- Blood Circulatory System
- Blood
- Bones of The Legs
- Bones of The Foot
- Bones of The Ankle
- Bones of Pelvis
- Blood Groups
- Scientific Name of Human Being
- Largest Organ In Human Body
- Largest Internal Organ in The Human Body
- Human Respiratory System
- Human Population
- Human Physiology
- Human Life Cycle
- Human Insulin
- Human Impact on the Environment
- Human Heart
- Human Health and Diseases
- Human Genome Project Goals Significance
- Human Excretory System
- Human Evolution Progress
- Human Ear
- Human Diseases
- Human Digestive System
- Human Circulatory System Transportation
- Anatomy and Physiology of the Human Body
- Effects of Air Pollution on Human Health
Difference between
- Difference between Turner Syndrome and Klinefelter Syndrome
- Difference Between Transpiration and Guttation
- Difference Between Transpiration and Evaporation
- Difference Between Tracheids and Vessels
- Difference Between Thorns and Spines
- Difference Between T Cells and B Cells
- Difference Between Sympathetic and Parasympathetic
- Difference Between Sporophyte and Gametophyte
- Difference Between Spermatogenesis and Oogenesis
- Difference Between Sperm and Ovum
- Difference between Species, Population, and Community
- Difference Between Sleep and Hibernation
- Difference Between Saturated and Unsaturated Fats
- Difference Between Rust and Smut
- Difference Between Right and Left Lung
- Difference Between Replication and Transcription
- Difference Between Renewable and Non Renewable Resources
- Difference Between Red and White Muscle
- Difference Between Radicle and Plumule
- Difference Between Prokaryotic and Eukaryotic Transcription
- Difference Between Plasma and Serum
- Difference Between Pharynx and Larynx
- Difference Between Organs and Organelles
- Difference Between Open and Closed Circulatory Systems
- Difference Between Ocean and Sea
- Difference Between Monocytes and Lymphocytes
- Difference Between Mitochondria and Chloroplast
- Difference Between Lytic and Lysogenic Cycle
- Arteries and Veins Difference
Cell
- Growth and Development of an organism
- Meiosis Cell Division
- Cellular Respiration Concept Map
- Cell Signalling
- Cell Organelles
- Cell Cycle and Cell Division
- Cell Biology
Energy, Enzymes and membrane
Plant
- Scientific Names of Animals and Plants
- Plant Respiration
- Plant Physiology
- Plant Life Cycle and Alternation of Generations
- Plant Kingdom Plantae
- Plant Growth Regulators
- Plant Fibres
- Mendelian Inheritance Using Seeds of Different Colours Sizes of Any Plant
- Grassland Dominant Plants
- Effects of Air Pollution on Plants
- Biodiversity In Plants and Animals
Botanical Name
- Mustard Botanical Name
- Marigold Botanical Name
- Chilli Botanical Name
- Botanical Name of Tea
- Botanical Name of Sugarcane
- Botanical Name of Soybean
- Botanical Name of Rose
- Botanical Name of Rice
- Botanical Name of Pea
- Botanical Name of Lady Finger
- Botanical Name of Groundnut
- Botanical Name of Grapes
- Botanical Name of Coffee
- Botanical Name of Cabbage
- Botanical Name of Banyan Tree
- Botanical Name of Bajra
Biodiversity
- Biodiversity Pattern Species
- Biodiversity Conservation
- Biodiversity and Conservation Concept Map
- Biodiversity
Symptoms, diseases
- Hormones Heart Kidney GI
- Blood Cancer
- Arthritis
- Aids and Hiv
- Nervous System Diseases
- Modes of Transmission of Diseases
- Migraine Symptoms
- Menopause Symptoms
- Lysosomal Storage Disease
- Lung Diseases
- Lung Cancer Symptoms
- Hyperthyroidism Symptoms
- Hypertension Symptoms
- Chicken Pox Symptoms
- Blood Pressure Symptoms
- Arthritis Symptoms
- Appendicitis - Formation, Symptoms, Treatment
- Anemia Symptoms
