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Chronic Hyperaldosteronism in Cryptochrome-Null Mice Induces High-Salt- and Blood Pressure- Independent Kidney Damage in Mice
Hypertension Research (2014) 37, 202–209 & 2014 The Japanese Society of Hypertension All rights reserved 0916-9636/14 www.nature.com/hr ORIGINAL ARTICLE Chronic hyperaldosteronism in Cryptochrome-null mice induces high-salt- and blood pressure- independent kidney damage in mice Dwi Aris Agung Nugrahaningsih1, Noriaki Emoto1,2, Nicolas Vignon-Zellweger2, Eko Purnomo1, Keiko Yagi2, Kazuhiko Nakayama1,2, Masao Doi3, Hitoshi Okamura3 and Ken-ichi Hirata1 Although aldosterone has an essential role in controlling electrolyte and body fluid homeostasis, aldosterone also exerts certain pathological effects on the kidney. Several previous studies have attempted to examine these deleterious effects. However, the majority of these studies were performed using various injury models, including high-salt treatment and/or mineralocorticoid administration, by which the kidney changes observed were not only due to aldosterone but also due to prior injury caused by salt and hypertension. In the present study, we investigated aldosterone’s pathological effect on the kidney using a mouse model with a high level of endogenous aldosterone. We used cryptochrome-null (Cry 1, 2 DKO) mice characterized by high aldosterone levels and low plasma renin activity and observed that even under normal salt exposure conditions, these mice showed increased albumin excretion and kidney tubular injury, decreased nephrin expression and increased reactive oxygen species production in the absence of hypertension. Exposure to high salt levels exacerbated the kidney damage observed in these mice. Moreover, we noted that decreasing blood pressure without blocking aldosterone action did not provide beneficial effects to the kidney in high-salt-treated Cry 1, 2 DKO mice. Thus, our findings support the hypothesis that aldosterone has deleterious effects on the kidney independent of high-salt exposure and high blood pressure. -
Paul Hardin, Ph.D. John W
Department of Biology The College of Arts + Sciences | Indiana University Bloomington About Paul Hardin Distinguished Alumni Award Lecture Thu., Oct. 18, 2018 • 4 to 5 pm • Myers Hall 130 Paul Hardin, Ph.D. John W. Lyons Jr. ’59 Chair in Biology, Texas A&M University Genetic architecture underlying circadian clock initiation, maintenance, and output in Drosophila Circadian clocks drive daily rhythms in metabolism, physiology, and behavior in organisms ranging from cyanobacteria to humans. The identification and analysis of “clock genes” in Drosophila revealed that circadian timekeeping is based on a transcriptional feedback loop Paul Hardin studied the development of the sea in which CLOCK-CYCLE (CLK-CYC) heterodimers activate transcription of their feedback urchin embryo in William Klein’s lab at Indiana repressors PERIOD (PER) and TIMELESS (TIM). Subsequent studies revealed that similar University, from where he received his Ph.D. in transcriptional feedback loops keep circadian time in all eukaryotes and, in the case of 1987. He did his postdoctoral fellowship with animals, that these feedback loops are comprised of conserved components. The “core” Michael Rosbash at Brandeis University, working feedback loop described above operates in conjunction with an “interlocked” feedback on the circadian rhythms of the fruit fly, Drosophila loop in animals to drive rhythmic transcription of hundreds of genes that are maximally melanogaster. His work with Michael Rosbash and expressed at different phases of the circadian cycle. These feedback loops operate in many, Jeff Hall has been instrumental to our understanding but not all, tissues in flies including the brain pacemaker neurons that control rest:activity of how circadian rhythms affect a myriad of rhythms. -
RNA Society Newsletter August 2013
