Associate Operations Engineer/Commercial Payload Operator
Total Page:16
File Type:pdf, Size:1020Kb

Load more
Recommended publications
-
Spacex Launch Manifest - a List of Upcoming Missions 25 Spacex Facilities 27 Dragon Overview 29 Falcon 9 Overview 31 45Th Space Wing Fact Sheet
COTS 2 Mission Press Kit SpaceX/NASA Launch and Mission to Space Station CONTENTS 3 Mission Highlights 4 Mission Overview 6 Dragon Recovery Operations 7 Mission Objectives 9 Mission Timeline 11 Dragon Cargo Manifest 13 NASA Slides – Mission Profile, Rendezvous, Maneuvers, Re-Entry and Recovery 15 Overview of the International Space Station 17 Overview of NASA’s COTS Program 19 SpaceX Company Overview 21 SpaceX Leadership – Musk & Shotwell Bios 23 SpaceX Launch Manifest - A list of upcoming missions 25 SpaceX Facilities 27 Dragon Overview 29 Falcon 9 Overview 31 45th Space Wing Fact Sheet HIGH-RESOLUTION PHOTOS AND VIDEO SpaceX will post photos and video throughout the mission. High-Resolution photographs can be downloaded from: http://spacexlaunch.zenfolio.com Broadcast quality video can be downloaded from: https://vimeo.com/spacexlaunch/videos MORE RESOURCES ON THE WEB Mission updates will be posted to: For NASA coverage, visit: www.SpaceX.com http://www.nasa.gov/spacex www.twitter.com/elonmusk http://www.nasa.gov/nasatv www.twitter.com/spacex http://www.nasa.gov/station www.facebook.com/spacex www.youtube.com/spacex 1 WEBCAST INFORMATION The launch will be webcast live, with commentary from SpaceX corporate headquarters in Hawthorne, CA, at www.spacex.com. The webcast will begin approximately 40 minutes before launch. SpaceX hosts will provide information specific to the flight, an overview of the Falcon 9 rocket and Dragon spacecraft, and commentary on the launch and flight sequences. It will end when the Dragon spacecraft separates -
SPEAKERS TRANSPORTATION CONFERENCE FAA COMMERCIAL SPACE 15TH ANNUAL John R
15TH ANNUAL FAA COMMERCIAL SPACE TRANSPORTATION CONFERENCE SPEAKERS COMMERCIAL SPACE TRANSPORTATION http://www.faa.gov/go/ast 15-16 FEBRUARY 2012 HQ-12-0163.INDD John R. Allen Christine Anderson Dr. John R. Allen serves as the Program Executive for Crew Health Christine Anderson is the Executive Director of the New Mexico and Safety at NASA Headquarters, Washington DC, where he Spaceport Authority. She is responsible for the development oversees the space medicine activities conducted at the Johnson and operation of the first purpose-built commercial spaceport-- Space Center, Houston, Texas. Dr. Allen received a B.A. in Speech Spaceport America. She is a recently retired Air Force civilian Communication from the University of Maryland (1975), a M.A. with 30 years service. She was a member of the Senior Executive in Audiology/Speech Pathology from The Catholic University Service, the civilian equivalent of the military rank of General of America (1977), and a Ph.D. in Audiology and Bioacoustics officer. Anderson was the founding Director of the Space from Baylor College of Medicine (1996). Upon completion of Vehicles Directorate at the Air Force Research Laboratory, Kirtland his Master’s degree, he worked for the Easter Seals Treatment Air Force Base, New Mexico. She also served as the Director Center in Rockville, Maryland as an audiologist and speech- of the Space Technology Directorate at the Air Force Phillips language pathologist and received certification in both areas. Laboratory at Kirtland, and as the Director of the Military Satellite He joined the US Air Force in 1980, serving as Chief, Audiology Communications Joint Program Office at the Air Force Space at Andrews AFB, Maryland, and at the Wiesbaden Medical and Missile Systems Center in Los Angeles where she directed Center, Germany, and as Chief, Otolaryngology Services at the the development, acquisition and execution of a $50 billion Aeromedical Consultation Service, Brooks AFB, Texas, where portfolio. -
Nanoracks External Platform (NREP) Interface Definition Document (IDD)
