DOCSLIB.ORG

YALE BME Department of NEWS Biomedical Engineering

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
YALE BME Department of NEWS Biomedical Engineering YALE BME Department of NEWS Biomedical Engineering WWW.ENG.YALE.EDU/BME Vol. 1 / No. 1 / Fall 2007 Letter BME From The Chair It is an exciting time to be a biomedical engineer at only a few. After a short Yale. This first issue of Yale BME News, a newslet- time at Yale, Rich Car- ter from the Department of Biomedical Engineering son is leading our gradu- Notes at Yale University, marks our fifth year as a depart- ate admissions, serving ment. During this time, we hired 6 new faculty mem- as Director of Yale’s PET bers, who have built first-rate research programs in Center, and continuing drug delivery, tissue engineering, biophotonics, and to win awards for his pi- imaging science. We moved into the Malone Engineer- oneering research, most ing Center, a 5-story, glass-covered, inspirational new recently the Kuhl-Lassen research building on Yale’s historic central campus. Lecture Award for Re- And we developed a department that bridges Yale’s search in Brain Imaging. outstanding schools of engineering and medicine. We Jim Duncan continues to worked hard in these years, but we had great help be a key person in bridg- from colleagues throughout Yale, and we are sup- ing the engineering and ported by engineering and medical schools with long medical campuses: he was recently appointed Associ- histories of excellence in research and education. ate Chair of the department to facilitate his work in this area. Significantly, Jim was also named the Eb- As you browse through this inaugural issue, you will enezer K. Hunt Professor of Biomedical Engineering, find evidence of our progress in research, education, which is well-deserved recognition for his consistently and collaboration. What this issue cannot capture is outstanding work in image analysis research, teach- the spirit of adventure, scholarship, and community ing, and mentorship. that fills our labs and classrooms. Still, I want to high- light a few things of which I am most proud. In upcoming issues we will tell you more about other exciting developments such as the new Core Center We have awarded Yale degrees in biomedical en- for Quantitative Neuroscience with Magnetic Reso- gineering to outstanding students for over 10 years nance, led by Fahmeed Hyder; and newly occupied now; students appeared before we became a de- laboratories for Vascular Biology and Therapeutics, an partment. Biomedical engineering continues to be a interdisciplinary community in which Laura Niklason, popular choice for Yale engineering undergraduates: Themis Kyriakides, and I have laboratory space that is twenty-three exceptional students earned the B.S. uniquely designed and equipped for vascular bioengi- in BME at Yale in 2007. These young people are now neering. pursuing advanced degrees in engineering, studying medicine and law, and building careers in industry. I am delighted to be part of this vibrant, expand- Our graduate program is currently populated by 48 ing community. I invite you to learn more about us: of the brightest young biomedical engineers in the through this newsletter, through our website, or by country, working on projects ranging from design of visiting us in New Haven. new vaccines, to repair of damaged optic nerves, to construction of image-guided neurosurgery systems, to analysis of microscopic changes in the brain during activity and disease. Our faculty continues to grow in both number and ac- complishments. Our newest junior faculty members— Erin Lavik, Michael Levene, and Tarek Fahmy—have W. Mark Saltzman, Ph.D. quickly established themselves as outstanding inde- Goizueta Foundation Professor of Chemical pendent researchers, graduate student mentors, and and Biomedical Engineering teachers. Of the many recent accomplishments of our Professor of Cellular & Molecular Physiology senior faculty members, I have space to enumerate Chair, Biomedical Engineering • BME • Fall 2007 2 Newly Funded In This Issue NIH Awards $7.2 Million Grant Research to Cardiovascular Imaging at Yale Programs Malone The National Institute of Health Led By (NIH) recently awarded a group of Engineering Notes Yale University researchers $7.2 Yale BME Center: million for their project entitled Faculty A Home For BME “LV Strain Quantification from 4D Echocardiography.” Professor Recent James Duncan of Yale biomedical Publications engineering will team up with Yale the properties of bacteria and viruses cardiologist Albert J. Sinusas, M.D., as a safe and effective vaccine deliv- Faculty professor of medicine and diagnos- ery system. In addition, the group Spotlight tic radiology, to develop hardware will track the nanoparticles using An introduction of and software with the capability to dendritic cells to analyze their inter- the Yale BME faculty analyze three-dimensional images nalization and release characteris- of the human heart. These faculty tics. Co-investigators for the grant Conference In will work with collaborators from include Dr. Mark Saltzman, BME, The Windy City the University of Washington