RNA Society Newsletter August 2013 From the Desk of the President, Rachel Green Whether we are taking classes, teaching classes, or just living our lives under the umbrella of the academic cycle, summer marks the time for sharing what we have learned during those long dark winter months. For the RNA Society, this summer was no exception where many of us attended the 18th annual RNA Society meeting in the heart of the Alps in Davos, Switzerland to share our new data and ideas. (Continued on p2) In this issue : From the Desk of the President, Rachel Green 1 RNA 2013 Meeting Review: Davos, Switzerland Election Results Announced 4 Junior Scientist Meetings Summary 4 RNA Lifetime Achievement Award 6 Volunteer Positions Available 7 Junior Scientist Corner 8 Chair of the Meetings Committee, David Lilley 9 From the desk of our CEO, James McSwiggen 11 Thank you volunteers 13 RNA Society supported meetings Meetings Reports 16 Upcoming meetings of interest 18 Employment Opportunities 21 1 The meeting organizers this year included the opening evening of the meeting a full session of two Swiss natives, Frederic Allain and Witold science was planned, headed off by Venki Filipowicz, as well as Adrian Krainer (RNA Ramakrishnan who gave a beautiful talk bringing Society president elect!), Osamu Nureki and Sarah together biochemical Woodson. In addition to their excellent guidance, the and structural organizers were helped at the organizational level by perspectives on the Simple Meetings (including Kristin Scheyer and process of decoding Mary McCann) who over the years have really during protein figured out our needs. -
Table of Contents (PDF)
June 28, 2016 u vol. 113 u no. 26 From the Cover 7106 Topological defects in liquid crystals E3619 Translation control in Fragile X syndrome E3686 Voltage-sensing phosphatase activities E3782 Aerobic glycolysis and learning 7261 Electric field sensing by bumblebees Contents THIS WEEK IN PNAS Cover image: Pictured is a polarized 7003 In This Issue optical micrograph of a plastic sheet with an array of holes drilled into it and suspended in a nematic-phase liquid LETTERS (ONLINE ONLY) crystal. Lisa Tran et al. found that such a sheet induced arrays of topological E3590 Reduced nitrogen dominated nitrogen deposition in the United States, but its defect lines in a nematic liquid crystal. contribution to nitrogen deposition in China decreased The authors further demonstrated how Xuejun Liu, Wen Xu, Enzai Du, Yuepeng Pan, and Keith Goulding the energy of the liquid crystal and the E3592 Reply to Liu et al.: On the importance of US deposition of nitrogen dioxide, geometry of the holes affect the defect coarse particle nitrate, and organic nitrogen patterns. The findings might have Yi Li, Bret A. Schichtel, John T. Walker, Donna B. Schwede, Xi Chen, Christopher M. B. applications in electronic displays, Lehmann, Melissa A. Puchalski, David A. Gay, and Jeffrey L. Collett Jr. where nematic liquid crystals are widely used. See the article by Tran et al. on E3594 Rise and fall of nitrogen deposition in the United States pages 7106–7111. Image courtesy of Enzai Du Lisa Tran. E3596 Adult pelvic shape change is an evolutionary side effect Philipp Mitteroecker and Barbara Fischer E3597 Reply to Mitteroecker and Fischer: Developmental solutions to the obstetrical dilemma are not Gouldian spandrels Marcia S. -
Department of Systems Biology
DIVISION OF BIOINFORMATICS AND CHEMICAL GENOMICS Research Profile Department of Systems Biology Professor: Hitoshi Okamura, Associate Professor: Masao Doi, Assistant Professor: Yoshiaki Yamaguchi, Senior Lecturer: Jean-Michel Fustin Research Projects: How TIME is generated and tuned? We will clarify feedback loop of clock genes. the secret of generation and tuning of TIME in 1.3 Clock genes and cell metabolism, birth, and mammalian circadian system by multi-layered view death at intracellular, intercellular and individual levels. Why virtually all cells in the body have the clock Through clarifying the integration network mecha- inside the cell? We will identify how clock genes nism of TIME, we will develop new drugs for tuning work on the energy metabolism, cell cycles, and TIME. cell death. The subject of our study is circadian timing system 2. Intercellular system for synchronizing TIME in mammals. In this system, the circadian TIME gen- 2.1 Region-specific knockdown of SCN erated at molecular clock in the suprachiasmatic SCN biological clock is composed of thousands nucleus (SCN) evokes the synchronized oscillation of clock cells which are subdivided into several of molecular clocks in the whole body. Between groups. We will perform region-specific knockdown them, TIME is transmitted in multilayer systems: 1) of these subdivisions to address the functional sub- intracellular system of generation of cyclic TIME, 2) division of SCN. Intercellular system for synchronizing TIME, and 3) 2.3 Geography of SCN Symphony of TIME in individuals. SCN clock cells are highly organized in time and 1. Clarification of clock machinery to generate space. For example, in our real-time luciferase- TIME imaging system at cell level, time is generated and 1.1 Identification of all components of CLOCK synchronized in a very highly organized system. -
