INTRODUCTION
DEFINITION OF BIOINFORMATICS
HISTORY
OBJECTIVES OF BIOINFORMATICS
TOOLS OF BIOINFORMATICS
BIOLOGICAL DATABASES
HOMOLOGY AND SIMILARITY TOOLS (SEQUENCE ALIGNMENT)
PROTEIN FUNCTION ANALYSIS TOOLS
STRUCTURAL ANALYSIS TOOLS
SEQUENCE MANIPULATION TOOLS
SEQUENCE ANALYSIS TOOLS
APPLICATION
CONCLUSION
REFERENCES
Introduction
Definition
History
Principle
Components of bioinformatics
Bioinformatics databases
Tools of bioinformatics
Applications of bioinformatics
Molecular medicine
Microbial genomics
Plant genomics
Animal genomics
Human genomics
Drug and vaccine designing
Proteomics
For studying biomolecular structures
In- silico testing
Conclusion
References
As an interdisciplinary field of science, bioinformatics combines biology, computer science, information engineering, mathematics and statistics to analyze and interpret the biological data.
INTRODUCTION OF BIOINFORMATICS
HISTORY
WHAT IS DATABASE
NEED FOR DATABASE
TYPES OF DATABASE
PRIMARY DATABASE
NUCLEIC ACID SEQUENCE DATABASE
GENE BANK
INTRODUCTION
GENE BANK SUBMISSION TOOL
GENE BANK SUBMISSION TYPE
HOW TO RETRIEVE DATA FROM GENEBANK
APPLICATION
CONCLUSION
REFERENCE
This document discusses biological databases and nucleic acid sequence databases. It describes the three primary nucleotide sequence databases: GenBank, EMBL, and DDBJ. GenBank is hosted by the National Center for Biotechnology Information and contains over 286 million bases and 352,000 sequences. EMBL is hosted by the European Molecular Biology Laboratory and mirrors data daily with GenBank and DDBJ. DDBJ is the DNA Data Bank of Japan and also mirrors data daily with the other two databases. Biological databases are important tools for scientists to understand biology at multiple levels.
It includes the information related to a bioinformatics tool BLAST (Basic Local Alignment Search Tool), BLAST is in-silico hybridisation to find regions of similarity between biological sequences. The program compares nucleotide or protein sequences to sequence databases and calculates the statistical significance. This presentation too contains the input - output format, Blast process and its types .
Bioinformatics is the use of computers for storage, retrieval, manipulation, and distribution of information related to biological macromolecules such as DNA, RNA, and proteins. It involves developing computational tools and databases to analyze biological data. Key areas include sequence analysis, structural analysis, functional analysis, biological databases, sequence alignment, protein structure prediction, molecular phylogenetics, and genomics. The goals are to better understand living systems at the molecular level through computational analysis of biological data.
FASTA is a bioinformatics tool and biological database that is used to compare amino acid sequences of proteins or nucleotide sequences of DNA. It was first described in 1985 by Lipman and Pearson. FASTA performs fast homology searches to find similarities between a query sequence and sequences in a database. While similar to BLAST, FASTA is faster for sequence comparisons. It works by identifying patches of sequence similarity that may contain gaps. Some key FASTA programs include FASTA, TFASTA, FASTS, and FASTX/Y. FASTA is useful for applications like identification of species, establishing phylogeny, DNA mapping, and understanding protein function.
INTRODUCTION
DEFINITION OF BIOINFORMATICS
HISTORY
OBJECTIVES OF BIOINFORMATICS
TOOLS OF BIOINFORMATICS
BIOLOGICAL DATABASES
HOMOLOGY AND SIMILARITY TOOLS (SEQUENCE ALIGNMENT)
PROTEIN FUNCTION ANALYSIS TOOLS
STRUCTURAL ANALYSIS TOOLS
SEQUENCE MANIPULATION TOOLS
SEQUENCE ANALYSIS TOOLS
APPLICATION
CONCLUSION
REFERENCES
Introduction
Definition
History
Principle
Components of bioinformatics
Bioinformatics databases
Tools of bioinformatics
Applications of bioinformatics
Molecular medicine
Microbial genomics
Plant genomics
Animal genomics
Human genomics
Drug and vaccine designing
Proteomics
For studying biomolecular structures
In- silico testing
Conclusion
References
As an interdisciplinary field of science, bioinformatics combines biology, computer science, information engineering, mathematics and statistics to analyze and interpret the biological data.