and and Dr. Michael Caplan, professor A trip to Chicago with Philips Medical Systems to create a of physiology and cell biology. Yale BME viable imaging system using math- ematical models that will provide Spring 2007 doctors with real-time quantitative NIH Provides $2 Million Yale BME information for cardiac imaging. for New Magnetic Seminar Series Resonance System A group of Yale imaging faculty, led Yale BME NSF Funds Vaccine Delivery Through the Use of by Douglas L. Rothman, professor Undergraduate of diagnostic radiology and biomed- Internships Nanoparticles ical engineering, have received a $2 A group of Yale scientists includ- million High-End Instrumentation Life After ing biomedical engineers and cell (HEI) grant from the National Cen- Graduate School biologists, were recently awarded a ter for Research Resources (NCRR). $1 million grant from the National The funding was recently used to Yale Science Foundation (NSF) to study purchase a 7-Tesla human magnet- Undergraduates the delivery of nanoparticles for dis- ic resonance (MR) system that will ease treatment and prevention. Led help to explore the diagnosis and In Motion by biomedical engineering professor treatment of diseases such as epilep- Tarek Fahmy, this two years of fund- sy, diabetes, and learning disorders. It’s Never Too ing will provide the means to ana- As a facet of the National Institute Early for Science lyze the development of nanoparti- of Health (NIH), the NCRR serves A High School cles with the capability to evade to, “...provide laboratory scientists Student’s Research barriers in the body while stimulat- and clinical researchers with the en- Journey ing an immune response through an- vironments and tools they need to tigen-presenting cells. These “smart understand, detect, treat, and prevent nanoparticles” will serve to mimic a wide range of diseases.” BME • Fall 2007 • 3 In Focus... Malone Engineering Center: A Home for BME Facilities The Yale University campus welcomed its newest ad- dition, the five-story, 63,117 square foot “Daniel L. Malone Engineering Center,” on October 10, 2005. An element of Yale’s $500 million commitment to science and engineering, the building is located on Prospect Street near the Arthur K. Watson Hall, and is the second new engineering building to be commis- sioned since the 1900s. Designed by Cesar Pelli & Associates, the center features a limestone veneer and glass wall, designed to reflect its historic New Haven surroundings. The Daniel L. Malone Engineering Center was built largely due to a generous $24 million contribution by John C. Malone, ’63 E. John Malone has served as the chair of Liberty Media since 1990 and the chair of Media International since June 2004. In addition, he worked at Tele-Communications Inc., serving as the president, chair, and chief executive officer, and earned a Sheffield Fellowship in 1999. The Center is named after John C. Malone’s father, the late Daniel L. Malone. Daniel Malone served as an engineer for General Electric, building wartime radar systems, commercial televisions, and military communications. In 1960, Daniel Malone co-found- ed La Pointe industries, which is a supplier of military communication systems and components. Yale President Richard C. Levin, John C. Malone, and various engineering deans and faculty attended the dedication ceremony on October 10, 2005. The highlight of the dedication featured a nylon polymer ribbon cutting ceremony, in which a member of the department mixed chemicals to create a nylon ribbon. With President Levin holding the blue strand, Malone did the honors, commemorating the noteworthy day. According to the dean of Yale Engineering, Paul Fleu- ry, the building, “Stands as a statement to all that Yale Engineering is an integral part of this university’s most vibrant intellectual life. The research and teaching • BME • Fall 2007 4 that will take place here will center upon those fore- building, saving 95,000 gallons of water a year. In ad- front areas of biomedical engineering, materials sci- dition, the 100% filtered outdoor air that supplies the ence and nanotechnology that underpin 21st-century building maintains the high indoor air quality. These progress.” intricate design parameters helped earn the building a LEED Gold Rating in 2006, a standard created by the The building boasts many sustainable design features, U.S. Green Building Council in 2000 to promote sus- such as sensors that reduce energy consumption and a tainable design. plumbing system that promotes water conservation. It Facilities was constructed from materials of high recycled con- The Center features undergraduate facilities, such as the tent, and when possible, locally manufactured materi- Frederick P. Rose Teaching Laboratory, as well as offic- als and products. Over 75% of the building’s wood- es and laboratories for students and faculty to conduct work came from sustainably-managed forests and research. The architects and engineers of the building the building is designed so that the wastewater from designed the labs so that they can be modified as their the labs are treated on sight and reused as water for research evolves.