New Trends in Connectomics
FOCUS FEATURE: New Trends in Connectomics Editorial: New Trends in Connectomics 1 2,3,4,5 Olaf Sporns and Danielle S. Bassett 1Department of Psychological and Brain Sciences, Indiana University, Bloomington, IN, USA 2Department of Bioengineering, University of Pennsylvania, Philadelphia, PA, USA 3Department of Physics and Astronomy, University of Pennsylvania, Philadelphia, PA, USA 4Department of Neurology, Hospital of the University of Pennsylvania, Philadelphia, PA, USA 5Department of Electrical and Systems Engineering, University of Pennsylvania, Philadelphia, PA, USA ABSTRACT Connectomics is an integral part of network neuroscience. The field has undergone rapid Downloaded from http://direct.mit.edu/netn/article-pdf/02/02/125/1092204/netn_e_00052.pdf by guest on 28 September 2021 expansion over recent years and increasingly involves a blend of experimental and computational approaches to brain connectivity. This Focus Feature on “New Trends in an open access journal Connectomics” aims to track the progress of the field and its many applications across different neurobiological systems and species. The idea that connections among neural elements are crucial for brain function has been central to modern neuroscience almost since its inception. Building on this idea, the emerg- ing field of connectomics adds several new and important components. First, connectomics provides comprehensive maps of neural connections, with the ultimate goal of achieving com- plete coverage of any given nervous system. Second, connectomics delivers insights into the principles that underlie network architecture and uncovers how these principles support net- work function. These dual aims can be accomplished through the confluence of new experi- mental techniques for mapping connections and new network science methods for modeling and analyzing the resulting large connectivity datasets. -
Antibodies Against the Clock Proteins Period and Cryptochrome Reveal the Neuronal Organization of the Circadian Clock in the Pea Aphid
ORIGINAL RESEARCH published: 02 July 2021 doi: 10.3389/fphys.2021.705048 Antibodies Against the Clock Proteins Period and Cryptochrome Reveal the Neuronal Organization of the Circadian Clock in the Pea Aphid Francesca Sara Colizzi 1, Katharina Beer 1, Paolo Cuti 2, Peter Deppisch 1, David Martínez Torres 2, Taishi Yoshii 3 and Charlotte Helfrich-Förster 1* 1Neurobiology and Genetics, Theodor-Boveri-Institute, Biocenter, University of Würzburg, Würzburg, Germany, 2Institute for Integrative Systems Biology (I2SysBio), University of Valencia and CSIC, Valencia, Spain, 3Graduate School of Natural Science and Technology, Okayama University, Okayama, Japan Circadian clocks prepare the organism to cyclic environmental changes in light, temperature, Edited by: or food availability. Here, we characterized the master clock in the brain of a strongly Joanna C. Chiu, photoperiodic insect, the aphid Acyrthosiphon pisum, immunohistochemically with antibodies University of California, Davis, United States against A. pisum Period (PER), Drosophila melanogaster Cryptochrome (CRY1), and crab Reviewed by: Pigment-Dispersing Hormone (PDH). The latter antibody detects all so far known PDHs and Hideharu Numata, PDFs (Pigment-Dispersing Factors), which play a dominant role in the circadian system of Kyoto University, Japan many arthropods. We found that, under long days, PER and CRY are expressed in a rhythmic Annika Fitzpatrick Barber, Rutgers, The State University of manner in three regions of the brain: the dorsal and lateral protocerebrum and the lamina. No New Jersey, United States staining was detected with anti-PDH, suggesting that aphids lack PDF. All the CRY1-positive *Correspondence: cells co-expressed PER and showed daily PER/CRY1 oscillations of high amplitude, while Charlotte Helfrich-Förster charlotte.foerster@biozentrum. -
February 2012
