'ELaNa XIX' press Kit DECEMBER 2018

Similar documents
ROCKET LAB USA DARPA R3D2 press Kit MARCH 2019

ROCKET LAB USA 'IT's business time' press Kit JUNE 2018

'STILL TESTING' Press Kit DECEMBER 2017

'It's a Test' Press Kit May 2017

Antares Rocket Launch recorded on 44 1 Beyond HD DDR recorders Controlled by 61 1 Beyond Systems total

VSS V1.5. This Document Contains No ITAR Restricted Information But Is Not Cleared for General Public Distribution

AMSAT-NA FOX Satellite Program

SABRE FOR HYPERSONIC & SPACE ACCESS PLATFORMS

The GHOST of a Chance for SmallSat s (GH2 Orbital Space Transfer) Vehicle


Vector-R Forecasted Launch Service Guide

SmallSats mission opportunities for the Vega launch system: the Small Spacecraft Mission Service 7 th August, 2016

GK L A U N C H SER VICES MOSCOW 2017

Cygnus Payload Accommodations: Supporting ISS Utilization

Vector-R. Payload User s Guide

Rocket 101. IPSL Space Policy & Law Course. Andrew Ratcliffe. Head of Launch Systems Chief Engineers Team

Capabilities Summary and Approach to Rideshare for 20 th Annual Small Payload Rideshare Symposium NASA Ames Research Center June 12-14, 2018

ENERGIA 1. IDENTIFICATION. 1.1 Name. 1.2 Classification Family : K Series : K-1/SL-17 Version : 4 strap-ons

Solar Electric Propulsion Benefits for NASA and On-Orbit Satellite Servicing

LAUNCHERONE: REVOLUTIONARY ORBITAL TRANSPORT FOR SMALL SATELLITES

OMOTENASHI. (Outstanding MOon exploration TEchnologies demonstrated by NAno Semi-Hard Impactor)

NASA s Choice to Resupply the Space Station

Cal Poly CubeSat Workshop 2014

The Falcon 1 Flight 3 - Jumpstart Mission Integration Summary and Flight Results. AIAA/USU Conference on Small Satellites, 2008 Paper SSC08-IX-6

THE FALCON I LAUNCH VEHICLE Making Access to Space More Affordable, Reliable and Pleasant

AEROSPACE TEST OPERATIONS

Future NASA Power Technologies for Space and Aero Propulsion Applications. Presented to. Workshop on Reforming Electrical Energy Systems Curriculum

H-IIA Launch Vehicle Upgrade Development

HYDROS Development of a CubeSat Water Electrolysis Propulsion System

Taurus II. Development Status of a Medium-Class Launch Vehicle for ISS Cargo and Satellite Delivery

Blue Origin Achievements and plans for the future

Adrestia. A mission for humanity, designed in Delft. Challenge the future

Lunette: A Global Network of Small Lunar Landers

CHAPTER 1 INTRODUCTION

LUNAR INDUSTRIAL RESEARCH BASE. Yuzhnoye SDO proprietary

Thinking Outside the Cube

Mars Surface Mobility Proposal

Unlocking the Future of Hypersonic Flight and Space Access

Name: Space Exploration PBL

SmallSats, Iodine Propulsion Technology, Applications to Low-Cost Lunar Missions, and the iodine Satellite (isat) Project.

MARS-OZ: A Design for a Simulated Mars Base in the Arkaroola Region

Turbo-Rocket. A brand new class of hybrid rocket. Rene Nardi and Eduardo Mautone

Suborbital Flight Opportunities for Cubesat-Class Experiments Aboard NLV Test Flights

The Common Spacecraft Bus and Lunar Commercialization

Routine Scheduled Space Access For Secondary Payloads

Building Bridges for Lunar Commerce

RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit) June 2001

From MARS To MOON. V. Giorgio Director of Italian Programs. Sorrento, October, All rights reserved, 2007, Thales Alenia Space

Lunar Missions by Year - All Countries. Mission count dropped as we transitioned from politically driven missions to science driven missions

lights on, down 2 ½ 40 feet, down 2 ½ Kickin up some dust 30 feet, 2 ½ down faint shadow

FACT SHEET SPACE SHUTTLE EXTERNAL TANK. Space Shuttle External Tank

Atlas V Launches the Orbital Test Vehicle-1 Mission Overview. Atlas V 501 Cape Canaveral Air Force Station, FL Space Launch Complex 41

Massachusetts Space Grant Consortium

SSC Swedish Space Corporation

Travel: Detailed Flight Plan

Success of the H-IIB Launch Vehicle (Test Flight No. 1)

USA DELTA DELTA Mc DONNELL DOUGLAS SPACE SYSTEMS

Ares V: Supporting Space Exploration from LEO to Beyond

MS1-A Military Spaceplane System and Space Maneuver Vehicle. Lt Col Ken Verderame Air Force Research Laboratory 27 October 1999

ReachMars 2024 A Candidate Large-Scale Technology Demonstration Mission as a Precursor to Human Mars Exploration

Transportation Copyright Council for Economic Education

Rocket Activity Advanced High- Power Paper Rockets

Lunar Cargo Capability with VASIMR Propulsion

Copyright 2016 Boeing. All rights reserved.