Load more

Recommended publications
  • Financial Report 2002-2003
    Yale University Financial Report 2002–2003 www.yale.edu/fr02-03 Highlights Fiscal years Five-Year Financial Overview ($ in millions) 2003 2002 2001 2000 1999 Budget Activity Surplus (Deficit) $ — $ — $ — $ — $0.7 Financial Position Highlights: Total assets $14,257.4 $13,358.8 $13,268.7 $12,370.0 $9,347.4 Total liabilities 2,029.3 1,624.1 1,393.6 1,416.2 1,336.6 Total net assets $12,228.1 $11,734.7 $11,875.1 $10,953.8 $8,010.8 Endowment: Total investments $11,048.9 $10,522.6 $10,733.3 $10,092.3 $7,221.7 Total return on investments 8.8% 0.7% 9.2% 41.0% 12.2% Spending from endowment 4.5% 3.8% 3.4% 3.9% 3.9% Facilities: Land, buildings and equipment, net of accumulated depreciation $1,986.1 $1,853.2 $1,582.5 $1,354.5 $1,197.4 Disbursements for building projects 207.6 328.2 282.0 191.3 172.8 Debt: For facilities improvements $1,543.9 $1,193.8 $994.3 $1,028.3 $989.9 For student loans and other 29.0 29.5 29.5 45.6 45.6 Statement of Activity Highlights: Operating revenue $1,553.7 $1,472.2 $1,352.9 $1,262.1 $1,149.5 Operating expenses 1,543.1 1,427.0 1,334.9 1,282.0 1,129.9 Increase (decrease) in net assets from operating activities $10.6 $45.2 $18.0 ($19.9) $19.6 Five-Year Enrollment Statistics 2003 2002 2001 2000 1999 Student Fees: Yale College term bill $35,370 $34,030 $32,880 $31,940 $30,830 Freshmen Enrollment: Freshmen applications 15,466 14,809 12,887 13,270 11,947 Freshmen admitted 2009 2,038 2,084 2,135 2,100 Admissions rate 13.0% 13.8% 16.2% 16.1% 17.6% Freshmen enrollment 1,300 1,296 1,352 1,371 1,299 Yield 65.6% 64.7% 66.4% 65.0% 63.0% Total Enrollment: Yale College 5,307 5,270 5,335 5,340 5,411 Graduate and professional schools 5,853 5,762 5,579 5,512 5,455 Front cover: Research associate Irene Kasumba,Postdoctoral fellow Dana Nayduch, and postgraduate associate Youjia Hu are screening bacterial colonies with tsetse DNA fragments in Professor Serap Aksoy’s laboratory at the Department of Epidemiology and Public Health.
