Directions to MIT Lincoln Laboratory E Receiving Dock Hours of Operation: Monday Through Friday, 8:00AM - 4:00PM

Total Page：16

File Type：pdf, Size：1020Kb

Directions to MIT Lincoln Laboratory E Receiving Dock Hours of Operation: Monday Through Friday, 8:00AM - 4:00PM

MASSACHUSETTS INSTITUTE OF TECHNOLOGY LINCOLN LABORATORY 244 WOOD STREET LEXINGTON, MASSACHUSETTS 02421-6426 Directions to MIT Lincoln Laboratory E Receiving Dock Hours of operation: Monday through Friday, 8:00AM - 4:00PM From I-95/Rte. 128, take Exit 30B, Route 2A West Hanscom Field exit. Follow Route 2A West for 1.5 miles to a blinking yellow light. Turn right and go ¼ of a mile, then bear right and you will come to the Sartain Gate (formerly Vandenberg Gate). You are entering a US Air Force Base. All commercial vehicles must follow the guidelines listed below: Commercial vehicle access is allowed Monday through Friday only, from 6:00AM to 5:30PM. Commercial vehicle access and deliveries are not allowed on weekends. If the commercial vehicle is larger than a passenger van and/or towing a trailer, it must proceed to the Commercial Vehicle Search Area located at the Sartain Gate to be searched. Search area hours are Monday through Friday only, from 6:00AM to 5:30PM. The Air Force guards will inspect your papers and your vehicle. You will need a valid driver’s license and proof of insurance for your vehicle. If you are making a delivery to MIT Lincoln Laboratory, you must have a computer generated bill of lading. Bills of lading or invoices must have a “deliver on” date that matches the date the vehicle is at the gate, or a “deliver by date” in the near future, or the vehicle will not be allowed to enter the Base. After you are cleared by the Air Force: Go straight until you come to a fork in the road. There will be a WW2 plane on a pedestal to your left. Take a left onto Marrett Street. Go to the set of lights. There will be a jet plane on a pedestal directly across from you. Take a right at the lights onto Barksdale Street. You will come to another set of lights. Go straight through those lights. Then take the second right onto Bestic Drive. You will be going down a small incline. Take the first left onto Schilling Circle. Go about ¼ of a mile until you see a red and white sign saying Building E Receiving. Turn right into MIT Lincoln Laboratory’s E Receiving Dock. For assistance: Receiving: 781-981-2209 Shipping: 781-981-7153 Shipping and Receiving Supervisor: 781-981-2207 or 339-223-1916 .

Copy Link

Recommended publications

Advanced Imaging Technology
MICROELECTRONICS LABORATORY SPOTLIGHT ON Advanced Imaging Technology KEY FEATURES • World’s lowest readout noise, Digital focal plane array. highest quantum efficiency CCD imagers MIT Lincoln Laboratory has long been a leader • Geiger-mode (GM) APDs with in advanced imaging for defense and scientific single-photon sensitivity and applications. Our imaging capabilities are broadly noiseless digital readout classified into three categories: charge-coupled • DFPAs containing a complete devices (CCDs), avalanche photodiodes (APDs), analog-to-digital converter in every pixel, enabling image and digital focal plane array (DFPA) technology. processing on the focal plane Technology in Support of National Security www.ll.mit.edu SPOTLIGHT ON Advanced Imaging Technology Charge-Coupled Devices Our CCDs are used in ground, air, and spaced-based applications of interest to the government and scientific research community. These CCDs span a range of wavelengths including visible, near infrared, ultraviolet, and soft X-ray. Among imagers employing our CCDs are the two 1.4-billion- pixel Panoramic Survey Telescope and Rapid Response System’s (Pan-STARRS) focal plane arrays, the largest focal planes fabricated to date, and the Space Surveillance Telescope’s curved focal planes that provide a uniform and wide field of view. Optical micrograph of back-illuminated CCD wafer. Geiger-Mode Avalanche Photodiodes For passive imaging, the noiseless readout of our GM-APDs enables photon counting, providing both the requisite sensitivity for low-light applications and photon count rates for high-speed imaging. APDs are also employed in active ladar systems to time-stamp photon arrival times, enabling 3D imaging in compact airborne systems. We also fabricate APD arrays on compound semiconductor materials, expanding these capabilities further into the infrared.