Rocketry Projects Conducted at the University of Cincinnati

Flight Readiness Review Addendum: Full-Scale Re-Flight. Roll Induction and Counter Roll NASA University Student Launch.

Pre-Launch Procedures

Station for Exploratory Analysis and Research Center for Humanity (SEARCH)

Next Steps in Human Exploration: Cislunar Systems and Architectures

Analysis of Power Storage Media for the Exploration of the Moon

PROJECT AQUILA 211 ENGINEERING DRIVE AUBURN, AL POST LAUNCH ASSESSMENT REVIEW

MISSION OVERVIEW SLC-41

SpaceX ORBCOMM OG2 Mission 1 Press Kit

The European Lunar Lander Mission

Modular Reconfigurable Spacecraft Small Rocket/Spacecraft Technology Platform SMART

TubeSat and NEPTUNE 30 Orbital Rocket Programs

IST Sounding Rocket Momo User Guide

NEXT Exploration Science and Technology Mission. Relevance for Lunar Exploration

Industrial-and-Research Lunar Base

Backgrounder. The Boeing ecodemonstrator Program

Martin J. L. Turner. Expedition Mars. Published in association with. Chichester, UK

Canisterized Satellite Dispenser (CSD) As A Standard For Integrating and Dispensing Hosted Payloads on Large Spacecraft and Launch Vehicles

System Testing by Flight Operators the Rosetta Experience

FEDERAL SPACE AGENCY OF RUSSIAN FEDERATION LAVOCHKIN ASSOCIATION PROGRAM OF THE MOON EXPLORATION BY AUTOMATIC SPACE COMPLEXES


Upper Stage Evolution

MISSION OVERVIEW SLC-41 CCAFS, FL

WHAT WE WILL DISCUSS IN THIS VIDEO

VEGA SATELLITE LAUNCHER

QinetiQ Electric Propulsion

The DoD Space Test Program Standard Interface Vehicle (ESPA) Class Program

Certified by: FAA, DULV

The 1 N HPGP thruster is designed for attitude and orbit control of small-sized satellites. FLIGHT-PROVEN. High Performance Green Propulsion.

July 28, ULA Rideshare Capabilities

Cooperative EVA/Telerobotic Surface Operations in Support of Exploration Science

MA THOR SolarLight UAS

Curiosity lands on Mars

USGIF Small Satellite Working Group Resilient SmallSat Launch-on-Demand

Enhanced. Chapter 3. Baseline

PROSPECTUS

Transcription:

ROCKET LAB USA 2018 'ELaNa XIX' press Kit DECEMBER 2018 LAUNCHING ON ELECTRON VEHICLE FOUR: 'THIS ONE'S FOR PICKERING'

ROCKET LAB PRESS KIT 'ELANA-19' 2018 LAUNCH INFORMATION Launch window: 13 21 December, 2018 (Nine-day launch window) Daily launch timing 04:00 08:00 UTC / 17:00 21:00 NZDT (Four-hour daily window) The launch process is complex. A launch could be postponed, or scrubbed, multiple times to allow for small, technical modifications or inclement weather. For up-to-date information about launch activity, visit www.rocketlabusa.com/launch-info/launch-complex-1 and follow Rocket Lab on Twitter @RocketLab. 'IT'S BUSINESS TIME' LIFTS OFF FROM ROCKET LAB LC-1 November 2018 ELANA-19 MISSION OVERVIEW ELaNa-19 (Educational Launch of Nanosatellites 19) is Rocket Lab s third orbital mission for 2018 and the company s first mission for NASA. The launch is significant for the small satellite industry as it s the first time NASA CubeSats will enjoy a dedicated ride to orbit on a commercial launch vehicle, thanks to the NASA s forward-leaning Venture Class Launch Services (VCLS) initiative. The mission will see Rocket Lab s Electron launch vehicle loft more than 10 CubeSats to low Earth orbit. Electron will carry approximately 172 pounds (78 kg) of payload, which will be deployed to a 500x500km circular orbit at an 85-degree inclination by Rocket Lab s kick stage Until now, launch opportunities for small satellites have mostly been limited to rideshare-type arrangements, flying only when space is available on large launch vehicles. As NASA s first VCLS mission to fly, the ELaNa-19 mission on Electron represents a new approach to small satellite launch. VCLS contracts constitute the smallest class of launch services used by NASA and have been created to foster commercial launch services dedicated to transporting smaller payloads into orbit. The mission represents a forward-thinking approach from NASA and a direct response to the small satellite industry s changing needs for rapid and repeatable access to orbit. While the mission itself is called ELaNa-19, Rocket Lab also names each Electron launch vehicle individually. Previous Rocket Lab designations, It s a Test, Still Testing and It s Business Time, doubled as both mission and vehicle names. For the ELaNa-19 mission, the Electron launch vehicle is named This One s For Pickering in honor of New Zealand-born scientist and former Director of NASA s Jet Propulsion Lab (JPL), Sir William Pickering. For 22 years, Sir Pickering headed JPL and led the team that developed the first US satellite, Explorer I, launched in 1958. SUCCESSFUL STAGE TEST OF THIS ONE S FOR PICKERING' Rocket Lab test facility, October 2018 01 Press Kit December 2018