Having trouble viewing this email? Click here February 2012 SBN E-News In This Issue Contact Us SBN Announcements General Announcements SBN Executive Office Two Woodfield Lake Job Postings/Training Opportunities 1100 E Woodfield Road, Suite 520 Schaumburg, IL 60173 Phone: (847) 517-7225 Fax: (847) 517-7229 Email: [email protected] Website: www.sbn.org SBN Announcements Come to SBN 2012 in Madison, WI, in June! The annual SBN meeting will be held in Madison,Wisconsin, June 15 -18 at the Frank Lloyd Wright- designed Monona Terrace: www.mononaterrace.com. Meeting Highlights Keynote Speakers: Larry Young (Emory University), Rae Silver (Columbia University), Heather Cameron (NIMH) Pre-Meeting Workshop: Strategies for Studying Social Behavior and the Social Brain Symposia: Neuroendocrine-Immune Interactions Neuroplasticity, Neurosteroidogenesis, & Neurotrauma Hormones and Evolutionary Trade-Offs in Social Context for Females and Males Kisspeptins and the Control of Reproduction Neural Plasticity and Endocrine Responses to Social Odor Cues in Parents Young Investigators Symposium Meeting & program information are now available at: http://sbn.org/meetings/2012/. Present your Research at SBN 2012! The 2012 Society of Behavioral Neuroendocrinology Annual Meeting will be held at the Monona Terrace in Madison, Wisconsin, June 15 -18. Below are some important dates to keep in mind. Abstract submission deadlines: For SBN Trainee Members: Undergrads, Graduate Students and Post Docs: If you would like to enter the poster award competition, or apply for a Travel or Young Investigator Award (see below), the deadline for submitting your application materials and your abstract will be Friday March 9, 2012 at NOON CST. If you are an invited speaker at the meeting, or you would like to present a poster without applying for an award, the deadline for non-award abstract submissions will be Friday March 16, 2012 at NOON CST. -
Connectomics of Morphogenetically Engineered Neurons As a Predictor of Functional Integration in the Ischemic Brain
http://www.diva-portal.org This is the published version of a paper published in Frontiers in Neurology. Citation for the original published paper (version of record): Sandvig, A., Sandvig, I. (2019) Connectomics of Morphogenetically Engineered Neurons as a Predictor of Functional Integration in the Ischemic Brain Frontiers in Neurology, 10: 630 https://doi.org/10.3389/fneur.2019.00630 Access to the published version may require subscription. N.B. When citing this work, cite the original published paper. Permanent link to this version: http://urn.kb.se/resolve?urn=urn:nbn:se:umu:diva-161446 REVIEW published: 12 June 2019 doi: 10.3389/fneur.2019.00630 Connectomics of Morphogenetically Engineered Neurons as a Predictor of Functional Integration in the Ischemic Brain Axel Sandvig 1,2,3 and Ioanna Sandvig 1* 1 Department of Neuromedicine and Movement Science, Faculty of Medicine and Health Sciences, Norwegian University of Science and Technology, Trondheim, Norway, 2 Department of Neurology, St. Olav’s Hospital, Trondheim University Hospital, Trondheim, Norway, 3 Department of Pharmacology and Clinical Neurosciences, Division of Neuro, Head, and Neck, Umeå University Hospital, Umeå, Sweden Recent advances in cell reprogramming technologies enable the in vitro generation of theoretically unlimited numbers of cells, including cells of neural lineage and specific neuronal subtypes from human, including patient-specific, somatic cells. Similarly, as demonstrated in recent animal studies, by applying morphogenetic neuroengineering principles in situ, it is possible to reprogram resident brain cells to the desired phenotype. These developments open new exciting possibilities for cell replacement therapy in Edited by: stroke, albeit not without caveats. -
Patient-Tailored Connectomics Visualization for the Assessment of White Matter Atrophy in Traumatic Brain Injury
Patient-Tailored Connectomics Visualization for the Assessment of White Matter Atrophy in Traumatic Brain Injury The Harvard community has made this article openly available. Please share how this access benefits you. Your story matters Citation Irimia, Andrei, Micah C. Chambers, Carinna M. Torgerson, Maria Filippou, David A. Hovda, Jeffry R. Alger, Guido Gerig, et al. 2012. Patient-tailored connectomics visualization for the assessment of white matter atrophy in traumatic brain injury. Frontiers in Neurology 3:10. Published Version doi://10.3389/fneur.2012.00010 Citable link http://nrs.harvard.edu/urn-3:HUL.InstRepos:8462352 Terms of Use This article was downloaded from Harvard University’s DASH repository, and is made available under the terms and conditions applicable to Other Posted Material, as set forth at http:// nrs.harvard.edu/urn-3:HUL.InstRepos:dash.current.terms-of- use#LAA METHODS ARTICLE published: 06 February 2012 doi: 10.3389/fneur.2012.00010 Patient-tailored connectomics visualization for the assessment of white matter atrophy in traumatic brain injury Andrei Irimia1, Micah C. Chambers 1, Carinna M.Torgerson1, Maria Filippou 2, David A. Hovda2, Jeffry R. Alger 3, Guido Gerig 4, Arthur W.Toga1, Paul M. Vespa2, Ron Kikinis 5 and John D. Van Horn1* 1 Laboratory of Neuro Imaging, Department of Neurology, University of California Los Angeles, Los Angeles, CA, USA 2 Brain Injury Research Center, Departments of Neurology and Neurosurgery, University of California Los Angeles, Los Angeles, CA, USA 3 Department of Radiology, David -