NanoRacks External Platform (NREP) Interface Definition Document (IDD) Doc No: NR-NREP-S0001 Revision: B © Copyright NanoRacks, LLC 2016. All Rights Reserved. NanoRacks External Platform IDD NREP Doc No: NR-NREP-S0001 Rev: B NanoRacks External Platform (NREP) IDD NREP Prepared by Steven Stenzel; Systems Engineer; Date Reviewed by Mark Rowley; Mechanical Design; Date Reviewed by Keith Tran; Operations Manager; Date Reviewed by Troy Guy; Avionics Manager; Date Reviewed by Bob Alexander; Safety; Date Reviewed by Susan Lufkin; Systems Engineer; Date Reviewed by Kirk Woellert; Payload Coordinator; Date Approved by Mike Lewis; Chief Technology Officer; Date NanoRacks External Platform IDD NREP Doc No: NR-NREP-S0001 Rev: B List of Revisions Revision Revision Date Revised By Revision Description - 3/16/2016 Steve Stenzel Initial Release A 4/20/2016 Steve Stenzel Update logo on cover page B 11/14/2016 C. Cummins Replace Proprietary Statement with a Copyright statement. NanoRacks External Platform IDD NREP Doc No: NR-NREP-S0001 Rev: B Table of Contents 1 Introduction 1 1.1 Purpose 1 1.2 Scope 1 1.3 Use 1 1.4 Exceptions 1 2 Acronyms, Definitions and Applicable Documents 2 3 NanoRacks NREP Overview 4 3.1 NREP Physical Descriptions 4 3.1.1 NREP-P Baseplate 4 3.1.2 NanoRacks External Plate - Payload 5 3.1.3 NREP Coordinate System 5 3.1.4 NREP General Dimensions 6 3.1.5 NREP Payload Configurations 6 3.1.6 NREP Baseplate Location Numbering System 7 3.2 NREP Operations Overview 10 3.2.1 Schedule 10 3.2.2 Ground Operations 11 3.2.2.1 Delivery to NanoRacks -
Spacex CRS-4 National Aeronautics and Fourth Commercial Resupply Services Flight Space Administration
SpaceX CRS-4 National Aeronautics and Fourth Commercial Resupply Services Flight Space Administration to the International Space Station September 2014 OVERVIEW The Dragon spacecraft will be filled with more than 5,000 pounds of supplies and payloads, including critical materials to support 255 science and research investigations that will occur during Expeditions 41 and 42. Dragon will carry three powered cargo payloads in its pressurized section and two in its unpressurized trunk. Science payloads will enable model organism research using rodents, fruit flies and plants. A special science payload is the ISS-Rapid Scatterometer to monitor ocean surface wind speed and direction. Several new technology demonstrations aboard will enable bone density studies, test how a small satellite moves and positions itself in space using new thruster technology, and use the first 3-D printer in space for additive manufacturing. The mission also delivers IMAX cameras for filming during four increments and replacement batteries for the spacesuits. After four weeks at the space station, the spacecraft will return with about 3,800 pounds of cargo, including crew supplies, hardware and computer resources, science experiments, space station hardware, and four powered payloads. DRAGON CARGO LAUNCH ITEMS RETURN ITEMS TOTAL CARGO: 4885 lbs / 2216 kg 3276 lbs / 1486 kg · Crew Supplies 1380 lbs / 626 kg 132 lbs / 60 kg Crew care packages Crew provisions Food · Vehicle Hardware 403 lbs / 183 kg 937 lbs / 425 kg Crew Health Care System hardware Environment Control & Life Support equipment Electrical Power System hardware Extravehicular Robotics equipment Flight Crew Equipment Japan Aerospace Exploration Agency equipment · Science Investigations 1644 lbs / 746 kg 2075 lbs / 941 kg U.S. -
Mission Overview
CRS Orb-1 Mission Mission Overview Overview Under the Commercial Resupply Services (CRS) contract with NASA, Orbital will provide approximately 20 metric tons of cargo to the International Space Station over the course of eight missions. Orb-1 is the first of those missions. The Orb-1 mission builds on the successful Commercial Orbital Transportation Services (COTS) demonstration mission conducted from September 18 to October 23, 2013. The Orb-1 flight will carry substantially more cargo (1465 kg vs. 700 kg) than the COTS mission, including several time-sensitive payloads and Cygnus’ first powered payload, the Commercial Generic Bioprocessing Apparatus (CGBA) from Bioserve. Mission Overview, Cont. Antares® The configuration of the Antares launch vehicle for the Orb-1 Mission is much the same as the two previous Antares flights with a CASTOR 30B second stage motor instead of the CASTOR 30 used previously. The first stage includes a core that contains the tanks for the liquid oxygen and kerosene, the first stage avionics, and two AJ26 rocket engines. The second stage consists of the CASTOR® 30B solid rocket motor, an avionics section containing the flight computer and guidance/ navigation/control functions, an interstage that connects the solid rocket motor to the first stage, the Cygnus spacecraft, and a fairing that encloses and protects the Cygnus spacecraft during ascent. Continued on Next Page Mission Overview, Cont. Cygnus™ The Cygnus spacecraft is composed of two elements, the Service Module (SM) and the Pressurized Cargo Module (PCM). The SM provides the propulsion, power, guidance, navigation and control, and other “housekeeping” services for the duration of the mission. -
