The use of microbes in art projects continues to spread. Here is another example: Bioluminescent art: Beautiful bacteria glow in the dark | MNN – Mother Nature Network. The article discusses the Bioglyphs project which involved “some microbiology training, imagination, and a lot of petri dishes.” Definitely worth checking out …
Eisen Lab Blog
ADVANCE Journal Club: Developing Graduate Students of Color for the Professoriate in STEM
As I have posted about before – I am involved in the UC Davis ADVANCE project funded by NSF. From the project website:
UC Davis ADVANCE is a newly funded Institutional Transformation grant that began in September of 2012. Our program is supported by the National Science Foundation’s ADVANCE Program which aims to increase the participation and advancement of women in academic science and engineering careers.
My role in this project is as a member (and now Co-Chair) of one of the “Policies and Practices Review Initiative” Committee. As part of my work on this committee I am trying to read various papers on related topics. And I figured I would simultaneously post about these papers as much as I can because it would be great to get a broader discussion going on these topics.
So today I am reading the following:CSHE – Developing Graduate Students of Color for the Professoriate in Science, Technology, Engineering, and Mathematics (STEM) which I was pointed to in our Committee meeting yesterday. It is quite interesting. It is by Anne MacLachlan from the Center for Studies in Higher Education at UC Berkeley.
The abstract:
This paper presents part of the results of a completed study entitled A Longitudinal Study of Minority Ph.D.s from 1980-1990: Progress and Outcomes in Science and Engineering at the University of California during Graduate School and Professional Life. It focuses particularly on the graduate school experience and degree of preparation for the professoriate of African American doctoral students in the sciences and engineering, and presents the results of a survey of 33 African American STEM Ph.D.s from the University of California earned between 1980-1990. Relationships with thesis advisors and principal investigators are evaluated by the study participants in fifteen specific areas from highly-ranked intellectual development to low-ranked training in grant writing. Deficits in training and socialization are discussed along with the tension between being both an African American and a graduate student. Career choices and outcomes are presented. These findings, in conjunction with current analyses of graduate education in STEM, suggest ways in which graduate training for all could be improved.
Lots of interesting information in there. Perhaps most important for my current goals is what she describes at the end in terms of a Proposed Development Program. She starts this section by commenting on the general situation in terms of training scientists in the US today. She then identifies what she refers to a “discontinuities” in federal and local policy which can hinder “developing faculty of color.” These include “compartmentalized, externally mandated sets of programs” and the “nature of Ph.D. training”. Of the 33 Ph.D.s surveyed in the study, nearly all of them recommended diversity training for faculty. They also recommend better laying out of expectations and requirements for students and more involvement of current faculty in recruiting. They also made many recommendations for improving the life of current students of color.
Anyway – a lot of this material and the concepts involved are bit new to me so I am still digesting the article. But I thought I would share it with others in the hope that this will help catalyze more open discussion of issues involved women and underrepresented minorities in STEM fields.