INTRODUCTION OF BIOINFORMATICS
HISTORY
WHAT IS DATABASE
NEED FOR DATABASE
TYPES OF DATABASE
PRIMARY DATABASE
NUCLEIC ACID SEQUENCE DATABASE
GENE BANK
INTRODUCTION
GENE BANK SUBMISSION TOOL
GENE BANK SUBMISSION TYPE
HOW TO RETRIEVE DATA FROM GENEBANK
APPLICATION
CONCLUSION
REFERENCE
This document discusses biological databases and nucleic acid sequence databases. It describes the three primary nucleotide sequence databases: GenBank, EMBL, and DDBJ. GenBank is hosted by the National Center for Biotechnology Information and contains over 286 million bases and 352,000 sequences. EMBL is hosted by the European Molecular Biology Laboratory and mirrors data daily with GenBank and DDBJ. DDBJ is the DNA Data Bank of Japan and also mirrors data daily with the other two databases. Biological databases are important tools for scientists to understand biology at multiple levels.
It includes the information related to a bioinformatics tool BLAST (Basic Local Alignment Search Tool), BLAST is in-silico hybridisation to find regions of similarity between biological sequences. The program compares nucleotide or protein sequences to sequence databases and calculates the statistical significance. This presentation too contains the input - output format, Blast process and its types .
Bioinformatics is the use of computers for storage, retrieval, manipulation, and distribution of information related to biological macromolecules such as DNA, RNA, and proteins. It involves developing computational tools and databases to analyze biological data. Key areas include sequence analysis, structural analysis, functional analysis, biological databases, sequence alignment, protein structure prediction, molecular phylogenetics, and genomics. The goals are to better understand living systems at the molecular level through computational analysis of biological data.
FASTA is a bioinformatics tool and biological database that is used to compare amino acid sequences of proteins or nucleotide sequences of DNA. It was first described in 1985 by Lipman and Pearson. FASTA performs fast homology searches to find similarities between a query sequence and sequences in a database. While similar to BLAST, FASTA is faster for sequence comparisons. It works by identifying patches of sequence similarity that may contain gaps. Some key FASTA programs include FASTA, TFASTA, FASTS, and FASTX/Y. FASTA is useful for applications like identification of species, establishing phylogeny, DNA mapping, and understanding protein function.
This document discusses different types of sequence alignment methods used in bioinformatics to identify similarities between DNA, RNA, and protein sequences. It describes global and local alignment, which aim to identify conserved regions across entire or local subsequences. Pairwise alignment methods like dot matrix, dynamic programming, and word methods are used to compare two sequences. Multiple sequence alignment extends this to three or more sequences, using progressive, iterative, or dynamic programming approaches to infer evolutionary relationships.
This document discusses databases in bioinformatics. It begins by noting the rapid increase in biological data from sources like gene sequences, protein sequences, structural data, and gene expression data. It then defines biological databases as structured, searchable collections of data that are periodically updated and cross-referenced. The major purposes of databases are to make biological data available, systematize the data, and allow analysis of computed biological data. The document provides a brief history of biological databases and sequencing efforts. It also classifies biological databases based on data type, maintenance status, data access, data sources, database design, and organism. Specific databases discussed include DDBJ, EMBL, GenBank, Swiss-Prot, and NCB
The document provides an overview of the history and scope of bioinformatics. It discusses how bioinformatics emerged from the fields of computer science and biology. The history section outlines major developments from Mendel's work in 1865 to the sequencing of the human genome in 2001. Bioinformatics has various applications in areas like drug development, personalized medicine, and biotechnology. It also has significant scope in India, with growing job opportunities in both the public and private sectors.
The document summarizes a bioinformatics summer camp, including:
1. The camp will cover basic molecular biology and bioinformatics topics like DNA, proteins, gene expression and the genetic code.
2. Students will work on computational analysis projects involving whole genome sequencing, gene expression profiling, and functional and comparative genomics.
3. The camp will teach techniques for analyzing protein structures and interactions, gene expression data, and identifying pockets on protein surfaces.
History and devolopment of bioinfomatics.ppt (1)Madan Kumar Ca
Dear Sir, Madam
Name: Madan Kumar C A
Topic: History and Development of Bioinformatics
Guide: Dr. Ramesh C K
Associate Professor
Dept of Biotechnnology
Sahyadri Science College
Shivamogga
Bioinformatics is the use of computers for the acquisition, management, and analysis of biological data. It combines biology, computer science, and information technology to analyze and interpret biological data. The field includes molecular medicine, gene therapy, drug development, and other applications. Common software tools used in bioinformatics include BLAST and FASTA. BLAST is an algorithm for comparing biological sequences to identify similar sequences in databases, while FASTA is a software package for protein and DNA sequence alignment.
UniProt is a comprehensive database of protein sequences and functional information that is curated by the European Bioinformatics Institute, SIB Swiss Institute of Bioinformatics, and the Protein Information Resource. It contains three main components: UniProtKB for functional information, UniRef for clustered sequences, and UniParc for comprehensive protein sequences. As genome sequencing increases, UniProt provides centralized storage and interconnection of protein data from various sources to further scientific understanding of proteins.