NANORACKS, LLC 555 Forge River Rd., Suite 120 Webster, TX 77598 4369 Phone: 832-632-7754 Fax: 832-575-4767
NANORACKS, LLC 555 Forge River Rd., Suite 120 Webster, TX 77598 4369 Phone: 832-632-7754 Fax: 832-575-4767 www.nanoracks.com Contract Administrator: Christopher Cummins Email Address: [email protected] Business Size: Small For more information on ordering from Federal Supply Schedules click on the FSS Schedules button at fss.gsa.gov. TABLE OF CONTENTS COMPANY OVERVIEW ...............................................................................................................3 CUSTOMER INFORMATION .......................................................................................................5 GSA PRICELIST .............................................................................................................................8 SERVICE DESCRIPTIONS ..........................................................................................................13 NanoRacks, LLC 47QRAA18D004R 2 About NanoRacks NanoRacks was founded on the vision of building a business ecosystem in space. Our company has been integrating customer payloads for the International Space Station since our first launch in 2010. As of February 2018, we have integrated and operated over 600 payloads on 32 launches to the Space Station, including Shuttle, Antares/Cygnus, Atlas V/Cygnus, Falcon/Dragon, HTV, ATV, and Soyuz. To date, we have also deployed over 200 satellites into low-Earth orbit. NanoRacks comes with a team that has real hands on experience with payloads ranging from professional grade research to DOD to high school experiments. NanoRacks -
Nanoracks Completes First Mission on India's Polar Satellite Launch
NanoRacks Completes First Mission on India’s Polar Satellite Launch Vehicle, Launches Spire’s 100th Satellite NanoRacks, the world’s leading commercial space station company, completed its first CubeSat deployment mission on India Space Research Organization’s (ISROs) Polar Satellite Launch Vehicle (PSLV). This mission was brokered on behalf of Spire, which now has four more of their LEMUR 3U CubeSats in orbit. Notably, this mission included the launch of Spire’s 100th Lemur satellite. “Congratulations to Spire on this incredible achievement,” says NanoRacks Payloads Director, Conor Brown. “Spire has been with us from the beginning, not just as a customer but as a partner, working alongside us to pioneer new capabilities across platforms on the Space Station, Cygnus, and now finally on the PSLV. Spire’s diversified launch approach and willingness to embrace new technologies continues to foster the marketplace and we couldn’t be more excited to have deployed the 100th satellite!” NanoRacks announced sun synchronous polar orbit launch opportunities after receiving significant customer demand and strong feedback for the customer support that the Company offers. Polar orbit offerings come in addition to NanoRacks’ proven success in small satellite deployments, having deployed over 230 satellites to date. Spire’s CubeSats offer data and analytics for parts of the world where collecting data is notoriously difficult, tracking ships, planes, and weather in remote regions which often go unmonitored. To date, of the 100 satellites Spire has launched, 37 were on NanoRacks missions from the Space Station, the Cygnus Spacecraft, and now PSLV. “Spire is excited to share this milestone with NanoRacks,” says Jenny Barna, Spire’s Director of Launch. -
Cubesat-Services.Pdf