Weird things coming up from automated Google Scholar searches pointing to hea1thandfitness.com
I noticed some really weird stuff coming up in automated Google Scholar searches. Example – see this one below:
[HTML] Asthma and the Diversity of Fungal Spores in Air
will … Metagenomics data are likely to provide a very different understanding of the potential diversity …
(2006) Reconstructing the early evolution of fungi using a six-gene phylogeny. …
[HTML] Insights inside often the progression amongst Archaea additionally eukaryotic required protein modifier metabolism exposed simply because amongst often the …
SSU rRNA gene set identified on the metagenomic library; AB566230. … Archaea: sides ranging
from microbial ecology and regarding consequence metagenomics GarrettRA KlenkH-P …
The second paper listed there takes one to a very strange site. It appears to be a pseudo-mirror of the journal site all embedded within the domain “Hea1thandFitness.Com”. Note – this domain name has the number “1” replacing the letter “l” in the domain name – I assume as a trick of sorts. Clicking on the link takes you to a site for which I have done a screen shot below
The whole thing is weird – with the number instead of the letter and the weird formatting of the site. Just a tiny glitch? Well, I don’t think so since in some of my other Google Scholar alerts other links to this same domain came up. See examples below:
[HTML] Contrasting Life Strategies involving Viruses that’s Infect Photo-certainly to positively not mention Heterotrophic Bacteria, considering that’s Revealed by simply Viral …
jobs relating to be the inside overseas biogeochemical menstrual cycles thru their mortality,
horizontally gene transfer, and also mind games about put in relationship metabolism. …
[HTML] PIECE: a collection to help your entire family take also gene rules comparing and then progression
1943 1951 AbstractFREE Full Text Garcia-Espana Mares SunTT Desalle Intron evolution: checking
hypotheses for intron development by consuming phylogenomics for tetraspanins …
[HTML] Integration of sequence-similarity and therefore practical union information definitely likely surmounted inbuilt factors found in orthology mapping through bacterial …
strategies put to practice found on eukaryotic genomes 2007 e383 CrossRef Medline ZmasekCM
EddySR RIO: analyzing proteomes by automated phylogenomics wearing resampled …
Effect of modified montmorillonites on the biodegradation and adsorption of biomarkers such as hopanes, steranes and diasteranes
to stimulate microbial … Indigenous microbial cells of Whitley Bay sediments were iso- lated and
proliferated via several subcultures prior to use for laboratory biodegradation studies. …
[HTML] Deconstruction created by Lignocellulose interested in Soluble Sugars by the Native and even Designer Cellulosomes
forensics education a … Previous SectionNext Section Designer cellulosome technology also has
also been recommended to your indigenous microbial enzymatic destruction created by …
[HTML] Molecular multiplying associated with polymerases for resistor to environmental inhibitors
prognostics, forensics to molecular … using the QiaAmp DNA miniature apparatus (Qiagen) being
for each and every manufacturer’s instructions, upcoming microbial standard protocol C …
So incredibly weird. Is there some site out there that figured out how to scam Google Scholar into linking to them? Anyone seen anything like this before?
Yes, microbes are likely important everywhere, but evidence would be nice (re Atlantic piece on Soil)
Just read this article in the Atlantic: Healthy Soil Bacteria, Healthy People – Mike Amaranthus & Bruce Allyn – The Atlantic. It is interesting in a few ways. But what got me a bit up in arms about it is the number of statements and claims that are not backed up by any reference to evidence. Consider the following:
“Just as we have unwittingly destroyed vital microbes in the human gut through overuse of antibiotics and highly processed foods, we have recklessly devastated soil microbiota essential to plant health through overuse of certain chemical fertilizers, fungicides, herbicides, pesticides, failure to add sufficient organic matter (upon which they feed), and heavy tillage.”
OK – sounds serious. But is it really true? Have pesticides really devastated soil microbiota? What about tillage? Seems possible, but also seems possible that this would not be true. Would be nice to see the evidence behind this claim.
How about this one:
“Reintroducing the right bacteria and fungi to facilitate the dark fermentation process in depleted and sterile soils is analogous to eating yogurt (or taking those targeted probiotic “drugs of the future”) to restore the right microbiota deep in your digestive tract.”
Sounds good too. But way too overly simplistic. I mean – probiotics for people are a bit of a complicated mess right now. Some work. Most probably don’t. Most of the claims are overblown. So to say we know how to do this well in “soil” definitely seems to be an overstatement. Again, specific evidence for this would be nice.
And then this:
“Due to new genetic sequencing and production technologies, we have now come to a point where we can effectively and at low cost identify and grow key bacteria and the right species of fungi and apply them in large-scale agriculture.”
Soil is a very very complicated place in terms of microbes. I personally think we are really far away from this utopian view of growing the key species to apply them to large scale ag. Evidence that this is true? I don’t know of much. Yes we can sequence things. We can sequence a lot of things. But “identify and grow key bacteria and the right species of fungi” – I think we are far from being able to do this robustly.
Another claim in the article has some ring of truth:
We can sow the “seeds” of microorganisms with our crop seeds and, as hundreds of independent studies confirm, increase our crop yields and reduce the need for irrigation and chemical fertilizers.
