AP Biology Practice 3 – Formulate Questions – Video


AP Biology Practice 3 - Formulate Questions
Paul Andersen explains how to formulate questions to guide discussions and investigations. He starts by describing the proper type of questions that should be asked in an AP Biology classroom. He gives four examples of questions that could be asked in the four big ideas of the classroom. He finishes by giving examples of posing, refining and evaluating questions. Intro Music Atribution Title: I4dsong_loop_main.wav Artist: CosmicD Link to sound: http://www.freesound.org Creative Commons Atribution License All images are either Public Domain or Creative Commons Attribution Licenses: Louise. Original Caption: I Decided to See If I Could Catch the Motion of Dominos Falling. It Took Me Ages to Get the Timing Right, , 22:48:04. Flickr. commons.wikimedia.org Surachit. Typical Example of a Vertically Oriented Cladogram, with Diagonal Intersecting Lines Indicating Relationships. self-made, based on the GNUFDL PNG Image:Cladogram-example2.png by Geoffrey Adams. Accessed January 28, 2013. commons.wikimedia.org "AP Biology: Course and Exam Description," nd apcentral.collegeboard.com "File:Alfred Russel Wallace 1862 - Project Gutenberg eText 15997.png." Wikipedia, the Free Encyclopedia. Accessed January 28, 2013. en.wikipedia.org "File:Autosomal Dominant Pedigree Chart2.svg." Wikipedia, the Free Encyclopedia. Accessed February 5, 2013. en.wikipedia.org "File:Carbon Cycle.jpg." Wikipedia, the Free Encyclopedia. Accessed January 28, 2013. en.wikipedia.org "File:Chesapeake Waterbird Food Web ...

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AP Biology Practice 3 - Formulate Questions - Video

LIFE SCIENCE PRIZE–BIOLOGY ELIMINATES EVOLUTION – Video


LIFE SCIENCE PRIZE--BIOLOGY ELIMINATES EVOLUTION
FOLLOWING ARE FACTS EVOLUTIONISTS DON #39;T WANT PEOPLE TO KNOW. For years, the claim has been made that evolution is an inverted-fantasy religion taught in the public schools in violation of the First Amendment of the Constitution of the United States of America. The Debate Dodgers (see below) unanimously have failed to defend in court against that claim. Therefore, the default-judgment applies to all evolutionists in general and particularly those on the Debate Dodgers List. This is proof positive that evolution is an inverted-fantasy religion taught in the public schools in violation of the First Amendment of the Constitution of the United States of America. Evidently, evolution is devoid of scientific evidence. As an acid test of that finding, the most outspoken evolutionists worldwide bar none were challenged to contend for the Life Science Prize. The rules and results follow. These data confirm the scientific peer reviewed articles of objective, valid, reliable, and calibrated evidence that evolution exists nowhere in the universe, never has, never will, except as an inverted fantasy based on vitalism superstitions 2500 years old. Rules and FAQ #39;s for the Life Science Prize: http://www.lifescienceprize.org Evolution is more impossible than the Tooth Fairy, Santa Claus, and the Headless Horseman. Of the simplest machines, a toothpick has no moving parts. Of the most complex of machines, a protein has the highest of manufacturing requirements. Given every tree on the planet and ...

By: Karl Priest

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LIFE SCIENCE PRIZE--BIOLOGY ELIMINATES EVOLUTION - Video

AP Biology: Photosynthesis – Video


AP Biology: Photosynthesis
A quick explanation of the molecular process that is Photosynthesis. (: Information: - Normal construction paper and a sharpie - A little less than 200 pictures. - iPhone Voice Memo for voice recording - GarageBand for voice editing - Final Cut Pro for video editing Script Writing, Video Editing, Art: Christine Tran Voice and Script Writing: Stephen Van Ness Jesus Sanchez

By: Christine Tran

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AP Biology: Photosynthesis - Video

Nick lives in London and tutors Music, English and Biology – Video


Nick lives in London and tutors Music, English and Biology
Hi, my name #39;s nick, I #39;m a composer and music producer and I tutor Music, English and Biology. I studied Music at Oxford University and at the National Film School and have been working as a freelance composer for 12 years. In this time I #39;ve com to appreciate what it means to have people that can support you and encourage you. Without that I think it #39;s hard to believe in yourself therefore, I #39;m excited to be able to give back that kind of support in the form of tutoring. I look forward to meeting you and hope to be able to help in any way I can.

By: Edd Tutorfair

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Nick lives in London and tutors Music, English and Biology - Video

thoughts from places: trees with faces, memories, and biology – Video


thoughts from places: trees with faces, memories, and biology
I watch YouTubers (obviously) and so many have been encouraging others to make videos and create as well, and hell, I did it. I was super nervous (as you can probably tell) but I am satisfied with how it came out! I hope you do, too.

By: underwaterpeaches

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thoughts from places: trees with faces, memories, and biology - Video

The Institute for Systems Biology and AB SCIEX Partner to Help Make Medical Care More Predictive and Personalized

FRAMINGHAM, Mass.--(BUSINESS WIRE)--

Medical care is expected to become more personalized and better able to help prevent the onset of diseases in the future, thanks to groundbreaking research into P4 medicine underway by world-renowned scientists at the Institute for Systems Biology, including National Medal of Science award winner Leroy Hood, MD, PhD., and ISB proteomics research director, Robert Moritz, PhD., and now supported by a new collaboration with AB SCIEX, a global leader in analytical technology.

