Chem4Kids.com: Biochemistry

The key thing to remember is that biochemistry is the chemistry of the living world. Plants, animals, and single-celled organisms all use the same basic chemical compounds to live their lives. Biochemistry is not about the cells or the organisms. It's about the smallest parts of those organisms, the molecules. It's also about the cycles that create those biological compounds.

Every cycle has a place, and each one is just a small piece that helps an organism survive. In each cycle, molecules are used as reactants and then transformed into products. Life is one big network of activity where each piece relies on all of the others. A compound, such as an herbicide, may only break one part of one cycle in a plant. However, because everything needs to work together, the whole plant eventually dies.

We like biochemistry because we learn about things that are inside of us. We can relate to what happens when we eat and how our bodies are constructed. We can imagine how the molecules are moving around the mitochondria or chloroplasts, as opposed to chemical changes that make natural gas. If you choose a career in biology or chemistry, you will need to understand the information in both biochemistry and organic chemistry. Why? Because the movement of atoms in the bio-chem world follows the same rules you will learn in o-chem.

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Chem4Kids.com: Biochemistry

Biochemical Society – What is biochemistry?

Biochemistry is the branch of science that explores the chemical processes within and related to living organisms. It is a laboratory based science that brings together biology and chemistry. By using chemical knowledge and techniques, biochemists can understand and solve biological problems.

Biochemistry focuses on processes happening at a molecular level. It focuses on whats happening inside our cells, studying components like proteins, lipids and organelles. It also looks at how cells communicate with each other, for example during growth or fighting illness. Biochemists need to understand how the structure of a molecule relates to its function, allowing them to predict how molecules will interact.

Biochemistry covers a range of scientific disciplines, including genetics, microbiology, forensics, plant science and medicine. Because of its breadth, biochemistry is very important and advances in this field of science over the past 100 years have been staggering. Its a very exciting time to be part of this fascinating area of study.

What do biochemists do?

Provide new ideas and experiments to understand how life works

Support our understanding of health and disease

Contribute innovative information to the technology revolution

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Biochemical Society - What is biochemistry?

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Visiting Instructor Biochemistry Job Announcement Georgetown College invites applications for a Visiting Instructor, anticipated Spring 2016, to...

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Eppendorf North America, Inc. seeks a Field Application Specialist Biochemistry in Hauppauge, NY to serve as technical lead for complex laborator...

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The primary area of responsibility will be support of immunology and tissue culture assays for the QO Biochemistry laboratory. As a member of the Q...

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Title: Research Assistant, DownstreamProcessing Fraunhofer USA Center for MolecularBiotechnology has an immediate opening for the position of Resea...

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SUMMARY: Performs the role of a biomedical subject expert, participating in phone and e-mail consultations with clients. Explains GPL testing and p...

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Quantitative Biomarker LC-MS/MS Scientist A position is available for a skilled bioanalytical scientist to join a state-of-the-art mass spectrometr...

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Citric Acid (CAS 77-92-9) Market: Strategic Analysis to Understand the Competitive Outlook of the Industry, 2025 – Daily Science

Citric Acid (CAS 77-92-9) market report: A rundown

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Citric Acid (CAS 77-92-9) Market: Strategic Analysis to Understand the Competitive Outlook of the Industry, 2025 - Daily Science

Biochemistry – University of Utah

Faculty Spotlight

September 2015 saw the arrival of Erhu Cao as a new Assistant Professor of Biochemistry. In his postdoctoral fellowship with David Julius at UCSF, Erhu characterized TRP ion channels, which are key players in sensory signaling. This included collaborating with the laboratory of Yifan Cheng to determine structures at near atomic resolution. This landmark achievement heralded the cryo-EM transformation that is currently sweeping structural biology. Prior to that, Erhu received his bachelors degree from the Huazhong Agricultural University in China, followed by his Ph.D. studies at Albert Einstein College of Medicine in the labs of Steven Almo and Stanley Nathenson, where he determined crystal structures of receptors that contribute to cellular immunity, and received the Julius Marmur Research Award.

