Search results for [RNA targeting.] at NC Cardinal

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12 revolutionary discoveries that could change everything [videorecording] / by Helmuth, Laura,speaker.; Scientific American, inc.,sponsor.(CARDINAL)325071; Teaching Company,production company.(CARDINAL)349444;

Lecturer: Laura Helmuth, editor in chief of Scientific American."We are living in a golden age of scientific breakthroughs and technological advancements. From the messenger RNA (mRNA) technology deployed in the COVID-19 vaccines to new research into the biology of lichens to new theories about the inner workings of black holes, the 21st century has given us an exciting new understanding of ourselves, our world, and our universe. Now, you have the chance to dig into 12 of the most fascinating and important scientific advancements and paradigm shifts in recent years. Unexpected, consequential, and often counterintuitive, 12 Revolutionary Discoveries That Could Change Everything offers an inspiring introduction to science in the 21st century. Taught by Scientific American editor in chief Laura Helmuth, these 12 eye-opening lectures will satiate even the most inquisitive mind."--Publisher's website.DVD, NTSC.

Subjects: Lectures.; Documentary films.; Educational films.; Informational works.; Nonfiction films.; Video recordings for the hearing impaired.; Discoveries in science.; Biology.; Biological fitness.; RNA targeting.; Brain mapping.; Ocean.; Vikings.; Adjustment (Psychology);

Available copies: 1 / Total copies: 1

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Genetics : the code of life / by Guttman, Burton S.(CARDINAL)732055;

Includes bibliographical references (pages 286-294) and index.Genetics : past, present, and future. The search for order and meaning ; The modern image of science ; The prospects of modern genetics -- From myth to modern science. Primitive interest in heredity ; Mythology and the domestication of plants and animals ; Heredity in human society ; How are children made? -- What is inherited? Cellular structure ; Molecular structure ; Growth and biosynthesis ; Enzymes ; Synthesizing polymers ; Cells as self-renewing, self-reproducing factories -- The breakthrough : Mendel's Laws. Mendel's discoveries ; Pedigrees ; Another example : tasters and non-tasters ; Blood types ; Multiple alleles and dominance ; Test crosses ; Probability ; Two or more genes ; Mendel's first law and disputed paternity ; Answers to blood types questions -- Chromosomes, reproduction, and sex. Cells and reproduction ; Mitosis and the cell cycle ; Karyotypes ; Meiosis ; Meiosis explains Mendel ; The location of genes ; Sex chromosomes ; Nondisjunction of chromosomes ; XYY males : a genetic dilemma -- The function of genes. Genes and metabolic disease ; Genes and enzymes ; Proteins and information ; Modification of hereditary disease -- The hereditary material, DNA. Bacteria ; The first clue ; Bacteriophages ; The Hershey-Chase experiment ; DNA structure ; Genetic implications ; Testing DNA structure -- The genetic dissection of gene structure. Gene arrangement ; Crossing over within genes ; Phage genetics ; Fine structure of genes ; Complementation and the definition of a gene ; What is a gene? ; Restriction enzymes and palindromes ; Restriction mapping -- Deciphering the code of life. How are proteins made? ; RNA molecules : the tools for protein synthesis ; RNA transcription ; The translation process ; The complexity of eucaryotic genes ; Cracking the code ; Colinearity of genes and proteins ; Stop codons ; Universality of the code -- Heredity in the bacterial world. Mutant bacteria ; Sex in E. coli ; Plasmids ; Resistance factors and antibiotic resistance ; Lysogeny ; Gene transfer by virus ; Transduction in humans -- Gene regulation and development. Bacterial gene regulation ; Regulating eucaryotic genes ; Embryonic development in general ; Regulation by time in a chick's wing ; Determination by position in a fly's body ; Forming a fly's eye -- DNA manipulation : the return of epimethius? Recombinant DNA and restriction enzymes ; Studies of individual cloned fragments ; Transgenic organisms ; Human gene therapy ; Genomics, the study of complete genomes -- The geneticist as Dr. Frankenstein. The regulation of recombinant-DNA research ; Genetically modified organisms ; Technology in context ; The arguments against producing GMOs ; Cloning as an ethical target ; The responsibility of scientists -- The fountain of change : mutation. Mutation rates ; Mutation in humans ; Radiation ; What are mutations like? ; DNA repair systems ; General effects of radiation ; Chromosome aberrations ; Looking at human chromosomes ; Aneuploidy ; Duplications and deficiencies ; Inversions ; Translocations -- Evolutionary genetics. Evidence for evolution ; Evolution as a process ; Population genetics ; Human evolution ; The migration and diversification of Homo sapiens ; Eugenics.Details the history of the study of genetics, from Mendel's discoveries to the decoding of the human genome, and explains the fundamentals of genetics, the function of genes, and DNA manipulation.