This document discusses the Basic Local Alignment Search Tool (BLAST), which allows users to compare a query DNA or protein sequence against sequence databases to find regions of local similarity. BLAST breaks the query into short words that are then searched for in database sequences. When words are found in common, BLAST extends the alignment in both directions to find higher-scoring matches. BLAST outputs include a graphical display of alignments, a hit list ranking matches by similarity score, and detailed alignments. BLAST has many applications, such as identifying species, establishing evolutionary relationships, DNA mapping, and locating protein domains.
TrEMBL is a computer-annotated protein sequence database created by Rolf Apweiler that contains translations of coding sequences from nucleotide databases like EMBL and GenBank as well as protein sequences from literature or submitted directly. The database provides automated classification and annotation to enrich the protein sequences.
introduction,history scope and applications of
relation to other fields , bioinformatics,biological databases,computers internet,sequence development, and
introduction to sequence development and alignment
The National Center for Biotechnology Information (NCBI) was created in 1988 as part of the National Library of Medicine at NIH. It establishes public databases for biological research, develops software tools for sequence analysis, and disseminates biomedical information from its location in Bethesda, MD. NCBI houses several integrated databases including PubMed, GenBank, RefSeq, and UniGene that contain literature, sequences, gene information, and more.
Publicly available tools and open resources in BioinformaticsArindam Ghosh
This document provides an overview of several freely available bioinformatics tools and open resources. It describes the purpose and function of popular tools for database searching (BLAST, FASTA), sequence alignment (Clustal Omega), visualization (RasMol), molecular dynamics simulation (GROMACS), genome browsing (Ensembl), and protein modeling (MODELLER). These tools are commonly used for tasks like extracting meaningful biological information from databases, comparing sequences, understanding phylogenetic relationships, displaying molecular structures, simulating protein dynamics, and building protein models. The document provides links to each tool's homepage for further information.
NCBI; Introduction, Homepage and about
Tools and database of NCBI
BLAST; Introduction, Homepage and types of BLAST
Some databases of NCBI
References
Acknowledgements
Genomics is a discipline in genetics that applies recombinant DNA, DNA sequencing methods, and bioinformatics to sequence, assemble and analyze the function and structure of genomes
This document provides an introduction and overview of the field of bioinformatics. It discusses how bioinformatics combines computer science and biology to analyze large amounts of biological data. Specifically, it mentions that bioinformatics uses algorithms and techniques from computer science to solve complex biological problems related to areas like molecular biology, genomics, drug discovery, and more. It also outlines some of the key applications of bioinformatics like sequence analysis, protein structure prediction, genome annotation, and comparative genomics. Finally, it provides brief descriptions of important biological databases and resources that bioinformaticians use to store and analyze genomic and protein sequence data.
The document discusses the National Center for Biotechnology Information (NCBI), which maintains biological databases and provides bioinformatics tools. NCBI houses both primary databases directly submitted by researchers and secondary databases compiled from primary sources. Major databases include GenBank (nucleotide sequences), PubMed Central (biomedical literature), and reference sequence databases. Tools like BLAST, Entrez, and ORFfinder allow users to search and analyze sequence data. NCBI aims to make biomedical research data freely accessible worldwide.
This document provides an overview of bioinformatics. It begins by explaining how bioinformatics emerged from the need to analyze vast amounts of genetic sequence data produced by projects like the Human Genome Project. It then defines bioinformatics as the field that develops tools and methods for understanding biological data by combining computer science, statistics, and other disciplines. The document outlines several goals and applications of bioinformatics, such as identifying genes and their functions, modeling protein structures, comparing genomes, and its uses in medicine, microbial research, and more. It also provides a brief history of important developments in bioinformatics and DNA sequencing.
This document provides an overview of bioinformatics and related topics across 7 parts:
Part I introduces bioinformatics and its areas including genomics, proteomics, computational biology, and databases.
Part II discusses the history of bioinformatics from Darwin's theory of evolution to the human genome project.
Part III focuses on the human genome project, its goals of identifying genes and sequencing DNA, and its benefits like improved medicine.
Part IV explains how the internet plays an important role in bioinformatics for retrieving biological information and resources like databases, tools, and software.
Part V describes different types of biological databases including primary, secondary, and composite databases that combine different sources.
Part VI discusses knowledge discovery
This document discusses different types of sequence alignment methods used in bioinformatics to identify similarities between DNA, RNA, and protein sequences. It describes global and local alignment, which aim to identify conserved regions across entire or local subsequences. Pairwise alignment methods like dot matrix, dynamic programming, and word methods are used to compare two sequences. Multiple sequence alignment extends this to three or more sequences, using progressive, iterative, or dynamic programming approaches to infer evolutionary relationships.