Erhus new lab at Utah is broadly interested in understanding atomic-scale mechanisms of how membrane proteins function under normal and diseased states. Membrane proteins play critical roles in nearly every aspect of physiological processes that encompass relaying signals between cells, transporting small molecules and ions across the membrane and catalyzing vital enzymatic reactions. Importantly, membrane proteins constitute ~60% of targets of currently approved drugs and thus in-depth knowledge about their inner workings is sorely needed to inform the development of effective therapeutic strategies for treating various human diseases.

Erhus current research program focuses on the structure and function of receptors, transporters, and ion channels that are implicated in polycystic kidney diseases (PKD), which is a widespread genetic disorder that affects 600,000 Americans and 12.5 million patients worldwide. He also aims to develop pharmacological tools (e.g. small chemical compounds, peptide toxins, and antibodies) to probe the function of ion channels and receptors. Importantly, such molecules may also serve as lead compounds that can potentially evolve into drugs for treating patients with PKD. To achieve these goals, Erhus lab employs a multidisciplinary approach that includes molecular biology, protein biochemistry, pharmacology, ion channel electrophysiological, X-ray crystallography, and single particle electron cryo-microscopy.

Erhu Cao Website

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Biochemistry - University of Utah

Annual Review of Biochemistry – Home

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Annual Review of Biochemistry - Home

Biochemistry – Simple English Wikipedia, the free encyclopedia

Biochemistry is the study of chemical reactions in living beings, and of biological molecules in general. It is important to cell biology and physiology. The study of biochemistry involves enzymes, nucleic acids, carbohydrates, sugars, proteins, and lipids. In the body, most of the molecules are polymers built of long chains of carbon atoms with hydrogen, oxygen and other atoms added.

The four types of large biological molecules (called macromolecules) are listed here.

Nucleic acids are long-chain carbon molecules which make DNA and RNA. Their building blocks are called nucleotides. DNA is a common type of nucleic acid, which is usually joined up in a double helix. It is the substance of heredity and holds the information for life which passes from generation to generation. RNA is the other main type of nucleic acid. It acts to make the information from DNA work inside the cells of the body. There are many different types of RNA, each of which has a function inside cells.

Proteins are polymers of amino acids. There are twenty different common types of amino acid. Broadly speaking, they have two kinds of function. The first is structural: they make up many of the body's key structures in cells and tissues. Muscle, for example, is mainly made of protein. The second is as enzymes, which are long-chain proteins which may include an inorganic group as a co-enzyme.

Enzymes are special types of protein which greatly speed up the chemical reactions in a living thing. Their function is to speed up and help chemical reactions, by lowering the enzyme's activation energy. There are a few enzymes that are not proteins but instead made of RNA, which are called ribozymes, and are in fact nucleic acids.

Carbohydrates include sugars and starches. The simplest carbohydrates are the monosaccharides, meaning "single sugar". Examples of monosaccharides are glucose and fructose. Polysaccharides are long molecules made from many units joined together. Examples are starch, glycogen, and cellulose. Carbohydrates have a number of functions, but the most important is to act as a ready source of energy for the body's metabolism. By breaking the chemical bonds in carbohydrates, energy is released and can be used by the body.

Lipids are fats, and waxes. Saturated lipids contain single bonds, and are found in butter and lard. Unsaturated lipids have one or more double bonds, and are often found in oils. The human body stores lipids as an energy source. When the body needs a large amount of energy, lipid molecules are broken down to release that energy.

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Biochemistry - Simple English Wikipedia, the free encyclopedia

Organic Biochemistry – American Chemical Society

The Forensics of Blood February 2008 (pp 4-7)

Author: Brian Rohrig Chemistry Connections: Organic/Biochemistry, Solutions Description: Describes how chemists determine if a substance at a crime scene is blood (luminol and hydrogen peroxide or phenolphthalein and hydrogen peroxide), and if so, if it is human blood (rabbit antibody clotting test). Discusses blood as a colloid. Also tells how criminal investigators can determine blood type. Discusses useful information about blood stains shape of blood droplets, transfer stains, projected stains. Two sidebars discuss the composition of blood, and the role of antibodies and antigens in determining blood type. The equation describing the reaction of luminal with hemoglobin is shown.