[Show full text]
Classmate Biographies
CLASSMATE BIOGRAPHIES 38 David Jeffrey Abeshouse Course: VIII Tell us about your recollections of your student years at MIT: I lived in Student House, which is essentially on the B.U. campus. If I recall correctly, it was a mile walk to MIT. That walk, in all kinds of weather, is one of my strongest, if not favorable, memories of my years there. Unless something unusual happened, I made the round trip just once a day. Student House is near Kenmore Square and Fenway Park. The gates to Fenway would open in the sixth inning then, and there were mostly afternoon games, so we would go up to the park occasionally to see, for free, the last three innings. We saw Ted Williams regularly. Student House was also next to the Charles, and it was fun to go down near the river in pleasant weather. I struggled to survive academically, but I did it. I don't remember the name of the professor who lectured our freshman chemistry course, but he spoke in a monotone, and I fell asleep practically every time. I finally went to a different lecture section. I have a poor sense of direction and was regularly lost around the campus and often rushing to get to class. Once in my sophomore year I was rushing and rounded a corner and almost flattened Norbert Wiener. He had a large abdomen, and, from my point of view, the collision was soft. The work on my senior paper was done in building 20. That was a fine place to spend a lot of time.
[Show full text]
MIT Lincoln Laboratory Division and Group Descriptions
MIT Lincoln Laboratory Division and Group Descriptions October 2012 AIR AND MISSILE DEFENSE TECHNOLOGY DIVISION 3 The Air and Missile Defense Technology Division’s role is to work with government, industry, and laboratories to develop an integrated air and missile defense system. The division’s main focus is investigating system concepts, developing technology, building prototypes, and conducting measurements to support the development of radar and optical sensors, interceptors, and networks for air and missile defense systems. A strong emphasis is placed on partnerships and the transfer of technology to industry. Group 31—Systems and Architectures The Systems and Architectures Group examines near- and long-term technology opportunities for charting the future development of U.S. air and missile defenses. As the country proceeds with the deployment of new missile defense systems, Lincoln Laboratory and this group are working on the next generation of architectures and technologies. The group investigates advanced radar concepts, new infrared sensors, missile designs, space-based platforms, and future distributed command-and-control software to help identify opportunities to develop, test, and deploy these technologies. The group also devotes considerable effort to investigating the impact of various countermeasures on U.S. air and missile defense systems, particularly with respect to various types of electronic warfare. Staff members in the group have a wide variety of backgrounds, including physics, electrical engineering, mathematics, and astrodynamics. Group 33—Advanced Sensor Systems and Test Beds The Advanced Sensor Systems and Test Beds Group supports the Department of Defense by designing and developing modern sensor systems and components to support airborne air defense radars as well as the ballistic missile defense system.
[Show full text]
2-Page-Tree-Saving Format
M P Corp. SS&C Conf. .O. Box 8236 Box .O. onterey, CA 93943 CA onterey, FORTY-SIXTH ASILOMAR CONFERENCE ON SIGNALS, SYSTEMS AND COMPUTERS November 4–7, 2012 Asilomar Hotel and Conference Grounds Technical Co-sponsor FORTY-SIXTH Welcome from the General Chairman ASILOMAR CONFERENCE ON Prof. Miloš Doroslovački SIGNALS, SYstEMS & COMPUTERS The George Washington University Welcome to this unique conference. Many of us come here from year to year to be exposed to new ideas and to do brainstorming Organized in cooperation with about them in an informal and relaxed way, surrounded by magnificent nature. To cite John Steinbeck, Nobel Prize laureate in literature and local to this part of California: “Ideas are like ATK SPACE SYstEMS rabbits. You get a couple and learn how to handle them, and pretty Monterey, California soon you have a dozen.” I am sure that the conference will be stimulating for your future professional endeavors. and Technical Co-sponsor The biggest credit for the intellectual value of the conference goes to the Technical Program Chair Erik G. Larsson and his team, made of Technical Area Chairs and Session Chairs, as well as to IEEE SIGNAL PROCESSING SOCIETY all of you who contributed with papers. Erik and his team prepared an excellent program of 435 papers, including 171 invited, and a tutorial session. For their outstanding work in shaping the technical program, I would like to thank Erik and the Technical Area Chairs: Henk Wymeersch, Gerald Matz, Vincent Poor, Erchin Serpedin, Marius Pesavento, Arye Nehorai, Joseph Cavallaro, Ghassan CONFERENCE COMMITTEE AlRegib and Phil Schniter.