Kaic Cii Ring Flexibility Governs the Rhythm of The
KAIC CII RING FLEXIBILITY GOVERNS THE RHYTHM OF THE CIRCADIAN CLOCK OF CYANOBACTERIA A Dissertation by NAI-WEI KUO Submitted to the Office of Graduate Studies of Texas A&M University in partial fulfillment of the requirements for the degree of DOCTOR OF PHILOSOPHY May 2011 Major Subject: Biochemistry KAIC CII RING FLEXIBILITY GOVERNS THE RHYTHM OF THE CIRCADIAN CLOCK OF CYANOBACTERIA A Dissertation by NAI-WEI KUO Submitted to the Office of Graduate Studies of Texas A&M University in partial fulfillment of the requirements for the degree of DOCTOR OF PHILOSOPHY Approved by: Co-Chairs of Committee, Andy LiWang Pingwei Li Committee Members, Deborah Bell-Pedersen Frank Raushel Head of Department, Gregory Reinhart May 2011 Major Subject: Biochemistry iii ABSTRACT KaiC CII Ring Flexibility Governs the Rhythm of the Circadian Clock of Cyanobacteria. (May 2011) Nai-Wei Kuo, B.S.; M.S., National Tsing Hua University, Taiwan Co-Chairs of Advisory Committee: Dr. Andy LiWang, Dr. Pingwei Li The circadian clock orchestrates metabolism and cell division and imposes important consequences to health and diseases, such as obesity, diabetes, and cancer. It is well established that phosphorylation-dependent circadian rhythms are the result of circadian clock protein interactions, which regulate many intercellular processes according to time of day. The phosphorylation-dependent circadian rhythm undergoes a succession of phases: Phosphorylation Phase → Transition Phase → Dephosphorylation Phase. Each phase induces the next phase. However, the mechanism of each phase and how the phosphorylation and dephosphorylation phases are prevented from interfering with each other remain elusive. In this research, we used a newly developed isotopic labeling strategy in combination with a new type of nuclear magnetic resornance (NMR) experiment to obtain the structural and dynamic information of the cyanobacterial KaiABC oscillator system. -
Photoperiodic Responses on Expression of Clock Genes, Synaptic Plasticity Markers, and Protein Translation Initiators the Impact of Blue-Enriched Light
Photoperiodic Responses on Expression of Clock Genes, Synaptic Plasticity Markers, and Protein Translation Initiators The Impact Of Blue-Enriched Light Master report Jorrit Waslander, s2401878 Behavioral Cognitive Neuroscience research master, N-track University of Groningen, the Netherlands Internship at: Bergen Stress and Sleep Group, University of Bergen, Norway Date: 13-7-2018 Internal supervisor, University of Groningen: P. (Peter) Meerlo External supervisor, University of Bergen: J. (Janne) Grønli Daily supervisor, University of Bergen: A. (Andrea) R. Marti Photoperiodic Responses in the PFC Table of Contents Summary ................................................................................................................................................. 3 Introduction ............................................................................................................................................. 5 Research Objective .............................................................................................................................. 8 Hypotheses .......................................................................................................................................... 8 Methods ................................................................................................................................................ 10 Experimental procedure .................................................................................................................... 10 Ethics ............................................................................................................................................