Author: Beth Nolte Chemistry Connections: Equilibrium, Organic/Biochemistry, Reactions, Solids/Liquids/Gases Description: Describes the nitrogen cycle and the role of excessive use of nitrogen fertilizers in polluting the environment. The chemistry of nitrogen, ammonia, oxides of nitrogen and nitrates are emphasized. Suggests that changes in farming methods can ameliorate the environmental effects. Includes sidebars on organic farming and the Haber-Bosch method of producing ammonia.

Author: Cynthia Washam Chemistry Connections: Organic/Biochemistry, Sustainability Description: Discusses the recent trend toward producing plant-based plasticscalled bioplasticsfrom plants like sugar cane, potatoes and wheat as an alternative to using petroleum. Explains two types of bioplastics, polylactide acid and polyhydroxyalkanoatepolymers made from simple sugar moleculesand includes structural formulas for these. Gives background on plastics as polymers. Discusses pros and cons of bioplasticsfor consumers and for the environment. Includes activity for students to make a compostable bioplastic.

Author: Michael Schirber Chemistry Connections: Bonding, Organic/Biochemistry, Reactions, Thermochemistry Description: Describes how molecules, like cellulose, found in plants like switchgrass and plant leftovers like corn stalks, can be made into gasoline. Uses lots of graphics to explain the use of zeolite catalysts in the process of stripping oxygen atoms from carbohydrate molecules to make hydrocarbon molecules that, in turn, make gasoline. Distinguishes green gasoline from biofuels like ethanol. Describes benefits of green gasoline.

Author: Claudia M. Caruana Chemistry Connections: History/Biography, Organic/Biochemistry, Solids/Liquids/Gases Description: Describes and explains the way in which general and local inhaled anesthetics work in the human body. Provides the reader with some history of anesthesiafrom 4200 BC to the present dayincluding nitrous oxide, ether and modern inhalation anesthetics, halogenated ethers. Discusses some biochemical mechanisms suggested to explain the effect of an anesthetic on the nervous system, although it also states the lack of a precise medical/scientific understanding of how anesthetics work.

Author: Diana Lutz Chemistry Connections: Bonding, Organic/Biochemistry, Reactions, Solids/Liquids/Gases, Thermochemistry Description: Describes how various special effects are created for movies, including fake snow, fake skin, fire and explosions. Some chemistry is detailed to explain how the materials are produced.

Author: Nadia Halim Chemistry Connections: Bonding, Organic/Biochemistry Description: Nanotechnology utilizing the elements carbon and silicon create nanostructures (1-100 nanos large) for use in electronics, medicine (drug delivery systems), clean energy production (solar cells). Three basic structures are nanotubes, nanowires, and fullerenes (Bucky balls). Construction of a nanostructure by electron beam lithography and photolithography is illustrated.

Author: Patrice Pages Chemistry Connections: Organic/Biochemistry, Reactions, Solids/Liquids/Gases, Solutions Description: Experimental cooking based on some understanding of chemistry and physics but primarily experimental using new physical forms of ingredients in the mix. Influence of color on taste perception studied; good taste influences amount eaten (savoring means less eaten).

Author: Linda Zajac Chemistry Connections: History/Biography, Organic/Biochemistry, Reactions Description: Discusses research done to discover why crystal jellyfish glow in the dark, which led to discovery of green fluorescent protein (GFP, for short). Describes how GFP genes can be inserted into DNA of other cells that can then act as tracers as they travel throughout the body. Describes the uses of other colors of fluorescent proteins that have been discovered, including: tracking viruses in plant diseases, helping to cure brain diseases, and cancer therapy studies. Might be used in class in discussion of light emission and absorption and energy and wavelength of light.