    [Show full text]
  • HHS Public Access Author Manuscript
    HHS Public Access Author manuscript Author Manuscript Author ManuscriptStem Cell Author Manuscript Rev. Author manuscript; Author Manuscript available in PMC 2015 December 01. Published in final edited form as: Stem Cell Rev. 2014 December ; 10(6): 772–785. doi:10.1007/s12015-014-9539-7. Short Report: Olfactory Ensheathing Cells Promote Differentiation of Neural Stem Cells and Robust Neurite Extension Rosh Sethi$, Harvard Medical School, 25 Shattuck Street, Boston MA 02115 Roshan Sethi$, Harvard Medical School, 25 Shattuck Street, Boston MA 02115 Andy Redmond, and Precision Spine Care,1814 Roseland Blvd, Suite 200, Tyler, TX, 75701 Erin Lavik Biomedical Engineering, Case Western Reserve University, 10900 Euclid Ave., phone: 216-368-0400 Abstract Aims—The goal of this study was to gain insight into the signaling between olfactory ensheathing cells (OECs) and neural stem cells (NSCs). We sought to understand the impact of OECs on NSC differentiation and neurite extension and to begin to elucidate the factors involved in these interactions to provide new targets for therapeutic interventions. Materials and Methods—We utilized lines of OECs that have been extremely well characterized in vitro and in vivo along with well studied NSCs in gels to determine the impact of the coculture in three dimensions. To further elucidate the signaling, we used conditioned media from the OECs as well as fractioned components on NSCs to determine the molecular weight range of the soluble factors that was most responsible for the NSC behavior. Results—We found that the coculture of NSCs and OECs led to robust NSC differentiation and extremely long neural processes not usually seen with NSCs in three dimensional gels in vitro.
    [Show full text]
  • YALE BME Department of NEWS Biomedical Engineering
    YALE BME Department of NEWS Biomedical Engineering WWW.ENG.YALE.EDU/BME Vol. 1 / No. 2 / Spring and Summer 2008 Yale’s IMAGING Wizards Also in this issue: Vascular Biology and Therapeutics BME Travels in China Yale BME Letter From The Chair Dr. Mark Saltzman, Chair of Yale Biomedical Engineering (credit: Terry Dagradi) It is a great pleasure for me to present you with the second in PET imaging, a teaching award, and election as Fellow in issue of our Yale Biomedical Engineering (BME) newsletter. the American Institute of Medical and Biological Engineer- Many things have happened since our last issue, as you will ing (AIMBE). Erin Lavik received a 2008 Women of Innova- learn as you read the pages that follow. But the spirit of tion Award from the Connecticut Technology Council and inquiry, adventure, and growth that I described to you in Tarek Fahmy received an NSF CAREER Award. Our students the last newsletter remain. I hope that you will read the and postdoctoral associates also won awards this past year: full issue, but I want to highlight some of the most signifi- this issue highlights the achievements of graduate student cant items. Michael Look and postdoc Kim Woodrow. Our cover story describes the Yale Magnetic Resonance Re- Since the last issue, we welcomed a new Dean of Engineer- search Center (MRRC), which is the research home to a ing, Kyle Vanderlick, whose research work in membrane large number of our BME faculty members and students. science intersects substantially with BME. I am delighted The Center has a long and distinguished history, special- to report that, under Kyle’s leadership, there are great izing in creation of new methods for non-invasive imaging things ahead for Engineering at Yale.