This document discusses databases in bioinformatics. It begins by noting the rapid increase in biological data from sources like gene sequences, protein sequences, structural data, and gene expression data. It then defines biological databases as structured, searchable collections of data that are periodically updated and cross-referenced. The major purposes of databases are to make biological data available, systematize the data, and allow analysis of computed biological data. The document provides a brief history of biological databases and sequencing efforts. It also classifies biological databases based on data type, maintenance status, data access, data sources, database design, and organism. Specific databases discussed include DDBJ, EMBL, GenBank, Swiss-Prot, and NCB
The document provides an overview of the history and scope of bioinformatics. It discusses how bioinformatics emerged from the fields of computer science and biology. The history section outlines major developments from Mendel's work in 1865 to the sequencing of the human genome in 2001. Bioinformatics has various applications in areas like drug development, personalized medicine, and biotechnology. It also has significant scope in India, with growing job opportunities in both the public and private sectors.
The document summarizes a bioinformatics summer camp, including:
1. The camp will cover basic molecular biology and bioinformatics topics like DNA, proteins, gene expression and the genetic code.
2. Students will work on computational analysis projects involving whole genome sequencing, gene expression profiling, and functional and comparative genomics.
3. The camp will teach techniques for analyzing protein structures and interactions, gene expression data, and identifying pockets on protein surfaces.
History and devolopment of bioinfomatics.ppt (1)Madan Kumar Ca
Dear Sir, Madam
Name: Madan Kumar C A
Topic: History and Development of Bioinformatics
Guide: Dr. Ramesh C K
Associate Professor
Dept of Biotechnnology
Sahyadri Science College
Shivamogga
Bioinformatics is the use of computers for the acquisition, management, and analysis of biological data. It combines biology, computer science, and information technology to analyze and interpret biological data. The field includes molecular medicine, gene therapy, drug development, and other applications. Common software tools used in bioinformatics include BLAST and FASTA. BLAST is an algorithm for comparing biological sequences to identify similar sequences in databases, while FASTA is a software package for protein and DNA sequence alignment.
UniProt is a comprehensive database of protein sequences and functional information that is curated by the European Bioinformatics Institute, SIB Swiss Institute of Bioinformatics, and the Protein Information Resource. It contains three main components: UniProtKB for functional information, UniRef for clustered sequences, and UniParc for comprehensive protein sequences. As genome sequencing increases, UniProt provides centralized storage and interconnection of protein data from various sources to further scientific understanding of proteins.
This document discusses the Basic Local Alignment Search Tool (BLAST), which allows users to compare a query DNA or protein sequence against sequence databases to find regions of local similarity. BLAST breaks the query into short words that are then searched for in database sequences. When words are found in common, BLAST extends the alignment in both directions to find higher-scoring matches. BLAST outputs include a graphical display of alignments, a hit list ranking matches by similarity score, and detailed alignments. BLAST has many applications, such as identifying species, establishing evolutionary relationships, DNA mapping, and locating protein domains.
TrEMBL is a computer-annotated protein sequence database created by Rolf Apweiler that contains translations of coding sequences from nucleotide databases like EMBL and GenBank as well as protein sequences from literature or submitted directly. The database provides automated classification and annotation to enrich the protein sequences.
introduction,history scope and applications of
relation to other fields , bioinformatics,biological databases,computers internet,sequence development, and
introduction to sequence development and alignment
The National Center for Biotechnology Information (NCBI) was created in 1988 as part of the National Library of Medicine at NIH. It establishes public databases for biological research, develops software tools for sequence analysis, and disseminates biomedical information from its location in Bethesda, MD. NCBI houses several integrated databases including PubMed, GenBank, RefSeq, and UniGene that contain literature, sequences, gene information, and more.
Publicly available tools and open resources in BioinformaticsArindam Ghosh
This document provides an overview of several freely available bioinformatics tools and open resources. It describes the purpose and function of popular tools for database searching (BLAST, FASTA), sequence alignment (Clustal Omega), visualization (RasMol), molecular dynamics simulation (GROMACS), genome browsing (Ensembl), and protein modeling (MODELLER). These tools are commonly used for tasks like extracting meaningful biological information from databases, comparing sequences, understanding phylogenetic relationships, displaying molecular structures, simulating protein dynamics, and building protein models. The document provides links to each tool's homepage for further information.
NCBI; Introduction, Homepage and about
Tools and database of NCBI
BLAST; Introduction, Homepage and types of BLAST
Some databases of NCBI
References
Acknowledgements
Genomics is a discipline in genetics that applies recombinant DNA, DNA sequencing methods, and bioinformatics to sequence, assemble and analyze the function and structure of genomes
This document provides an introduction and overview of the field of bioinformatics. It discusses how bioinformatics combines computer science and biology to analyze large amounts of biological data. Specifically, it mentions that bioinformatics uses algorithms and techniques from computer science to solve complex biological problems related to areas like molecular biology, genomics, drug discovery, and more. It also outlines some of the key applications of bioinformatics like sequence analysis, protein structure prediction, genome annotation, and comparative genomics. Finally, it provides brief descriptions of important biological databases and resources that bioinformaticians use to store and analyze genomic and protein sequence data.