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Organic Biochemistry - American Chemical Society

Lehninger Principles of Biochemistry / Edition 6 by David …

Overview

Clear writing and illustrationsClear explanations of difficult conceptsClear communication of the ways in biochemistry is currently understood and practiced. For over 35 years, in edition after bestselling edition, Principles of Biochemistry has put those defining principles into practice, guiding students through a coherent introduction to the essentials of biochemistry without overwhelming them.

The new edition brings this remarkable text into a new era. Like its predecessors, Lehninger Principles of Biochemistry, Sixth Edition strikes a careful balance of current science and enduring concepts, incorporating a tremendous amount of new findings, but only those that help illustrate biochemistrys foundational principles. With this edition, students will encounter new information emerging from high throughput DNA sequencing, x-ray crystallography, and the manipulation of genes and gene expression, and other techniques. In addition, students will see how contemporary biochemistry has shifted away from exploring metabolic pathways in isolation to focusing on interactions among pathways. They will also get an updated understanding of the relevance of biochemistry to the study of human disease (especially diabetes) as well as the important role of evolutionary theory in biochemical research.

These extensive content changes, as well as new art and powerful new learning technologies make this edition of Lehninger Principles of Biochemistry the most impressive yet.

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1.The Foundations of Biochemistry 1.1 Cellular Foundations 1.2 Chemical Foundations Box 11 Molecular Weight, Molecular Mass, and Their Correct Units Box 12 Louis Pasteur and Optical Activity: In Vino, Veritas1.3 Physical Foundations Box 13 Entropy: Things Fall Apart 1.4 Genetic Foundations

2.Water 2.1 Weak Interactions inAqueousSystems 2.2Ionization of Water, Weak Acids, and Weak Bases 2.3 Buffering agains pH Changes inBiological Systems Box 2-1 Medicine:On Being One's Own Rabbit (Don't Try This at Home!) 2.4 Water as a Reactant 2.5 The Fitness of Aqueous Environment for Living Organisms 3. Amino Acids, Peptides, and Proteins 3.1 Amino Acids Box 3-1 Methods:Absorption of Light by Molecules:The Lambert-Beer Law 3.2 Peptides and Proteins 3.3 Working with Proteins 3.4 The Structure of Proteins: Primary Structure Box 32 Consensus Sequences and Sequence Logos

4. The Three-Dimensional Structure of Proteins 4.1 Overview of Protein Structure 4.2 Protein Secondary Structure Box 41 Methods: Knowing the Right Hand from the Left 4.3 Protein Tertiary and Quaternary Structures Box 42 Permanent Waving Is Biochemical Engineering Box 43 Why Sailors, Explorers, and College Students Should Eat Their Fresh Fruits and Vegetables Box 44 The Protein Data Bank Box 45 Methods: Methods for Determining the Three-Dimensional Structure of a Protein 4.4 Protein Denaturation and Folding Box 46 Medicine: Death by Misfolding: The Prion Diseases

5. Protein Function 5.1 Reversible Binding of a Protein to a Ligand: Oxygen-Binding Proteins Box 51 Medicine: Carbon Monoxide: A Stealthy Killer 5.2 Complementary Interactions between Proteins and Ligands: The Immune System and Immunoglobulins 5.3 Protein Interactions Modulated by Chemical Energy: Actin, Myosin, and Molecular Motors

6. Enzymes 6.1 An Introduction to Enzymes 6.2 How Enzymes Work 6.3 Enzyme Kinetics as an Approach to Understanding Mechanism Box 61 Transformations of the Michaelis-Menten Equation: The Double-Reciprocal Plot Box 62 Kinetic Tests for Determining Inhibition Mechanisms Box 63 Curing African Sleeping Sickness with a Biochemical Trojan Horse 6.4 Examples of Enzymatic Reactions 6.5 Regulatory Enzymes

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Lehninger Principles of Biochemistry / Edition 6 by David ...