[Show full text]
2016 Annual Report (Pdf)
MIT LINCOLN LABORATORY LINCOLN MIT Follow MIT Lincoln Laboratory online. Facebook: MIT Lincoln Laboratory LinkedIn: http://www.linkedin.com/company/ mit-lincoln-laboratory Twitter: @MITLL YouTube: MIT Lincoln Laboratory Instagram: https://www.instagram.com/ lincoln_laboratory/ 2016 Annual2016 Report MIT Lincoln Laboratory 2016 ANNUAL REPORT www.ll.mit.edu Communications and Community Outreach Office: 781.981.4204 Approved for public release: distribution unlimited. This material is based upon work supported under Air Force Contract No. FA8721-05-C-0002 and/or FA8702-15-D-0001. Any opinions, findings, conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the U.S. Air Force. TECHNOLOGY IN SUPPORT OF NATIONAL SECURITY © 2016 Massachusetts Institute of Technology TECHNOLOGY IN SUPPORT OF NATIONAL SECURITY Massachusetts Institute of Technology Lincoln Space Surveillance Complex, Westford, Massachusetts MIT Lincoln Laboratory Reagan Test Site, Kwajalein Atoll, Marshall Islands MIT LINCOLN LABORATORY 2016 Table of Contents MISSION 2 Leadership Technology in Support 3 Organizational Changes of National Security 4 Letter from the Director 5 Vision, Values, and Strategic Directions MIT Lincoln Laboratory employs some of the nation’s best technical talent to support system and 7 Technology Innovation technology development for national security needs. 8 Swarm of Miniature Aircraft Autonomously Maintains Flight Formation Principal core competencies are sensors, infor- 10 Technology Investments mation extraction (signal processing and embedded 16 Achieving a Near-Ideal Laser Beam computing), communications, integrated sensing, and 18 Localizing Ground-Penetrating Radar decision support. Nearly all of the Lincoln Laboratory 20 Discovering the Vast Asteroid Population efforts are housed at its campus on Hanscom Air 22 Technology Transfer Force Base in Massachusetts.
[Show full text]
High Performance Embedded Computing Workshop 22–25 September 2003 (22 September - U.S
Seventh Annual High Performance Embedded Computing Workshop 22–25 September 2003 (22 September - U.S. Only Session) Presenter's Package http://www.ll.mit.edu/hpec LINCOLN LABORATORY Massachusetts Institute of Technology 402391_M_1.ai Presentation Guidelines The workshop sponsors and participants appreciate clear and legible presentations. In addition, the presentations themselves will constitute the published proceedings. Therefore, presenters are required to submit charts of the highest quality. Toward the goal of consistent quality and legibility, we ask that presenters adhere to the following guidelines when preparing their viewgraphs and posters. VIEWGRAPHS AND POSTERS Typeface • Set regular text using a bold 18-point font. A bold sans serif font such as Helvetica is preferred for its readability in a large auditorium. • Other sized fonts may be used as necessary, such as bold 24-point for titles, bold 16-point for sub-points, etc. However, do not use a font size smaller than 14-point, and always use bold fonts. Format • Visually center all viewgraphs within a 9" by 7" area, with at least a 1/4- inch margin inside the frame. • Orient the viewgraphs horizontally (landscape). • Limit your viewgraphs to 10 lines of text. Wider comprehension is aided by succinct visuals. Posters • Total poster area: 4' tall by 6' wide. This space will be arranged as two 4' x 3' felt-covered boards placed side by side. • Total available area: 3' 6" tall by 6' wide. The title banner will consume the top six inches of the poster area. Lincoln Laboratory will be providing a title banner with the poster title, name(s) of the author(s), and the author affiliation(s).