    [Show full text]
  • ANNUAL MEETING CO-CHAIRS: to Submit an Abstract Go To
    ANNUAL MEETING CO-CHAIRS: John P. Fisher, University of Maryland - [email protected] James W. Tunnell, The University of Texas at Austin - [email protected] To submit an abstract go to: http://submissions.mirasmart.com/ BMES2018 BIOINFORMATICS, COMPUTATIONAL AND SYSTEMS BIOLOGY BIOMEDICAL IMAGING AND INSTRUMENTATION Track Chair: Jason Papin, University of Virginia - [email protected] Track Chair: Kyle Quinn, University of Arkansas - [email protected] Track Chair: Megan McClean, University of Wisconsin - [email protected] Track Chair: Stanislav (Stas) Emelianov, Georgia Tech - [email protected] • Analysis of Cell Signaling (*Cell & Molecular) • Architecture and Design of Imaging Systems • Analysis of Multi-Cellular Systems • Approaches in Cellular/Molecular Imaging and Tracking • Computational Modeling of Cancer (*Cancer) • Advances in Multimodal and Multiscale Imaging • Computational Modeling of Cell Motility and Proliferation • From Diagnostics to Theranostics and Image-Guided Therapy • Models of Metabolism • Image Processing and Analysis, Modeling, Data Science and Informatics • Novel Methods for Systems Biology • Imaging Contrast Agents, Therapeutic Agents and Theranostic Agents • Omics Data: Methods, Modeling and Analysis • Image Guided Therapies (*Translational) • Single-Cell Measurements and Models (*Cell & Molecular) • Imaging in Cardiovascular Systems (*Cardiovascular) • Stem Cell Systems Biology & Bioinformatics (*Stem Cell) • Imaging in Neuroscience and Brain Initiatives (*Neural Engineering) • Systems Approaches to Therapy,
    [Show full text]
  • Laviklanger.Pdf
    Access to this work was provided by the University of Maryland, Baltimore County (UMBC) ScholarWorks@UMBC digital repository on the Maryland Shared Open Access (MD-SOAR) platform. Please provide feedback Please support the ScholarWorks@UMBC repository by emailing [email protected] and telling us what having access to this work means to you and why it’s important to you. Thank you. Tissue Engineering: Current State and Perspectives Erin Lavik and Robert Langer Erin Lavik, Sc.D. Biomedical Engineering Yale University P.O. Box 208284 New Haven, CT 06520 [email protected] Robert Langer, Sc.D. Chemical Engineering MIT 77 Massachusetts Ave E25-342 Cambridge, MA 02139 [email protected] Abstract Tissue engineering is an interdisciplinary field that involves cell biology, materials science, reactor engineering, and clinical research with the goal of creating new tissues and organs. Significant advances in tissue engineering have been made through improving singular aspects of the approach: materials design, reactor design, or cell source. Increasingly, however, advances are being made by combining several areas to create environments which promote the development of new tissues with properties which more closely match their native counterparts. This approach does not seek to reproduce all the complexities involved in development, but rather, seeks to promote an environment which permits the native capacity of cells to integrate, differentiate, and develop new tissues. Progenitors and stem cells will play a critical role in understanding and developing new engineered tissues as part of this approach. Introduction The number of organs available for transplantation is far exceeded by the number of patients needing such procedures.
    [Show full text]
  • 2019 Mid-Atlantic Biomaterials Day Final Report
    2019 Mid-Atlantic Biomaterials Day Final Report February 23, 2019 University of Maryland Society for Biomaterials Chapter The Johns Hopkins University Society for Biomaterials Chapter University of Maryland A. James Clark Hall, College Park, MD Purpose: The goal of this meeting was to gather individuals from academic institutions and businesses in the biomaterials field from the Mid-Atlantic region and beyond in order to provide a location such that innovation in the field of biomaterials can be shared amongst all attendees. The meeting featured speakers involved with biomaterials work in academia, industry, and biotech entrepreneurship, networking sessions around meals, and a poster viewing session for students’ research. We had multiple 15-minute breaks to also give all attendees the opportunity to talk with each other to spread ideas and knowledge between the different facets of professionals and students involved in biomaterials work. The topics of discussion ranged from research to the regulation and patenting process of the work. Our goal for this event as to inspire and support the next generation of translational biomaterials scientists and engineers to innovate the next game-changing device or technology to benefit patients from debilitating disease. We emphasized that it’s possible to actually benefit patients with technology that is developed at the bench. Sometimes that can be forgotten when working in the lab, so we wanted to drive that point through this meeting. Moveover, we wanted our attendees to realize that being a hardcore researcher isn’t the only way to contribute to this goal. Additionally, we wanted to show our appreciation for all the students and acknowledge their research and contributions to the field of biomaterials.