ISB and AB SCIEX have signed a multi-year agreement to collaborate on the development of methods and technology in proteomics mass spectrometry with the goal to redefine biomarker research and complement genomics through fully comprehensive quantitative proteomics analysis. This will help advance the development of a new approach to medical care.

ISBs concept of P4 medicine promises to provide deep insight into disease mechanisms on the path to develop medical care that is predictive, personalized, preventive and participatory (the four Ps) a pioneering vision that requires a combination of analytical tools, workflows, databases, collaborations and computational strategies.

With breakthroughs in translating research into clinical relevance, P4 medicine is expected to enable the creation of a virtual cloud of billions of data points around each individual as the basis for straightforward predictions about health and disease, said Dr. Hood, ISB president and co-founder. In December, he was named a recipient of the National Medal of Science, which is the highest honor the President of the United States can bestow on a scientist, in recognition of visionary work for the advancement of science.

Led by Dr. Hood, ISBs groundbreaking research is being accelerated by SWATH Acquisition, a data-independent acquisition (DIA) mass spectrometry workflow that can quantify virtually all detectable peptides and proteins in a complex sample all in a single analysis.

Quantifying enormous numbers of protein analytes at the same time is a critical need to accelerate P4 medicine and the democratization of proteomics, a revolution that is akin to the sequencing of the genome and the democratization of DNA, added Dr. Hood. SWATH is a game-changing technique that essentially acts as a protein microarray and is the most reproducible way to generate comprehensive quantitation of the entire proteome. It generates a digital record of the entire proteome that can be mined retrospectively for years to come.

ISBs know-how in systems biology and informatics will support the development of SWATH libraries, similar to its highly regarded SRMAtlas project for the human proteome, pioneered by Rob Moritz and his collaborators, and the proteomes of other clinically-relevant organisms. With complete proteome-wide libraries, ISB provides the basis to support comprehensive SWATH analysis, said Dr. Moritz, ISB Proteomics Research Director.

Committed to an open policy of sharing data and methods, ISB will make the SWATH libraries available to the global scientific community to accelerate the use of SWATH for other biological research. Utilizing the depth in proteomics technology development and underpinned by the extensive proteomics computational resources in data interpretation tools, standards initiatives and database development under the leadership of Dr. Moritz, ISB will develop new SWATH technologies and tools to enable the community to quickly adopt comprehensive quantitative proteome analysis.

Having the proteomics data standardized across laboratories and across samples really enables us to quantitate entire proteomes at a level that hasnt been done before, said Dr. Moritz. We aim to define markers that can predict whether a patient will respond to a certain treatment or not, and applying SWATH will play a big part in taking our advancements to another level. Not only can we now complement the breadth of genomics, but we will have the much-needed libraries and software development going forward to make data-sharing quite easier and standardized.

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The Institute for Systems Biology and AB SCIEX Partner to Help Make Medical Care More Predictive and Personalized

Synthetic biology: Recreating natural complex gene regulation

Feb. 3, 2013 By reproducing in the laboratory the complex interactions that cause human genes to turn on inside cells, Duke University bioengineers have created a system they believe can benefit gene therapy research and the burgeoning field of synthetic biology.

This new approach should help basic scientists as they tease out the effects of "turning on" or "turning off" many different genes, as well as clinicians seeking to develop new gene-based therapies for human disease.

"We know that human genes are not just turned on or off, but can be activated to any level over a wide range. Current engineered systems use one protein to control the levels of gene activation," said Charles Gersbach, assistant professor of biomedical engineering at Duke's Pratt School of Engineering and member of Duke's Institute for Genome Sciences and Policy. "However, we know that natural human genes are regulated by interactions between dozens of proteins that lead to diverse outcomes within a living system.

"In contrast to typical genetics studies that dissect natural gene networks in a top-down fashion, we developed a bottom-up approach, which allows us to artificially simulate these natural complex interactions between many proteins that regulate a single gene," Gersbach said. "Additionally, this approach allowed us to turn on genes inside cells to levels that were not previously possible."

The results of the Duke experiments, which were conducted by Pablo Perez-Pinera, a senior research scientist in Gersbach's laboratory, were published on-line in the journal Nature Methods. The research was supported by the National Institutes of Health, the National Science Foundation, The Hartwell Foundation, and the March of Dimes.

Human cells have about 20,000 genes which produce a multitude of proteins, many of which affect the actions of other genes. Being able to understand these interactions would greatly improve the ability of scientists in all areas of biomedical research. However because of the complexity of this natural system, synthetic biologists create simple gene networks to have precise control over each component. These scientists can use these networks for applications in biosensing, biocomputation, or regenerative medicine, or can use them as models to study the more complex natural systems.

"This new system can be a powerful new approach for probing the fundamental mechanisms of natural gene regulation that are currently poorly understood," Perez-Pinera said. "In this way, we can further the capacity of synthetic biology and biological programming in mammalian systems."

The latest discoveries were made possible by using a new technology for building synthetic proteins known as transcription activator-like effectors (TALEs), which are artificial enzymes that can be engineered to "bind" to almost any gene sequences. Since these TALEs can be easily produced, the researchers were able to make many of them to control specific genes.

"All biological systems depend on gene regulation," Gersbach said. "The challenge facing bioengineering researchers is trying to synthetically recreate processes that occur in nature."

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Synthetic biology: Recreating natural complex gene regulation