Yes, this has a ring of truth. Certainly there are studies – many of them – involving adding microbes to seeds and how that impacts yield and nutrient and water requirements. And without a doubt in many cases such inoculation can help in many ways. But the “hundreds of independent studies” claim is a bit misleading as there are also many cases where inoculation does not help. So we should be cautious before adding microbes to seeds becomes the equivalent of probiotics for people. Not all probiotics that are claimed to help people actually do anything. And not all microbes added to seeds will do much of anything useful either.
How about the claim:
Thus the microbial community in the soil, like in the human biome, provides “invasion resistance” services to its symbiotic partner. We disturb this association at our peril
Sounds good. And has a ring of truth too. And in general I agree with the sentiment that we should not screw with ecosystems without recognizing that the microbes in those systems may play important and useful roles. However, just because SOME microbes play important and useful roles in systems does not of course mean that ALL are ones we want to keep. There will be some in the soil that damage plants and hurt yield and pathogen resistance just as there will be some that are “good” from our point of view.
And then there is this
We are now at a point where microbes that thrive in healthy soil have been largely rendered inactive or eliminated in most commercial agricultural lands; they are unable to do what they have done for hundreds of millions of years, to access, conserve, and cycle nutrients and water for plants and regulate the climate.
And also
The mass destruction of soil microorganisms began with technological advances in the early twentieth century.
Sounds nice. But I don’t really know of much evidence that the microbes have been rendered inactive or eliminated in commercial agricultural lands.
I suppose this is all building up to the following
Fortunately, there is now a strong business case for the reintroduction of soil microorganisms in both small farms and large-scale agribusiness. Scientific advances have now allowed us to take soil organisms from an eco-farming niche to mainstream agribusiness. We can replenish the soil and save billions of dollars.
and
For all these reasons, bio fertility products are now a $500 million industry and growing fast. The major agricultural chemical companies, like Bayer, BASF, Novozymes, Pioneer, and Syngenta are now actively selling, acquiring or developing these products.
So — this is in a way an article promoting the financial benefit of adding microbes to soil. I think this is reasonable although not completely convincing. Alas, after reading the article I discovered this about one of the authors
Mike Amaranthus is the chief scientist at Mycorrhizal Applications, Inc., a company working on innovations in soil biology.
This is not to say that someone with a financial role in convincing the world to add microbes to soil cannot be trusted to provide a good guide about microbes in the soil. But it would have been nice for this to be mentioned more prominently in the article. Many of the claims in this article do not pass the smell test to me. And all of them seem to be pointing towards a solution involving a company that one of the authors is involved in. If this were about human medical treatments many many people might get bent out of shape by this. Again, not to say people with financial interests cannot write good articles. But the potential for conflicts in such cases, as in the case here, is great. And thus we should view with a tint of extra skepticism some of the claims made by such individuals. And in this case here I already felt uncomfortable with many of the claims. I think the Atlantic could do better and could certainly require the author to make more clear in the article itself what the author’s personal interest in the claims are.
Final Presentation of Aquarium Project
Today was the final presentation by the students working on the aquarium research project. Alex, Lakshmi, Sabreen, Andrew, and Kevin all talked about their recent work using QIIME to analyze the 16S sequence data from the project.
Their presentations, along with my introduction can be found here.
Now we need to take some time and really dig through the data to see which samples we should take out of the freezer and analyze in order to create the most useful dataset to look at community succession in these coral ponds.
Fall 2013 Graduate Course in Applied Ecological Genetics: ECL242 / PHR242
Thought this might be of interest
Dynamic graduate level course in ecological genetics offered Fall 2013 at UC Davis.
Applied Ecological Genetics:
Genetics and Genomics for Ecology, Health, and Conservation of Natural Populations
Making genetics friendly and accessible.
This course is an introductory course to the topic for graduate students…and yet packed with great information.
REGISTRATION INFO:
Ecology and Pop Bio grad students sign up for ECL242 CRN 29983
Grad students in all other grad groups sign up for PHR242 CRN 46002
3 units
10:00-11:50 Wed and Fridays Fall quarter 2013
Instructor: Holly Ernest
For graduate students in any graduate group interested in applications of genetics/genomics for ecology, conservation biology, and natural systems management. Space as available for post-docs, project scientists, and others.