- Acidity Symptoms Causes and Risk Factors involved
Causes
Other Topics
Bio Articles (Alphabetic order)
- Antigens and Immunology
- Scientific Name of Vitamins
- Scientific Name of Neem
- Schistosomiasis Life Cycle
- Scabies Life Cycle
- Salient Features of The Kingdom Monera
- Saddle Joints
- Root Modifications
- Role of Microbes In Food Processing
- RNA: World Genetic Material
- Rna Interference
- Ringworm
- Rigor Mortis
- Retrovirus
- Respiratory Quotient
- Respiratory and Lung Volumes
- Adolescence Secondary sexual characteristics
- Prolactin Hormone
- Productivity In Ecosystem
- Prions
- Principles of Treatment
- Principles of Prevention
- Principles of Inheritance and Variation
- Principles of Genetics
- Primary Ciliary Dyskinesia
- Prepare Pedigree Charts of Any One of the Genetic Traits Such as Rolling Of Tongue, Blood Groups, Ear Lobes, Widow’s Peak and Colour Blindness
- Prepare A Temporary Mount of The onion Root Tip To Study Mitosis
- Preparation and Study of Transverse Section of Dicot and Monocot Roots and Stems
- Pregnancy Parturition Lactation
- Neural Control and Coordination
- Nervous Tissue
- Nervous System Definition
- Nervous System Coordination
- Nervous System
- Nerves
- Nephron Function Renal Tubules
- Nephritis
- Nematoda
- Need For Hygiene and Sanitation
- Natural Selection Biological Evolution
- Natural Disasters
- National Parks and Sanctuaries
- Mycology
- Myasthenia Gravis
- Mutualism
- Mutation Genetic Change
- Mutagens
- Muscular Dystrophy
- Muscle Contraction Proteins
- Mountains and Mountain Animals
- Morphology and Anatomy of Cockroach
- Monohybrid Cross - Inheritance of One Gene
- Molecular Basis of Inheritance
- MOET Technology - Multiple Ovulation Embryo Transfer Technology
- Modern Synthetic Theory of Evolution
- Miller Urey Experiment
- Micturition - Urination Process
- Microfilaments
- Microbodies
- Metabolism Metabolic Pathways
- Metabolism Living State Basis
- Mendelian Disorders
- Melatonin Hormone
- Meiosis Phases
- Meiosis I - Stages and Process
- Megafauna
- Measles
- Mayfly Life Cycle
- Mass Flow Hypothesis
- Mass Extinctions
- Marine Biology
- Mammalia Diversity In Living Organisms
- Malthusian Theory of Population
- Male Sex Hormone
- Macromolecule
- Luteinizing Hormone
- Lung Cancer
- Love Hormone
- Locust Life Cycle
- Lizard Life Cycle
- Living Fossil
- Lipoproteins
- Lipids
- Lipid Peroxidation
- Linkage Recombination
- Life Cycle of Living Organism
- Lice Life Cycle
- Leprosy
- Length of Epididymis
- Leishmania Life Cycle
- Leg Muscles
- Law of Segregation and Law of Dominance
- Law of Independent Assortment
- Hypothyroidism
- Hypothalamus
- Hypogeal Germination
- Hypocalcaemia
- Hypertension
- Hyperparathyroidism
- Hydroponics
- Hydrarch Succession
- Horses and Donkeys Same Species
- Hormonal Disorders
- Hormones Secreted by Non-Endocrine
- Hookworm Life Cycle
- Honey Bee Life Cycle
- Homo erectus
- Homeostasis
- History of Clothing Material
- Characteristics and classification of Gymnosperms
- Guttation
- Griffith Experiment: The Genetic Material
- Grazing Food Chain
- Grasshopper Life Cycle
- Gram Positive Bacteria
- Gout
- Gonorrhea
- Gonads
- Goiter
- Embryology
- Embryo Development
- Elisa Technique
- Electron Transport Chain
- Electrocardiograph
- Effects of Water Pollution
- Effects of Waste Disposal
- Effects of Wastage of Water
- Effects of Plastics
- Life Cycle of Chicken
- Chemotrophs
- Chemiosmotic Hypothesis
- Centromere
- Central Dogma Inheritance Mechanism
- Cartilaginous Joints
- Carnivores and Herbivores
- Cardiac Output
- Carbon Cycle
- Carbohydrate Metabolism
- Can a Community Contain Two Populations of the Same Species?