Subjects: Genetics;

Available copies: 1 / Total copies: 1

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DNA : how the biotech revolution is changing the way we fight disease / by Stephenson, Frank H.;

Includes bibliographical references and index.

Subjects: Biotechnology; Medical genetics; Genetic engineering;

Available copies: 1 / Total copies: 1

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Microbiology for dummies / by Stearns, Jennifer C.(CARDINAL)789179; Kaiser, Julie.(CARDINAL)789181; Surette, Michael G.(CARDINAL)789180;

pt. I. Getting started with microbiology -- 1. Microbiology and you -- Why microbiology? -- Introducing microorganisms -- Deconstructing microbiology -- 2. Microbiology : the young science -- Before microbiology : misconceptions and superstitions -- Discovering microorganisms -- Debunking the myth of spontaneous generation -- Improving medicine, from surgery to antibiotics and more -- Looking at microbiology outside the human body -- The future of microbiology -- Frontiers -- Challenges -- 3. Microbes : they're everywhere and the can do everything -- Habitat diversity -- Metabolic diversity -- Getting energy -- Capturing carbon -- Making enzymes -- Secondary metabolism -- The intersection of microbes and everyone else --pt. II. Balancing the dynamics of microbial life -- Seeing the shapes of cells -- Life on a minute scale : considering the size of prokaryotes -- The cell : an overview -- Scaling the outer membrane and cell walls -- Examining the outer membrane -- Exploring the cell wall -- Other important cell structures -- Divining cell division -- Tackling transport systems -- Passive transport -- Active transport -- Keeping things clean with efflux pumps -- Getting around with locomotion -- 5. Making sense of metabolism -- Converting with enzymes -- In charge of energy : oxidation and reduction -- Donating and accepting electrons -- Bargaining with energy-rich compounds -- Storing energy for later -- Breaking down catabolism -- Digesting glycolysis -- Stepping along with respiration and electron carriers -- Moving with the proton motive force -- Turning the citric acid cycle -- Stacking up with anabolism -- Creating amino acids and nucleic acids -- Making sugars and polysaccharides -- Putting together fatty acids and lipids -- 6. Getting the gist of microbial genetics -- Organizing genetic material -- DNA : the recipe for life -- Perfect plasmids -- DNA replication -- Assembling the cellular machinery -- Making messenger RNA -- Other types of RNA -- synthesizing protein -- DNA regulation -- Regulating protein function -- Changing the genetic code -- Slight adjustments -- Major rearrangements -- 7. Measuring microbial growth -- Getting growth requirements right -- Physical requirements -- Chemical requirements -- Culturing microbes in the lab -- Observing microbes -- Counting small things -- Seeing morphology -- Calculating cell division and population growth -- dividing cells -- Following growth phases -- Inhibiting microbial growth -- Physical methods -- Disinfectants --pt. III. Sorting out microbial diversity -- 8. Appreciating microbial ancestry -- Where did microbes come from? -- Tracing the origins of life -- Diversifying early prokaryotes -- The impact of prokaryotes on the early earth -- Hitching a ride : endosymbiosis -- Understanding evolution -- Studying evolution -- Choosing marker genes -- Seeing the direction of gene transfer in prokaryotes -- Classifying and naming microbes -- Climbing the tree of life -- 9. Harnessing energy, fixing carbon -- Forging ahead with autotrophic processes -- Fixing carbon -- Using the energy in light -- Harvesting light : chlorophylls and bacteriochlorophylls -- Helping photosynthesis out : carotenoids and phycobilins -- Generating oxygen (or not) : oxygenic and anoxygenic photosynthesis -- Getting energy from the elements : chemolithotrophy -- Harnessing hydrogen -- Securing electrons from sulfur -- Pumping iron -- Oxidizing nitrate and ammonia -- 10. comparing respiration and fermentation -- Lifestyles of the rich and facultative -- Digging into respiration -- Spinning the citric acid cycle -- Stepping down the electron transport chain -- Respiring anaerobically -- Figuring out fermentation -- 11. Uncovering a variety of habitats -- Defining a habitat -- Understanding nutrient cycles -- Carbon cycling -- Nitrogen cycling -- Sulfur cycling -- Phosphorous cycles in the ocean -- Microbes socializing in communities -- Using quorum sensing to communication -- Living in biofilms -- Exploring microbial mats -- Discovering microbes in aquatic and terrestrial habitats -- Thriving in water -- Swarming soils -- Getting along with plants and animals -- Living with plants -- Living with animals -- Living with insects -- Living with ocean creatures -- Tolerating extreme locations -- Detecting microbes in unexpected places --pt. IV. Meeting the microbes -- 