More info: http://www.vetmed.ucdavis.edu/vgl/wildlife/Ecological_Genetics_Course.html
Great course for students interested in:
• building skills and knowledge to develop the best questions and approaches for ecological genetic and genomics projects
• gaining knowledge in ecological and conservation genetics/genomics for a career in wildlife and natural resource agencies, nonprofit organizations, and academic institutions. Genetics and genomics is increasingly a key conservation tool.
• evaluating published genetic analyses for ecological questions and management applications.
• applicable to fields including, but not limited to, conservation ecology, population biology, wildlife health, disease ecology, avian science, plant biology, anthropology, entomology, veterinary medicine, and others.
Objectives:
1. Students will gain understanding of the scope and breadth of genetic/genomic applications for research and applications in ecology, conservation management, and wildlife population health.
2. Students will become familiar with concepts of laboratory and computational techniques commonly used for ecological genetics research.
3. Students will become familiar with key theory underlying genetic data analysis for ecology.
4. Students will gain knowledge and skills in development of well-designed questions, hypotheses and research projects, basic data analysis techniques, and problem-solving in the field of ecological genetics.
Topics
• Sampling techniques and strategies
• Molecular markers and lab techniques: including next generation sequencing, whole genome, microsatellites, mitochondrial DNA, etc
• Data analysis
• Study design
• Genetics of endangered species; invasive species
• Introductory material for Ecological genomics – future courses will be offered by Ecology faculty in this area. ECL242 will help set the foundation for the more advanced genomics courses.
…and much more! … covered in lecture, computer lab, and discussion
Special Guest speakers and sessions tentatively on schedule
• Computer lab sessions: intro to computational aspects of work with genetic data, genotypic data, sequence data;
• Genome research specialists lined up to tell us about: genomics of wild ancestors of crop plants, insects that are key disease vectors, polyploid fish, birds of conservation concern, endangered mammals, genomics and ecotoxicology, etc
• UCD Genome Center talk and tour
Note that this course will likely be one of the core courses for Ecology Grad Group’s proposed new Area of Emphasis (AOE) in Ecological Genetics and Genomics
Important read for those interested in gender, family & academia: Do Babies Matter
Just got pointed to this by Julie Huber on Facebook: New book on gender, family and academe shows how kids affect careers in higher education | Inside Higher Ed. The book is “Do Babies Matter? Gender and Family in the Ivory Tower.” This looks like a very important book and is especially relevant to me in my role in the UC Davis ADVANCE project where we are working on related issues. It is from Mary Ann Mason at Berkeley Law School, Nicholas Wolfinger from Utah, and Marc Goulden from the UC Berkeley Office for Faculty Equity and Welfare. It is definitely worth checking out.
I am ordering it right now …
6/12 at #UCDavis: Stephen Scherer on “Detection of Clinically Relevant Genetic Variants in Autism Spectrum”
UC Davis MIND Institute’s 2012-2013 Distinguished Lecturer Series
SPEAKER: Stephen Scherer, PhD, DSc
TOPIC: Detection of Clinically Relevant Genetic Variants in Autism Spectrum Disorder
DATE: Wednesday, June 12, 2013
TIME: 4:30 pm – 6:00 pm
LOCATION: MIND Institute Auditorium (2825 50th Street, Sacramento)
Background Information ( see attached and below)
Bio Info: Stephen Scherer, PhD, DSc, FRSC, holds the GlaxoSmithKline-Canadian Institutes of Health Research Endowed Chair in Genome Sciences at The Hospital for Sick Children and University of Toronto. Dr. Scherer is director of the University of Toronto’s McLaughlin Centre and The Centre for Applied Genomics. He has made numerous contributions to medical genetics including mapping, sequencing and disease gene studies of human chromosome 7. In 2004, his team co-discovered global gene copy number variation (CNV) and has since shown that CNV is the most abundant type of genetic variation of human DNA. His group then identified CNV that contribute to the etiology of autism and many other disorders. The Database of Genomic Variants that he founded facilitates hundreds of thousands of clinical diagnoses each year. His work is documented in over 300 publications and patents and cited more than 20,000 times, ranking him as one of the top cited scientists over the past decade worldwide. Dr. Scherer has won numerous honors such as the 2004 Steacie Prize, an International Howard Hughes Medical Institute Scholarship, and the Premiers Summit Award for Medical Research. He is a distinguished Fellow of the Canadian Institute for Advanced Research, the American Association for the Advancement of Science, and the Royal Society of Canada.