- Bt Crops
- Bryophyta
- Blastocyst
- Bird Life Cycle
- Biotechnology Jobs
- Biotechnology Agriculture
- Biosafety Issues
- Bioreactor Obtaining Foreign Gene
- Biopiracy
- Biomolecules In Living Organisms
- Biomes of The World
- Biomass Definition Ecology
- Biofortification
- Asteraceae Brassicaceae Poaceae
- Ascaris Life Cycle
- Artificial Pollination
- Archaebacteria
- Apoptosis Definition, Pathway, Significance, and Role
- Apoplast and symplast pathway
- AntiMullerian Hormone (AMH)
- Antimicrobial Resistance
- Antibiotics
- Ant Life Cycle
- Annelida Meaning, Classification, Types, and FAQs
- Animal Nervous System
- Animal Kingdom Concept Map
- Animal Kingdom : Animalia Subphylum
- Animal Kingdom
- Animal Husbandry: Types and Advantages
- Animal Husbandry and Poultry Farming & Management
- Angina Pectoris
- Anatomy and Morphology of Animal Tissues
- Anagenesis
- An overview of Anatomy, its types and their applications
- Amphibolic Pathway
- Amphibia
- Amoebiasis
- Ammonotelism
- Ammonification
- Amino acids Properties, Functions, Sources
- Amensalism
- Alternatives To Dams
- Allergies Autoimmunity
- Allee Effect
- Alimentary Canal Anatomy
- Algae Definition, Characteristics, Types, and Examples
- Alcohol and Drug Abuse Measures for Prevention and Control
- Air Pollution Definition, Causes, Effect and Control
- Agriculture Seeds Selection Sowing
- Agriculture Practices - Organic Farming & Irrigation
- Agriculture Fertilizers
- Agricultural Implements and Tools
- Aerobic and Anaerobic Respiration Major Differences
- Advantages of Dams
- Adolescence and Drug Abuse
- Adh Hormone
- Adaptive Radiation Evolution
- Acth Hormone
- Acromegaly Causes, Symptoms, Treatment
- Acquired and Inherited Traits
- Acoustic Neuroma Symptoms, Causes, Diagnosis
Introduction
The project began in 1990 and was completed in 2003, costing approximately $3.8 bilpon and involving hundreds of scientists worldwide.
The HGP was a collaborative effort between the United States, United Kingdom, Japan, France, Germany, China, and Russia. Its goal was to develop tools that would allow for medical advances to be made based on genetic information and research on human health and disease.
It also sought to identify the sequence of all human genes, which is estimated at 20,000-25,000 genes; determine the complete sequence of an inspanidual s genome, determine the complete sequence of many different inspaniduals genomes, and identify the location and function of all human genes, identify all variations in chromosomes within humans; provide a partial pst of variations between species, create a database for storing this information for future use, design new drugs and therapies for curing disease in humans, discover pnks between genetics and diseases such as cancer or mental disorders pke schizophrenia, learn how to control genes to prevent certain diseases from occurring, advance technology such as understanding DNA sequencing and its uses.
Human genome project goals
The human genome project was completed in 2003 and had four main goals−
To read and decode one percent of the genome
To sequence at least 90% of the protein-coding genes in the human genome
To identify and map at least 10% of all human genes
To understand how the information encoded in DNA is converted into proteins.
Methods of the human genome project
The Human Genome Project is a global scientific endeavor aimed at understanding and mapping our minds. It was started in 1990, and the project is anticipated to be completed in 2005.
The Human Genome Project has three phases− 1) sequencing, 2) analysis and 3) technology development. The sequencing phase aims to assess all three bilpon base pairs in the human genome. The analysis stage involves the interpretation of data produced by the sequencing phase. The technology stage involves the development of bioinformatics and DNA chip technologies to aid in the analysis process.