    [Show full text]
  • Annual Meeting & Exposition
    FINAL PROGRAM ANNUAL MEETING & EXPOSITION BIOMATERIALS RESEARCH: Hitting all the right notes, and avoiding the translational blues APRIL 20-23, 2021 www.biomaterials.org YOUR NAME,OUR REPUTATION DELIVERING CLINICAL UTILITY Our business model is designed to adapt to our client’s specific manufacturing and material development needs. We o er the resources, knowledge, and experience necessary to provide rapid research and development and a smooth transition into commercial production. To find out more about what we can do for you: www.tescoassociates.com QUALITY CLEAN ROOMS Our team puts the quality and • 12 ISO Class 7 Cleanroom Suites integrity of the device first in that are ISO Class 6 capable every stage of development. • Independent suite design to TESco has a stringent and robust facilitate proper line clearance quality management system, certified to ISO 13485:2016 and • The multiple phases of production, registered with FDA 1226183. prototyping and material preparation can be completed simultaneously EXPERIENCE MATERIAL INNOVATION • Stringent BioBurden control • Injection Molding & Extrusion We have a full portfolio of material • Controlled anteroom to allow • Material Selection and Compounding formulations with FDA master the transferring of product from files in place. Our knowledge of one process stage to another • FDA Submission Assistance bioabsorbable/biodurable polymers without leaving the cleanroom • Packaging and Sterilization Support and co-polymers covers a wide range environment • Assembly of molecular weights. APRIL 20-23, 2021 BIOMATERIALS RESEARCH: HITTING ALL THE RIGHT NOTES, AND AVOIDING THE TRANSLATIONAL BLUES YOUR NAME,OUR REPUTATION DELIVERING CLINICAL UTILITY Our business model is designed to adapt to our client’s specific manufacturing and material development needs.
    [Show full text]
  • Maryland Stem Cell Research Commisssion
    MARYLAND Stem Cell Research Fund Annual Report 2019 Contents 2019 Calendar Year Grant Recipients i - ii Calendar Year Completed Grant Projects iii - iv MSCR Commission v Year in Review 1 - 7 Commercialization Grant Awards . 8 - 11 Discovery Research Grant Awards . 12 - 19 Validation Grant Awards . 20 - 21 Post-Doctoral Fellowship Grant Awards . 22 - 26 MSCRF Grants Completed . 27 - 43 i Congratulations to the MSCRF Award Recipients Commercialization Grant Awards: Taby Ahsan, Ph.D. Erin Lavik, Ph.D. Roosterbio, Inc. University of Maryland, Baltimore County Simplified Kit for EV Production in Scalable Systems Vascularized Hydrogel System Modeling Neural Networks in Autism Suitable for High Throughput Screening Luis Alvarez, Ph.D. Theradaptive, Inc. Marta Lipinski, Ph.D. Development of a Biphasic MSC Delivery System for the Repair University of Maryland, Baltimore of Osteochondral Defects Inhibition of the PARK10 gene USP24 As A Neuroprotective Treatment in Parkinson‘s Disease Jamie Niland NeoProgen, Inc. Xiaobo Mao, Ph.D. (FY2020 1st Funding Cycle) Johns Hopkins University Neonatal Cardiac Stem Cells for Heart Tissue Regeneration Resistance of Pathologic alpha-Synuclein in LAG3 Deficient Human Dopaminergic Neurons Brian Pollok, Ph.D. Propagenix, Inc. Nicholas Maragakis, MD (FY2020 1st Funding Cycle) Johns Hopkins University Apical Surface-Outward (ASO) Airway Organoids: A Novel Cell iPSC-spinal Cord Astrocyte/Motor Neuron Co-Culture Platform System for Drug Discovery and Personalized Medicine Investigating Hemichannel-Mediated Toxicity and Neuroprotection in Amyotrophic Lateral Sclerosis Amir Saberi, Ph.D. Domicell, Inc. Jamie Spangler, Ph.D. Application of Mesenchymal Stem Cell Spheroids in an Implantable Johns Hopkins University Bioreactors An Engineered Orthogonal Growth Factor for Targeted Stimulation of Bone Repair Ines Silva, Ph.D.