The document discusses the National Center for Biotechnology Information (NCBI), which maintains biological databases and provides bioinformatics tools. NCBI houses both primary databases directly submitted by researchers and secondary databases compiled from primary sources. Major databases include GenBank (nucleotide sequences), PubMed Central (biomedical literature), and reference sequence databases. Tools like BLAST, Entrez, and ORFfinder allow users to search and analyze sequence data. NCBI aims to make biomedical research data freely accessible worldwide.
This document provides an overview of bioinformatics. It begins by explaining how bioinformatics emerged from the need to analyze vast amounts of genetic sequence data produced by projects like the Human Genome Project. It then defines bioinformatics as the field that develops tools and methods for understanding biological data by combining computer science, statistics, and other disciplines. The document outlines several goals and applications of bioinformatics, such as identifying genes and their functions, modeling protein structures, comparing genomes, and its uses in medicine, microbial research, and more. It also provides a brief history of important developments in bioinformatics and DNA sequencing.
This document provides an overview of bioinformatics and related topics across 7 parts:
Part I introduces bioinformatics and its areas including genomics, proteomics, computational biology, and databases.
Part II discusses the history of bioinformatics from Darwin's theory of evolution to the human genome project.
Part III focuses on the human genome project, its goals of identifying genes and sequencing DNA, and its benefits like improved medicine.
Part IV explains how the internet plays an important role in bioinformatics for retrieving biological information and resources like databases, tools, and software.
Part V describes different types of biological databases including primary, secondary, and composite databases that combine different sources.
Part VI discusses knowledge discovery
Bioinformatics is an interdisciplinary field that uses computer science and information technology to analyze and interpret biological data. It involves developing databases to store biological information and computational tools to analyze data. The key aims of bioinformatics are to store biological data in organized databases, develop tools to analyze the data, and use these tools to interpret results in a biologically meaningful way. It has applications in areas like genome sequencing and annotation, gene expression analysis, protein structure prediction, and understanding biological pathways and networks.
This document discusses bioinformatics, including its goals and applications. Bioinformatics is defined as applying information technology to store, organize, and analyze vast amounts of biological data, such as sequences and structures of proteins and nucleic acids. It merges biology, mathematics, statistics, computer science, and information technology. Bioinformatics helps analyze gene and protein expression, compare genomic data, and simulate DNA, RNA, and proteins. It has applications in molecular medicine, drug development, microbial genomics, crop improvement, and more. Common bioinformatics tools include BLAST for comparing biological sequences.
Bioinformatics & It's Scope in BiotechnologyTuhin Samanta
As an interdisciplinary field of science, bioinformatics consolidates science, software engineering, data building, arithmetic and measurements to dissect and decipher organic information. Bioinformatics has been utilized for in silico investigations of organic inquiries utilizing numerical and measurable methods.
This document provides an overview of the field of bioinformatics. It defines bioinformatics as using computational techniques to solve biological problems by analyzing large amounts of biological data like DNA sequences, amino acid sequences, and more. It discusses the need for bioinformatics due to the exponential growth of biological data from sequencing projects. Some key applications of bioinformatics mentioned include data management, knowledge discovery, drug discovery, proteomics, personalized medicine, agriculture, and its use in systems biology.
Sequence and Structural Databases of DNA and Protein, and its significance in...SBituila
This document discusses various DNA and protein sequence and structural databases, including their history, roles, and available tools. Some of the key databases mentioned are NCBI, EMBL, DDBJ, GenBank, UniProt, and PDB. NCBI maintains large public nucleotide and protein databases and provides analysis tools. EMBL collects and distributes sequence data. PDB is a database for 3D structural data of biomolecules. Together, these databases provide essential resources for genomic and proteomic research.
Bioinformatics issues and challanges presentation at s p collegeSKUASTKashmir
This document provides an overview of bioinformatics and some key concepts:
- It discusses the exponential growth of biological data from technologies like PCR and microarrays, and how bioinformatics is needed to analyze this data.
- Bioinformatics is defined as integrating biology and computer science to collect, analyze, and interpret large amounts of molecular-level information. It uses databases and tools to study genomes, proteins, and biological processes.
- Major databases like GenBank, EMBL, and SwissProt store DNA, RNA, protein sequences and provide access to researchers. Tools like BLAST are used to search databases and analyze sequences.
