, typically a CAM (Content Addressable Memory) is used. Sequence information is stored in the storage processing apparatus for use as data to be collated. Collating data and the data to be collated are collated through parallel processing by the storage processing apparatus to obtain information showing the coincidence of the collating data with the data to be collated to thereby obtain sequence analysis information. In a preferred embodiment, a plurality of sequences are stored in the CAM as the storage processing apparatus while being pointed in a direction perpendicular to the direction of collation and aligned in the direction of collation. The same letter string is used as the collating data. Through collation by the CAM, a determination is made as to whether or not the plurality of sequences are coincident with one another. By excluding the plurality of sequences one by one from the subject of collation, one can see which of the sequences are different. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
Storage processor having a parallel matching function, typically, a CAM or content addressable memory. Sequence information is stored in a storage processor to use it as to-be-matched data. Matching data and the to-be-matched data are matched parallel by the storage processor. Information representing the matching between the matching data and the to-be-matched data is obtained, and thereby sequence analysis information is obtained. In a preferred mode, sequences are so stored in a CAM serving as the storage processor as to be directed perpendicularly to the matching direction and arranged in the matching direction. The matching data used is a same-character string. From the matching by the CAM, it is judged whether or not the sequences match one another. When sequences are excluded from the matching object one by one, which sequence is different is found. Analysis of biological sequence information such as on a base sequence and amino acid sequence is conducted in a shorter time.
Abstract:
A magnetic lifting device for lifting a stack of specimen holders out of one tube and lowering them into another tube is disclosed. The device avoids the necessity of manual handling of the stack. ln the device there are a number of stack holding tubes, each one open at the top, positioned in a circle about a vertical axis of a rotatable carousel. An indexing system rotates the carousel to selectively place one of the stack holding tubes in a treatment position. The improvement comprises a magnetizable member attached to the top of the stack of sample holders, a transfer tube having a bottom opening positioned to mate on top of the stack holding tube to hold the magnetizable member in a magnetic field, a device to raise and lower the magnetic coil about the transfer tube to raise and lower the magnetic coil about the transfer tube to raise the stack into the transfer tube allowing the carousel to be rotated, and lower the stack into another stack holding tube.
Abstract:
A magnetic lifting device for lifting a stack of specimen holders out of one tube and lowering them into another tube is disclosed. The device avoids the necessity of manual handling of the stack. ln the device there are a number of stack holding tubes, each one open at the top, positioned in a circle about a vertical axis of a rotatable carousel. An indexing system rotates the carousel to selectively place one of the stack holding tubes in a treatment position. The improvement comprises a magnetizable member attached to the top of the stack of sample holders, a transfer tube having a bottom opening positioned to mate on top of the stack holding tube to hold the magnetizable member in a magnetic field, a device to raise and lower the magnetic coil about the transfer tube to raise and lower the magnetic coil about the transfer tube to raise the stack into the transfer tube allowing the carousel to be rotated, and lower the stack into another stack holding tube.