    [Show full text]
  • Yale Medicine Magazine
    yale medicine An anatomist’s Firing up Yale’s An mit professor’s autumn 2007 spinal surgery transplant program influence at Yale 6 18 22 Taking the e-road Young doctors are seeking a lifestyle as well as a calling. 28 yale medicine autumn 2007 CONTENTS on the cover 2 This Just In Ophthalmologist Hylton Mayer 4 Chronicle chose his specialty in part so he 8 Rounds could spend more time with his wife and 2-year-old daughter, Mia. 10 Findings Like many young doctors, Mayer 12 Books & Ideas believes it’s important to have 16 Capsule interests outside of medicine. Photographs by Julie Brown 18 Putting the fire back into Yale’s transplant program “If you use your brain, your sweat and your heart,” says liver surgeon Sukru Emre, “there is no way that you are going to be failing.” By Colleen Shaddox 22 The gospel according to Langer Three Yale faculty members learned bioengineering by working alongside a legendary mit professor who believes in thinking big. By Pat McCaffrey 28 Taking the e-road A recent Yale graduate reflects on the desire of younger doctors for a fulfilling life outside of medicine. By Jennifer Blair, m.d. ’04 35 Faculty 38 Students 46 Alumni 62 In Memoriam 64 Follow-Up 64 Archives 65 End Note On the Web yalemedicine.yale.edu On our website, readers can submit class notes or a change of address, check the alumni events calendar, arrange for a lifelong Yale e-mail alias through the virtual Yale Station and search our electronic archive.
    [Show full text]
  • Nihms-138922.Pdf
    This is the peer reviewed version of the following article: Millicent Ford Rauch Sara Royce Hyneset al., Engineering angiogenesis following spinal cord injury: a coculture of neural progenitor and endothelial cells in a degradable polymer implant leads to an increase in vessel density and formation of the blood–spinal cord barrier, Eur J Neurosci. 2009 January ; 29(1): 132–145. doi:10.1111/j.1460-9568.2008.06567.x, which has been published in final form at https://doi.org/10.1111/j.1460-9568.2008.06567.x. This article may be used for non-commercial purposes in accordance with Wiley Terms and Conditions for Use of Self-Archived Versions. Access to this work was provided by the University of Maryland, Baltimore County (UMBC) ScholarWorks@UMBC digital repository on the Maryland Shared Open Access (MD-SOAR) platform. Please provide feedback Please support the ScholarWorks@UMBC repository by emailing [email protected] and telling us what having access to this work means to you and why it’s important to you. Thank you. NIH Public Access Author Manuscript Eur J Neurosci. Author manuscript; available in PMC 2010 January 1. NIH-PA Author ManuscriptPublished NIH-PA Author Manuscript in final edited NIH-PA Author Manuscript form as: Eur J Neurosci. 2009 January ; 29(1): 132±145. doi:10.1111/j.1460-9568.2008.06567.x. Engineering angiogenesis following spinal cord injury: A coculture of neural progenitor and endothelial cells in a degradable polymer implant leads to an increase in vessel density and formation of the blood-spinal cord barrier Millicent Ford Raucha, Sara Royce Hynesa, James Bertrama, Andrew Redmonda, Rebecca Robinsona, Cicely Williamsa, Hao Xua, Joseph A.
    [Show full text]