- Benefits of bioinformatics include advances in medicine, agriculture, forensics
Bioinformatics in biotechnology by kk sahu KAUSHAL SAHU
Introduction
Bioinformatics – definition
History
Required skills
Core areas of bioinformatics
Components of bioinformatics
Nomenclature system in bioinformatics
Biological databases
Types of database
Bioinformatics tools
Applications of bioinformatics
Conclusion
References
Bioinformatics is an interdisciplinary field involving biology, computer science, mathematics and statistics. It addresses large-scale biological problems from a computational perspective. Common problems include modeling biological processes at the molecular level and making inferences from collected data. A bioinformatics solution typically involves collecting statistics from biological data, building a computational model, solving a computational problem, and testing the algorithm. Bioinformatics plays a role in areas like structural genomics, functional genomics and nutritional genomics. It is used for applications such as transcriptome analysis, drug discovery, cheminformatics analysis, and more. It is an important tool in fields like molecular medicine, gene therapy, microbial genome applications, antibiotic resistance, and evolutionary studies. Biological databases are important for organizing
bioinformatics algorithms and its basicssofav88068
Introduction to bioinformatics, this is where u will learn about basic bioinformatics and its applications . what is bioinformatics and why bioinformatics. the basic fata sequences and blast algorithms. the examples of human genome , DNA , the genetic material and the blueprint of the whole existence. the concept of bioinformatics which is a relatively new field and the tools used there and the pipelines are also new . bioinformatics the lord the Saviour the Christ idk what else to write to up the discoverability score this is completely senseless and useless.SlideShare is a platform where you can upload, present, and discover presentations and infographics from various topics and industries. Please click the link in that email to verify your identity. To learn more, please visit our a and the long live the king of the pirates Luffy will find the one piece this website is totally crap pirate things that is best I've write 1000 words and it still isn't enough idk what else to add this .
The document discusses various types of biological databases. It describes primary databases that contain original data, secondary databases that contain processed data derived from primary databases, and composite databases that collect and filter data from multiple primary databases. Examples of specific biological databases are provided, including nucleic acid databases like GenBank, protein sequence databases like Swiss-Prot, protein structure database PDB, and metabolic pathway database KEGG. Details about the purpose and features of some of these major databases like GenBank, DDBJ, EMBL, Swiss-Prot, and PDB are outlined in the document.
This document provides an overview of bioinformatics, including its history, major areas of research, databases, tools, and applications. Bioinformatics is defined as the use of computer science and information technology to analyze and interpret biological data. The document traces the history of bioinformatics from early genetics experiments in the 1860s to advances in computing and molecular biology in the 1970s that enabled the field. It outlines major research areas like sequence analysis, genome annotation, and computational evolutionary biology. It also discusses biological databases, common bioinformatics tools, and applications of bioinformatics in fields like medicine, agriculture, and comparative genomics.
Bioinformatics involves integrating computers, software, and databases to address biological questions. It aids in comparing genetic and genomic data to further understand molecular biology, including simulating and modeling DNA, RNA, proteins, and biomolecular interactions. The field has grown with major milestones like the sequencing of insulin in 1955, the discovery of the DNA double helix in 1953, and the completion of the Human Genome Project in 2003. Bioinformatics has applications in understanding normal and abnormal biological processes, predicting gene expression, drug discovery, agriculture, and more.
This document provides an introduction to biological databases and bioinformatics tools. It defines biological sequences and databases, and describes the types of bioinformatics databases including primary, secondary, and composite databases. Examples of specific biological databases like GenBank, EMBL, and SwissProt are outlined. Common bioinformatics tools for sequence analysis, structural analysis, protein function analysis, and homology/similarity searches are listed, including BLAST, FASTA, EMBOSS, ClustalW, and RasMol. Finally, important bioinformatics resources on the web are highlighted.
This document provides an overview of genomics, bioinformatics, and related topics. It discusses:
- The genomics and bioinformatics group members Amit Garg, Lokesh Joshi, and Pankaj Phogat.
- Definitions of genomics, genome, and bioinformatics.
- An overview of the human genome project including its history, goals of identifying and sequencing all human genes, and completion in 2003.
- Other completed genome projects such as for bacteria and yeast.
- The role of bioinformatics in collecting, organizing, analyzing, and sharing biological data through computational modeling, databases, and other tools.
Bioinformatics Introduction and Use of BLAST ToolJesminBinti
Hi, I am Jesmin, studying MCSE. I think this file will help you if you want to know the basic information about Bioinformatics and the use of BLAST tool. The BLAST tool is the tool that matches the sequences of DNA,RNA and proteins.
TOPIC OF DISCUSSION: CENTRIFUGATION SLIDESHARE.pptxshubhijain836
Centrifugation is a powerful technique used in laboratories to separate components of a heterogeneous mixture based on their density. This process utilizes centrifugal force to rapidly spin samples, causing denser particles to migrate outward more quickly than lighter ones. As a result, distinct layers form within the sample tube, allowing for easy isolation and purification of target substances.