Space• Space Station Station Cubesat CubesatDeployment Services Deployment Services NanoRacks Cubesat Deployer (NRCSD) • 51.6 degree inclination, 385-400 KM • Orbit lifetime 8-12 months • Deployment typically 1-3 months after berthing • Soft stowage internal ride several times per year Photo credit: NASA NRCSD • Each NRCSD can deploy up to 6U of CubeSats • 8 NRCSD’s per airlock cycle, for a total of 48U deployment capability • ~2 Air Lock cycles per mission Photo Credit: NanoRacks LLC Photo credit: NASA 2. Launched by ISS visiting vehicle 3. NRCSDs installed by ISS Crew 5. Grapple by JRMS 4. JEM Air Lock depress & slide 6. NRCSDs positioned by JRMS table extension 1. NRCSDs transported in CTBs 7. Deploy 8. JRMS return NRCSD-MPEP stack to slide table; 9. ISS Crew un-install first 8 NRCSDs; repeat Slide table retracts and pressurizes JEM air lock install/deploy for second set of NRCSDs NanoRacks Cubesat Mission (NR-CM 3 ) • Orbital Sciences CRS-1 (Launched Jan. 9, 2014) • Planet Labs Flock1A, 28 Doves • Lithuanian Space Assoc., LitSat-1 • Vilnius University & NPO IEP, LituanicaSat-1 • Nanosatisfi, ArduSat-2 • Southern Stars, SkyCube • University of Peru, UAPSat-1 Photo credit: NASA Mission Highlights Most CubeSats launched Two countries attain in a single mission space-faring status World’s largest remote Kickstarter funding sensing constellation • NR-CM3 • Orbital Science CRS-1, Launch Jan 9, 2014 • Air Lock Cycle 1, Feb 11-15, 2014 Dove CubeSats • Deployers 1-8 (all Planet Labs Doves) Photo credit: NASA • NR-CM3 • Orbital Science CRS-1, -
ISS Launch Schedule
ISS Launch Schedule February 17, 2015 March 27, 2015 April 8, 2015 April 8, 2015 June 13, 2015 August 6, 2015 Progress 58 Soyuz 42 SpaceX CRS-6 Progress 59 SpaceX CRS-7 Progress 60 October 22, 2015 September 1, 2015 December 5, 2015 August 17, 2015 September 1, 2015 September 2, 2015 October 15, 2015 Progress 61 Soyuz 45 SpaceX CRS-9 HTV-5, ISS Resupply Soyuz 44 SpaceX CRS-8 Orb-4, ISS Resupply Manifesting and Scheduling- External • Major Challenges • Demand for upmass exceeds current availability • All manifest requests subject to ISS Program Prioritization • Difficultly planning future missions when short-term allocation is unknown • Orbital ATK returning to flight will provide relief • Increased demand of JEM Airlock • Will take increased coordination between NanoRacks, JAXA, and NASA to maximize utilization • Various hardware requires different slide-table adaptors; up to 1 month to reconfigure airlock • Safety Requirements • Some requirements outdated/not clearly defined • Vibration testing Manifesting and Scheduling- CubeSats Lessons Learned • Some COTS CubeSat components need to be altered to comply with ISS flight safety standards • 3 deployment switches • Battery Protection Circuits • Early Coordination • PSRP needs significant time to review, particularly if hazards of payload are non-standard • Custom timelines for payloads with unique hazards (i.e., propulsion, biologicals, etc.) Manifesting and Scheduling- Internal • Major Challenges • Crew time • Availability of astronaut time to support experiments on orbit • Varying levels of technical capabilities • Helping all types of customers to get experiments to the ISS • Changing launch schedules • As well as predicting in advance who will be ready for what flight Manifesting and Scheduling- Internal Lessons Learned • Early support for new customers • Safety and ops involvement earlier in the timeline • Understanding of crew time needs and use of streamlining strategies . -
Kevin Metrocavage International Space Station Operations Manager NASA Headquarters 300 E
Kevin Metrocavage International Space Station Operations Manager NASA Headquarters 300 E. Street SW, Washington, D.C. 20546 ______________________________________________________________________ January 2018 Kevin Metrocavage currently serves as the International Space Station (ISS) Operations Manager. In this role, he is responsible for maintaining overall situational awareness of the planning and execution of ISS complex operations for the Human Exploration and Operations Mission Directorate at NASA Headquarters (HQ) in Washington, DC. Metrocavage manages ISS real-time and contingency support from the NASA HQ Space Operations Center and provides input and status to Directorate and ISS Division leadership as well as external agencies as appropriate. Previously, Metrocavage worked in Mission Control at NASA Johnson Space Center in Houston, TX where he served as a Flight Controller, Instructor, and Manager for the ISS Motion Control Systems group. As an Attitude Determination and Control Officer (ADCO), Metrocavage planned, coordinated, monitored, and executed ISS maneuvers in support of a variety of complex operations. As Instructor, Metrocavage was responsible for training astronauts, cosmonauts, and peers on ISS systems content. Metrocavage supported 18 ISS Assembly Missions and over 45 ISS Expeditions from Houston, Washington D.C. and internationally in Moscow, Russia. He has been recognized by NASA with multiple individual and team awards, most notably the NASA Spaceflight Awareness Award in 2011 which is one of the highest awards presented to NASA and industry personnel. Prior to joining NASA, Metrocavage earned his Bachelor’s degree in Aeronautical & Astronautical Engineering from Purdue University where he also served as Basketball Manager for the three-time Big Ten Champions from 1993-96. He recently served on the University Alumni Board of Directors and currently serves on the Engineering Alumni Board of Directors. -
NRCSD) Interface Definition Document (IDD
NanoRacks CubeSat Deployer (NRCSD) Interface Definition Document (IDD) NRCSD Doc No: NR-NRCSD-S0003 Revision: - NANORACKS PROPRIETARY RIGHTS ARE INCLUDED HEREIN. RECIPIENT AGREES THAT NEITHER THIS DOCUMENT NOR THE INFORMATION DISCUSSED HEREIN NOR ANY PART THEREOF SHALL BE REPRODUCED OR DISCLOSED TO OTHERS. NanoRacks CubeSat Deployer IDD NRCSD Doc No: NR-NRCSD-S0003 Rev: - NanoRacks CubeSat Deployer (NRCSD) Interface Definition Document (IDD) NRCSD Prepared by Tristan Prejean; Mission Manager; Date Reviewed by Henry Martin; Senior Mission Manager; Date Reviewed by Conor Brown; External Payloads Manager; Date Reviewed by Troy Guy; Electrical Engineer; Date Reviewed by Teresa Freund; Safety Engineer; Date Approved by Mike Lewis; Chief Technology Officer; Date NanoRacks CubeSat Deployer IDD NRCSD Doc No: NR-NRCSD-S0003 Rev: - List of Revisions Revision Revision Date Revised By Revision Description - 5/29/2018 Tristan Prejean Initial Release NanoRacks CubeSat Deployer IDD NRCSD Doc No: NR-NRCSD-S0003 Rev: - Table of Contents 1 Introduction 6 1.1 Purpose 6 1.2 Scope 6 1.3 Usage 6 1.4 Exceptions 6 2 Acronyms, Definitions, and Applicable Documents 7 3 NanoRacks CubeSat Deployer System Overview 10 3.1 NRCSD Overview and Payload Capacity 10 3.2 NRCSD Coordinate System 10 3.3 NRCSD Design Features 11 3.4 NRCSD Operations Overview 12 3.4.1 Schedule 12 3.4.2 Ground Operations 13 3.4.3 On-Orbit Environments, Interfaces, and Operations 15 4 Payload Interface Requirements 21 4.1 Structural and Mechanical Systems Interface Requirements 21 4.1.1 CubeSat -
Social, Cultural, and Educational Legacies
NASA Reflects America’s Changing Opportunities; Social, NASA Impacts US Culture Education: Inspiring Cultural, and Students as Only NASA Can Educational Legacies Social, Cultural, and Educational Legacies 459 NASA Reflects The Space Shuttle, which began flying in 1981 and ushered in an entirely new human spaceflight program, was a watershed for cultural diversity America’s within NASA and had substantial cultural impact outside the realm of Changing spaceflight. In the 1950s and 1960s, opportunities for American women and minorities were limited as they were often segregated into pink Opportunities; collar and menial jobs. NASA’s female and minority employees faced NASA Impacts similar obstacles. The Space Shuttle Program opened up opportunities US Culture for these groups—opportunities that did not exist during Projects Mercury and Gemini or the Apollo and Skylab Programs. NASA’s transformation was a direct consequence of a convergence of events Jennifer Ross-Nazzal Shannon Lucid that happened in the 1960s and 1970s and continued through the Helen Lane following 3 decades. These included: public policy changes instituted on the national level; the development of a spacecraft whose physical capabilities departed radically from the capsule concept; and an increase in the number of women and minorities holding degrees in the fields of science and engineering, making them attractive candidates for the space agency’s workforce. Over the course of the program, the agency’s demographics reflected this transformation: women and minorities were incorporated into the Astronaut Corps and other prominent technical and administrative positions. The impact of NASA’s longest-running program extends beyond these dramatic changes.