12. Meet the prokaryotes -- Getting to know the bacteria -- The gram-negative bacteria : proteobacteria -- More gram-negative bacteria -- The gram-positive bacteria -- Acquainting yourself with the archaea -- Scalding : extreme thermophiles -- Acidic : extreme acidophiles -- Salty : extreme halophiles -- Not terribly extreme archaea -- 13. Say hello to eukaryotes -- Fun with fungi -- Figuring out fungal physiology -- Itemizing fungal diversity -- Interacting with plant roots -- Ascomycetes -- MUshrooms : basidiomycetes -- Perusing the protists -- Making us sick : apicoplexans -- Making plants sick : oomycetes -- chasing amoeba and ciliates -- Encountering the algae -- 14. Examining the vastness of viruses -- Hijacking cells -- Frugal viral structure -- Simplifying viral function -- Making heads or tails of bacteriophage -- Lytic phage -- Temperate phage -- Transposable phage -- Discussing viruses of eukaryotes -- Infecting animal cells -- Following plant viruses -- How host cells fight back -- Restriction enzymes -- CRISPR -- Interfering with RNA viruses : RNAi --pt. V. Seeing the impact of microbes -- 15. Understanding microbes in human health and disease -- Clarifying the host immune response -- Putting up barriers to infection -- Inflammation -- Innate immunity -- Adaptive immunity -- Antibodies -- Relying on antimicrobials for treating disease -- Fundamental features of antibiotics -- Targets of destruction -- Unraveling microbial drug resistance -- Discovering new antibiotics -- Searching out superbugs -- Vancomycin-resistant enterococci -- Methicillin-resistant staphylococcus aureus -- Clostridium difficile -- Extended-spectrum beta-lactamases -- Prebiotics and probiotics -- Antiviral drugs -- 16. Putting microbes to work : biotechnology -- Using recombinant DNA technology -- Making the insert -- Employing plasmids -- Restriction enzymes -- Getting microbes to take up DNA -- Using promoters to drive expression -- Expression vectors -- Folding proteins -- Metabolic load -- Long, multigene constructs -- Providing therapies -- Improving antibiotics -- Developing vaccines -- Using microbes industrially -- Protecting plants wit microbial insecticides -- Making biofuels -- Bioleaching metals -- Cleaning up with microbes -- 17. Fighting microbial diseases -- Protecting public health : epidemiology -- Tracking diseases -- Investigating outbreaks -- Identifying a microbial pathogen -- characterizing morphology -- Using biochemical tests -- Typing strains with phage -- Using serology -- Testing antibiotic susceptibility -- Understanding vaccines -- How vaccines work -- Ranking the types of vaccines --pt. VI. New frontiers in microbiology -- 18. Teasing apart communities -- Studying microbial communities -- Borrowing from ecology -- Seeing what sets microbial communities apart from plants and animals -- Observing communities : microbial ecology methods -- Selecting something special with enrichment -- Seeing cells through lenses -- Measuring microbial activity -- Identifying species using marker genes -- Getting the hang of microbial genetics and systematics -- Sequencing whole genomes -- Using metagenomics to study microbial communities -- Reading microbial transcriptomics -- Figuring out proteomics and metabolomics -- Looking for microbial dark matter -- 19. Synthesizing life -- Regulating genes : the lac operon -- Using a good natural system -- Improving a good system -- Designing genetic networks -- Switching from one state to another -- Oscillating between states -- Keeping signals short -- The synthetic biologist's toolbox -- Making it modular -- Participating in iGEM competition --pt. VII. The part of tens -- 20. Ten (or so) diseases caused by microbes -- Ebola -- Anthrax -- Influenza -- Tuberculosis -- HIV -- Cholera -- Smallpox -- Primary amoebic menigoencephalitis -- The unknown -- 21. Ten great uses for microbes -- Making delicious foods -- Growing legumes -- Brewing beer, liquor, and wine -- Killing insect pests -- Treating sewage -- Contributing to medicine -- Setting up your aquarium -- Making and breaking down biodegradable plastics -- Turning over compostable waste -- Maintaining a balance -- 22. Ten great uses for microbiology -- Medical care -- Dental care -- Veterinary care -- Monitoring the environment -- Making plants happy -- Keeping fish swimming strong -- Producing food, wine, and beer -- Science hacking -- Looking for microbes in clean rooms -- Producing pharmaceuticals.Does microbiology make your head spin? The authors make the subject accessible and fun, to help you grasp life at the cellular level. Whether you need to score big at exam time, or just want to satisfy your curiosity, this guide will help you discover the main types of microorganisms and the benefits of their microbial communities.--

Subjects: Microbiology;

Available copies: 2 / Total copies: 2

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