This presentation offers a general idea of the structure of seed, seed production, management of seeds and its allied technologies. It also offers the concept of gene erosion and the practices used to control it. Nursery and gardening have been widely explored along with their importance in the related domain.
Signatures of wave erosion in Titan’s coastsSérgio Sacani
The shorelines of Titan’s hydrocarbon seas trace flooded erosional landforms such as river valleys; however, it isunclear whether coastal erosion has subsequently altered these shorelines. Spacecraft observations and theo-retical models suggest that wind may cause waves to form on Titan’s seas, potentially driving coastal erosion,but the observational evidence of waves is indirect, and the processes affecting shoreline evolution on Titanremain unknown. No widely accepted framework exists for using shoreline morphology to quantitatively dis-cern coastal erosion mechanisms, even on Earth, where the dominant mechanisms are known. We combinelandscape evolution models with measurements of shoreline shape on Earth to characterize how differentcoastal erosion mechanisms affect shoreline morphology. Applying this framework to Titan, we find that theshorelines of Titan’s seas are most consistent with flooded landscapes that subsequently have been eroded bywaves, rather than a uniform erosional process or no coastal erosion, particularly if wave growth saturates atfetch lengths of tens of kilometers.
Discovery of An Apparent Red, High-Velocity Type Ia Supernova at 𝐳 = 2.9 wi...Sérgio Sacani
We present the JWST discovery of SN 2023adsy, a transient object located in a host galaxy JADES-GS
+
53.13485
−
27.82088
with a host spectroscopic redshift of
2.903
±
0.007
. The transient was identified in deep James Webb Space Telescope (JWST)/NIRCam imaging from the JWST Advanced Deep Extragalactic Survey (JADES) program. Photometric and spectroscopic followup with NIRCam and NIRSpec, respectively, confirm the redshift and yield UV-NIR light-curve, NIR color, and spectroscopic information all consistent with a Type Ia classification. Despite its classification as a likely SN Ia, SN 2023adsy is both fairly red (
�
(
�
−
�
)
∼
0.9
) despite a host galaxy with low-extinction and has a high Ca II velocity (
19
,
000
±
2
,
000
km/s) compared to the general population of SNe Ia. While these characteristics are consistent with some Ca-rich SNe Ia, particularly SN 2016hnk, SN 2023adsy is intrinsically brighter than the low-
�
Ca-rich population. Although such an object is too red for any low-
�
cosmological sample, we apply a fiducial standardization approach to SN 2023adsy and find that the SN 2023adsy luminosity distance measurement is in excellent agreement (
≲
1
�
) with
Λ
CDM. Therefore unlike low-
�
Ca-rich SNe Ia, SN 2023adsy is standardizable and gives no indication that SN Ia standardized luminosities change significantly with redshift. A larger sample of distant SNe Ia is required to determine if SN Ia population characteristics at high-
�
truly diverge from their low-
�
counterparts, and to confirm that standardized luminosities nevertheless remain constant with redshift.
Compositions of iron-meteorite parent bodies constrainthe structure of the pr...Sérgio Sacani
Magmatic iron-meteorite parent bodies are the earliest planetesimals in the Solar System,and they preserve information about conditions and planet-forming processes in thesolar nebula. In this study, we include comprehensive elemental compositions andfractional-crystallization modeling for iron meteorites from the cores of five differenti-ated asteroids from the inner Solar System. Together with previous results of metalliccores from the outer Solar System, we conclude that asteroidal cores from the outerSolar System have smaller sizes, elevated siderophile-element abundances, and simplercrystallization processes than those from the inner Solar System. These differences arerelated to the formation locations of the parent asteroids because the solar protoplane-tary disk varied in redox conditions, elemental distributions, and dynamics at differentheliocentric distances. Using highly siderophile-element data from iron meteorites, wereconstruct the distribution of calcium-aluminum-rich inclusions (CAIs) across theprotoplanetary disk within the first million years of Solar-System history. CAIs, the firstsolids to condense in the Solar System, formed close to the Sun. They were, however,concentrated within the outer disk and depleted within the inner disk. Future modelsof the structure and evolution of the protoplanetary disk should account for this dis-tribution pattern of CAIs.
The cost of acquiring information by natural selectionCarl Bergstrom
This is a short talk that I gave at the Banff International Research Station workshop on Modeling and Theory in Population Biology. The idea is to try to understand how the burden of natural selection relates to the amount of information that selection puts into the genome.