[Show full text]
MIT Briefing Book 2015 April Edition
MIT Briefing Book 2015 April edition Massachusetts Institute of Technology MIT Briefing Book © 2015, Massachusetts Institute of Technology April 2015 Cover images: Christopher Harting Massachusetts Institute of Technology 77 Massachusetts Avenue Cambridge, Massachusetts 02139-4307 Telephone Number 617.253.1000 TTY 617.258.9344 Website http://web.mit.edu/ The Briefing Book is researched and written by a variety of MIT faculty and staff, in particular the members of the Office of the Provost’s Institutional Research group, Industrial Liaison Program, Student Financial Services, and the MIT Washington Office. Executive Editors Maria T. Zuber, Vice President for Research [email protected] William B. Bonvillian, Director, MIT Washington Office [email protected] Editors Shirley Wong [email protected] Lydia Snover, to whom all questions should be directed [email protected] 2 MIT Briefing Book MIT Senior Leadership President Vice President for Finance L. Rafael Reif Glen Shor Chairman of the Corporation Director, Lincoln Laboratory Robert B. Millard Eric D. Evans Provost Dean, School of Architecture and Planning Martin A. Schmidt Hashim Sarkis Chancellor Dean, School of Engineering Cynthia Barnhart Ian A. Waitz Executive Vice President and Treasurer Dean, School of Humanities, Arts, and Social Sciences Israel Ruiz Deborah K. Fitzgerald Vice President for Research Dean, School of Science Maria T. Zuber Michael Sipser Vice President Dean, Sloan School of Management Claude R. Canizares David C. Schmittlein Vice President and General Counsel Associate Provost Mark DiVincenzo Karen Gleason Chancellor for Academic Advancement Associate Provost W. Eric L. Grimson Philip S. Khoury Vice President Director of Libraries Kirk D. Kolenbrander Chris Bourg Vice President for Communications Institute Community and Equity Officer Nathaniel W.
[Show full text]
Lincoln Laboratory
Lincoln Laboratory Lincoln Laboratory, a federally funded research and development center (FFRDC) operated by the Massachusetts Institute of Technology, is also designated a Department of Defense (DoD) Research and Development Laboratory. Operating under a prime contract with the Department of the Air Force, Lincoln Laboratory conducts research and development pertinent to national security on behalf of the military services, the Office of the Secretary of Defense, the intelligence community, and other government agencies. Lincoln Laboratory’s mission is to advance system and technology development in support of national security. The majority of the research and development carried out at the Laboratory is in the core areas of sensors, information extraction (signal processing and embedded computing), integrated sensing, decision support, and communications—all supported by a broad research base in advanced electronics. Projects focus on developing and prototyping new technologies and capabilities that the government cannot acquire through in-house or private-sector resources. For the 2009 federal fiscal year, Lincoln Laboratory is projected to receive approximately $741 million that will support the efforts of approximately 1,400 professional technical staff, 300 technical support personnel, and 960 support personnel; outside procurement will exceed $360 million. While most of the research is sponsored by the DoD, funding is also received from the Federal Aviation Administration (FAA), the National Aeronautics and Space Administration, and the National Oceanographic and Atmospheric Administration. In addition, Lincoln Laboratory carries out noncompetitive research with industry under approved Cooperative Research and Development Agreements and other collaborative activities with academic institutions. On April 1, 2005, the Department of Defense awarded a five-year reimbursement contract with a five-year option to MIT for the operation and management of Lincoln Laboratory as an FFRDC.
[Show full text]
History of Lincoln Laboratory's Bioengineering Research
History of Lincoln Laboratory’s Bioengineering Research Edward C. Wack and Jeffrey S. Palmer Lincoln Laboratory researchers began applying Since 1951, MIT Lincoln Laboratory has their considerable expertise in systems » remained at the forefront of technology development in support of national security. analysis, sensors, and signal processing to From the first integrated air defense system, chemical and biological defense applications the Semi-Automatic Ground Environment [1], that as early as 1995. This expertise, plus newer required advances in radars, communications, computing, and information theory to recent pioneering work in capabilities in synthetic biology and brain and satellite optical communications [2], Lincoln Laboratory cognitive sciences, has since been directed to has developed cutting-edge scientific and technological include research into biotechnological solutions capabilities and applied them to solve pressing national for identifying and remediating physiological, security problems. As power generation and mechanization in the neurological, and cognitive problems impacting 19th century, and microelectronics technology and the health and performance of U.S. warfighters, communications in the 20th century, created a host veterans, and civilians. of new opportunities and challenges, the life sciences are poised to do the same in the 21st century [3]. The ability to read and write the fundamental code of life, the DNA letters of the genome, continues to increase exponentially. Understanding of the brain—its struc- ture and function, injuries, and disease states—and the way this biological organ gives rise to the mind is accel- erating each year. As scientists better understand the inner workings of life at all scales, they are able to cure diseases and repair injuries, and maintain optimal health and performance via the application of new technology.