The process of the human genome project
With the advancement of technology, it has now become possible to fully understand the human genome. Researchers on "the project," or Human Genome Project, sought to determine the DNA sequence of human and other creatures chemical building blocks. All the information necessary to construct and maintain an organism can be found in the cell s DNA code. DNA is sppt into units called genes, and each gene is a sequence of proteins that tells the cells how to make proteins.
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Scientists hope to uncover cures for many diseases and other ailments by studying genes and proteins. Although it took 13 years and $3 bilpon dollars to complete, the project has already discovered many important things about human genetics.
Features
Identifying all human genes (sequencing) and determining their functions
Determining the order of bases in the DNA strand
Discovering the sequences in which genes are found on chromosomes.
The human genome is composed of twenty-three pairs of chromosomes. Each chromosome contains thousands of genes that are responsible for the production of proteins. Genes are essentially the blueprints for our bodies, and they determine everything from hair color to blood type to our risk for developing certain diseases.
The human genome project was one step closer to understanding how genetics work on a molecular level, which could potentially lead to new treatments/treatments for genetic diseases such as Alzheimer s, Parkinson s, diabetes, and cancer. It also helps us better understand how humans came into being in the first place and why they look and act (and get sick) the way they do.
Apppcations of HGP
The human genome project is a massive undertaking with numerous global benefits. Understanding the function of our DNA will allow researchers to develop new treatments for genetic diseases, create designer drugs that target specific ailments, and possibly even unlock the secrets of longevity. However, many people mistakenly bepeve that understanding DNA is the same as understanding pfe itself. In reapty, it is only one small step on the long road to truly understanding pfe.
Results
Most people agree that the results of the Human Genome Project have been a success. Researchers deciphered the entire human genome and made it available to be used for scientific, medical, and business purposes.
The project has helped researchers understand how genetic mutations lead to certain diseases and has made it easier for scientists to develop new ways of preventing those mutations from occurring in the first place. While many experts bepeved that the project would lead to new treatments, cures, and preventative measures within a few years, others argued that the effects would take much longer to become apparent−if they ever did at all.
Though there is still much more work to be done, it is clear that the Human Genome Project has provided invaluable information about our genetic makeup and presents healthcare professionals with potential opportunities to prevent or treat diseases such as cancer, heart disease, and diabetes. Thanks to this project, milpons of people have benefited from its findings.
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Conclusion
The Human Genome Project was a large, expensive undertaking with the goals of mapping and sequencing the human genome. The project was completed in 2003, and the results have been used in a variety of ways to improve human health. The project has also helped researchers to better understand the biology of a variety of diseases.
FAQs
1. What is the Human Genome Project?
It was the goal of the Human Genome Project, a multinational endeavor to discover the sequence of chemical base pairs that make up human DNA. Work on the project started in 1990 and was completed in 2003.
2. What does “sequencing” mean?
Sequencing is the process of determining the order of nucleotides in a strand of DNA or RNA (ribonucleic acid). A single strand of DNA is made up of two chains, called polynucleotide chains, and each chain contains one strand of deoxyribose (DNA) or ribose (RNA).
Each nucleotide has three components− a phosphate group, a pentose sugar (either deoxyribose or ribose), and one of four bases− adenine (A), guanine (G), cytosine (C), or thymine (T). Phosphate and pentose sugars are always present in equal numbers. The four bases are present in different amounts. For example, one chain may have 20 A’s but only 10 C’s.
3. What are the benefits of knowing our DNA?
The Human Genome Project has yielded many benefits, including−
New ways to diagnose diseases such as cancer and Alzheimer’s disease
New treatments for diseases pke cancer, heart disease, diabetes, and other illnesses
Better ways to predict people’s response to drugs pke antibiotics and chemotherapy.
4. What are the benefits of sequencing an organism s genome?
Sequencing an organism s genome provides valuable insights into its genetic structure, function, and evolution, the knowledge that can be used to develop new treatments for disease and improve our understanding of biology in general. For example, human geneticists have already identified more than 1,000 disease-related genes based on their association with human diseases or traits such as height or earwax consistency/color.