Presentation: (Detection of Clinically Relevant Genetic Variants in Autism Spectrum Disorder )
Autism Spectrum Disorder (ASD) demonstrates high heritability, familial clustering and ~4:1 male to female bias, yet the causes are only partially understood, due to extensive clinical and genetic heterogeneity. Whole genome sequencing (WGS) promises added value to identify novel ASD risk genes, as well as new mutations in known loci, but an assessment of its full utility in an ASD group has not been performed. In a pilot study, we used WGS to examine 32 families with ASD to detect de novo or rare inherited genetic variants predicted to be deleterious (loss-of-function and damaging missense mutations). Among ASD probands, we identified deleterious de novo mutations in 6 of 32 (19%) and X-linked or autosomal inherited alterations in 10 of 32 (31%) families (some had combinations of mutations). The proportion of families identified with such mutations was larger than has been previously reported, a yield that is in part due to the more comprehensive coverage afforded by WGS. Deleterious mutations were found in four novel, 9 known, and 8 candidate ASD risk genes. Examples include CAPRIN1 and AFF2 (both linked to the FMR1 gene that is involved in fragile X syndrome), VIP (involved in social-cognitive deficits), and other genes such as SCN2A and KCNQ2 (also linked to epilepsy), NRXN1, and CHD7, which causes ASD-associated CHARGE syndrome. Taken together, these results suggest that WGS and thorough informatic analyses may improve the detection of genetic variants likely associated with ASD or its associated clinical symptoms
Better late than never – video interview of me from #AAAS2012 – Evolvability, the Built Environment and Open Science
Well, better late than never. An interview of me by Stan Malloy at the AAAS Meeting from February 2012 has been posted at MWV Episode 72 – Jonathan Eisen – Evolvability, the Built Environment and Open Science. From their site
On this episode, Jonathan talks about “evolvability,” the probability that organisms can invent new functions. To do this, he has been using genome data in conjunction with experimental information to try and understand the mechanisms by which new functions have originated.
Another area of interest for Eisen is the “built environment.” We live and work in buildings or structures which are non-natural environments, new to microbes. These “new” environments represent a controlled system in which to study the rules by which microbial communities form.
Jonathan is interested in these environments as basic science vehicle and he shares the importance of studying the built environment for science and human health.
Finally Jonathan explains his interest in “open science,” the ways in which science is shared. At it’s core, Eisen wants to leverage cheaper technologies to accelerate the progress of science in a positive way.
This episode was recorded at the American Association for the Advancement of Science Meeting in Vancouver, British Columbia on February 18, 2012.
See the interview via Youtube below:
Tweets from Nancy Moran’s talk at #UCDavis on "Two sides of symbiosis" storified
I went to a talk yesterday by Nancy Moran at UC Davis. Nancy is one of my science heroes. I have worked on a few projects with her and am just a big fan of her body of work on symbioses. I have written about her work her on this blog many times before including
- Holy lateral transfer batman; amazing story on fungal to aphid transfer from Nancy Moran
- Sharpshooters, dual symbioses and new ways to sequence a genome
- Why endosymbionts rule – see #PLoS Genetics paper on origin of an alternative genetic code
- Aphid-bacterial symbiosis in more detail, and in the New York Times
- You could call it symbiomics (but please do not)… but whatever name you use, this is $^@#&* so cool.
- World’s Smallest Genome of a Cellular Organism?
- Glassy winged sharpshooter symbionts
@phylogenomics‘s tweets re Nancy Moran’s talk at #UCDavis storified bit.ly/111dHgj #symbiosis CC @symbionticism
— Surya Saha (@SahaSurya) June 6, 2013