[Show full text]
Radar Development at Lincoln Laboratory: an Overview of the First Fifty Years Radar Development at Lincoln Laboratory: an Overview of the First Fifty Years
• DELANEY AND WARD Radar Development at Lincoln Laboratory: An Overview of the First Fifty Years Radar Development at Lincoln Laboratory: An Overview of the First Fifty Years William P. Delaney and William W. Ward I This article provides an overview of the first fifty years of radar development at Lincoln Laboratory. It begins by reviewing early Laboratory efforts in North American air defense, which quickly branched into efforts in missile defense and space surveillance as the Soviet Union developed missiles and launched satellites into space. In the 1970s, two other radar-intensive activities began at the Laboratory: a program in tactical surveillance arose out of the challenges of the Vietnam War, and a program in air traffic control responded to the need to modernize systems for control of civilian aircraft. Research in advanced air defense also returned to the Laboratory with the advent of the modern cruise missile. This article summarizes these major Laboratory radar programs in a synoptic fashion, which can serve the reader as a road map to the ensuing fourteen articles, each of which provides a more in-depth view of the Laboratory’s radar developments. - Laboratory directly involve radar development, tech- ogy has been involved in radar development nology, or experimentation. Tsince 1940, when the security challenges of World War II inspired the development of working Fifty Years of Radar Development military radars based on ideas and crude experiments The cartoon “tree” of Figure 1 is a simple graphic way of earlier decades. The MIT Radiation Laboratory to convey a macroscopic view of radar developments was a focal point for much of the Allied development at Lincoln Laboratory.
[Show full text]
The Case for Cap-And- Trade
Volume 53, Number 9 TechTalk Wednesday, November 19, 2008 S ERVING THE MIT CO mm UNI T Y The case for cap-and- trade MIT analysis shows how plans can cut greenhouse emissions Researchers at MIT’s Center for Energy and Environmental Policy Research have produced a report concern- ing key design issues of proposed “cap- and-trade” programs that are under consideration in the United States as a way of curbing greenhouse gas emissions. The first contribution of the three-part study found that, based on an examination PHOTO / DONNA COVENEY of the European Union’s system and of similar U.S. programs for other emissions, Herman addresses Diversity Leadership Congress such a program Former Secretary of Labor Alexis Herman delivers the keynote address Nov. 18 at the Diversity Leadership Congress, which can indeed be effective in aimed to promote a culture of diversity at MIT by bringing together academic, administrative and student leaders. For more MIT helped coverage of the congress, please visit the MIT News Office web site at http://web.mit.edu/newsoffice/. organize a reducing emis- sions without conference this having a signifi- week that is cant economic looking at ways impact. “The Euro- Equipping cells with tiny ‘backpacks’ of controlling pean experience and reducing confirms much greenhouse of what has Polymer patches could ferry been learned gases. from similar drugs, assist in cancer diagnosis Read more U.S. systems for on page 8. other emissions, Anne Trafton namely, that News Office cap-and-trade systems can be MIT engineers have outfitted cells with tiny “back- constructed, that markets emerge to facili- packs” that could allow them to deliver chemotherapy tate trading, that emissions are reduced agents, diagnose tumors or become building blocks for efficiently, and that the effects on affected tissue engineering.
[Show full text]
Artificial Intelligence: Short History, Present Developments, and Future Outlook Final Report
Preface Artificial Intelligence: Short History, Present Developments, and Future Outlook Final Report January 2019 Study Committee Dave Martinez, Co-Lead Andre King Nick Malyska,Co-Lead Rich Lippmann Bill Streilein,Co-Lead Benjamin Miller Rajmonda Caceres Doug Reynolds William Campbell Fred Richardson Charlie Dagli Cem Sahin Vijay Gadepally An Tran Kara Greenfield Pierre Trepagnier Robert Hall Joe Zipkin MIT LL Review Team Christopher Roeser, Lead Sanjeev Mohindra Konstantinos Hennighausen Jason Thornton DISTRIBUTION STATEMENT A. Approved for public release. Distribution is unlimited. This material is based upon work supported by the United States Air Force under Air Force Contract No. FA8702- 15-D-0001. Any opinions, findings, conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the United States Air Force. © 2019 Massachusetts Institute of Technology. Delivered to the U.S. Government with Unlimited Rights, as defined in DFARS Part 252.227-7013 or 7014 (Feb 2014). Notwithstanding any copyright notice, U.S. Government rights in this work are defined by DFARS 252.227- 7013 or DFARS 252.227-7014 as detailed above. Use of this work other than as specifically authorized by the U.S. Government may violate any copyrights that exist in this work. 1 Preface Preface The Director’s Office at MIT Lincoln Laboratory (MIT LL) requested a comprehensive study on artificial intelligence (AI) focusing on present applications and future science and technology (S&T) opportunities in the Cyber Security and Information Sciences Division (Division 5). This report elaborates on the main results from the study.
[Show full text]