It's based on the first part of this research paper:
The cost of information acquisition by natural selection
Ryan Seamus McGee, Olivia Kosterlitz, Artem Kaznatcheev, Benjamin Kerr, Carl T. Bergstrom
bioRxiv 2022.07.02.498577; doi: https://doi.org/10.1101/2022.07.02.498577
Evidence of Jet Activity from the Secondary Black Hole in the OJ 287 Binary S...Sérgio Sacani
Wereport the study of a huge optical intraday flare on 2021 November 12 at 2 a.m. UT in the blazar OJ287. In the binary black hole model, it is associated with an impact of the secondary black hole on the accretion disk of the primary. Our multifrequency observing campaign was set up to search for such a signature of the impact based on a prediction made 8 yr earlier. The first I-band results of the flare have already been reported by Kishore et al. (2024). Here we combine these data with our monitoring in the R-band. There is a big change in the R–I spectral index by 1.0 ±0.1 between the normal background and the flare, suggesting a new component of radiation. The polarization variation during the rise of the flare suggests the same. The limits on the source size place it most reasonably in the jet of the secondary BH. We then ask why we have not seen this phenomenon before. We show that OJ287 was never before observed with sufficient sensitivity on the night when the flare should have happened according to the binary model. We also study the probability that this flare is just an oversized example of intraday variability using the Krakow data set of intense monitoring between 2015 and 2023. We find that the occurrence of a flare of this size and rapidity is unlikely. In machine-readable Tables 1 and 2, we give the full orbit-linked historical light curve of OJ287 as well as the dense monitoring sample of Krakow.
Evidence of Jet Activity from the Secondary Black Hole in the OJ 287 Binary S...
Bioinformatics
1.
2. 1. Introduction
2. History of Bioinformatics
3. What do we do with Bioinformatics?
4. Application of Bioinformatics
5. Tools of Bioinformatics
6. Advantages of Bioinformatics
7. Conclusion
3. It is the use of computers to collect and analyze complex
biological data's especially for the field of genetics and
genomics.
The National Center for Biotechnology Information
(NCBI 2001) defines bioinformatics as:
"Bioinformatics is the field of science in which biology,
computer science, and information technology merge into a
single discipline.
4. Biologists
Collect molecular DNA
& Protein sequences,
gene expression,etc.
Computer scientists
Develop
tools,software,algorith
ms to store and
analyze the data.
Bioinformaticians
Study biological
question by
analyzing molecular
data.
5. Bioinformatics was originated in 1960’s by Margaret O. Dayhoff,
Walter M. Fitch, Russell F. Doolittle
1865:Father of Genetics: Gregor Mendel discovers the concept of
genetic inheritance
In 1972,Paul berg made the first recombinant DNA
In the same year, Stanley Cohen, Annie chang and Herbert Bayer
produced the first recombinant DNA organism
By course of 10 years starting from 1981,following events occurred
579 human genes had been mapped.
In 1988, human genome organization (HUGO) was founded. This is
an internal organization of scientists involved in human genome
project
1989:First complete genome map was published of the bacteria
haemophilus influenza
7. It is a process through which short DNA
sequence fragments (called reads or samples)
are merged into longer DNA sequence to
reconstruct the original DNA sequences.
8. It is the process of identifying the location of genes and
all of the coding regions in a genome and determining
what those genes do.
It consists of 3 main steps:
1. Identifying portion of the genome that do not code for
proteins
2. Identifying elements on the genome.
3. Attaching biological information to these elements.
9. It is the inference of three dimensional structure
of a protein from its amino acid sequence
The two most successful tools are I-TASSER and
HHpred.
10. Gene therapy
Biotechnology
Drug development
Preventative medicine
Insect resistance
Crop improvement
Evolutionary studies
12. Stands for Basic Local Alignment Search Tool
BLAST program was invented by Stephen Altschul
and his co-workers in 1990
It is one of the most widely used bioinformatics
tools for sequence searching
It finds regions of local similarity between
sequences. The program compares primary
biological sequence information, such as the
amino-acid sequences of proteins or the
nucleotides of DNA sequences and calculates the
statistical significance of matches
13. It was developed by Pearson and Lipman in 1985.
It is a DNA and protein sequence alignment software
package.
It also identify gapped alignments
14. FASTA –nucleotide and protein sequence
searching
FAST x-compares a translated DNA query
sequence
FAST y-a protein sequence database
t FAST x-compares protein query sequence
15. It stands for European Molecular Biology
Open Software Suite.
It is a free open source software analysis
package specially developed for the needs of
the molecular biology and bioinformatics
user community.
The EMBOSS package contains a variety of
applications for sequence alignment, rapid
database searching with sequence patterns,
protein motif identification (including domain
analysis), and much more.
16. Analyze huge volume of data
Don’t need expensive wet lab
Same research can be repeated many times
No adverse effect
Time saving
17. Bioinformatics has become an important part of many
areas of biology. In experimental molecular biology ,
bioinformatics techniques such as image and signal
processing allow extraction of useful results from large
amounts of raw data.
It is beneficial for extracting meaningful information
to cure disease and also for making new medicine.