ROCKET LAB PRESS KIT 'ELANA-19' 2018 ELANA-19 payloads Many of the CubeSats on the mission are receiving their access to space through a NASA initiative called the CubeSat Launch Initiative (CSLI). The program recognizes that CubeSats play an increasingly significant role in exploration, technology demonstration, scientific research and educational investigations. These small satellites provide a low-cost platform for both research and commercial applications, including planetary space exploration; Earth observation; Earth and space science; and developing precursor science instruments like laser communications and satellite-to-satellite communications. NASA ELANA-19 PAYLOAD INTEGRATION Rocket Lab Headquarters, Huntington Beach, April 2018 NASA ELANA-19 PAYLOAD INTEGRATION Rocket Lab Headquarters, Huntington Beach, April 2018 The ELaNa-19 mission payloads will conduct a vast range of scientific experiments and test new technologies including: Sensors that measure radiation in near-earth space to understand the impact radiation belts have on satellites and astronauts travelling through them, A flight experiment to demonstrate deployment and control of a solar sail that acts as a risk reduction precursor to the exciting advanced interplanetary UltraSail concept that could propel small spacecraft for deep-space missions, A student-built CubeSat with multiple sensors to provide data on Earth s magnetic field, high altitude plasma density, and take atmospheric weather measurements, A student-led STEM focused spacecraft that will connect with students worldwide to help reignite a passion for space, A flight demonstration of 3D printed robotic arms designed to validate the effectiveness of compact robotic manipulators. For more information about ELaNa payloads, visit www.nasa.gov/directorates/heo/home/cubesats_initiative ROCKET LABS PAYLOAD PROCESSING FACILITIES Rocket Lab Headquarters, Huntington Beach, April 2018 NASA LOGO BEING APPLIED TO ELECTRON'S FAIRING Rocket Lab Auckland Production Complex, Auckland, October 2018 Press Kit December 2018 02

Timeline of Events HOURS:MINUTES:SECONDS FROM LIFT-OFF EVENT The team move the rocket from the hangar to the launch pad and assess weather conditions up to lift-off -07:00:00 Rocket Lab launch team moves into position for launch -06:00:00 Road to the launch site closed -04:00:00 Electron lifted to vertical position and filled with fuel -02:30:00 Launch pad personnel exit area in preparation for launch -02:00:00 Electron filled with liquid oxygen (LOx) -01:00:00 Aviation authority advised to alert aircraft pilots of potential hazards -00:10:00 Final preparations for launch commence -00:02:00 Autosequence commences and Electron s on-board computers initiate the launch sequence -00:00:02 Ignition of the nine Rutherford engines powering Electron s first stage 00:00:00 Lift-off Electron climbs from the launch pad initially rising slowly and increasing in speed as the Electron gets lighter +00:02:31 Main engines (Stage 1) cut off +00:02:34 Stage 1 of Electron separates +00:02:37 The vacuum Rutherford engine on Stage 2 ignites +00:03:07 Electron s fairing (the protective casing around the payload) separates +00:09:06 Electron reaches orbit +00:09:06 Stage 2 engine cuts off +00:09:10 Stage 2 of Electron separates +00:50:00 Kick stage ignites +00:51:30 Curie engine powering kick stage cuts off +00:56:00 All payloads separated from launch vehicle Fairing Separation Orbit Achieved Stage 2 Engine Cutoff Stage 2 Separation Kick stage ignition Kick stage Engine Cutoff Payload Separation Stage 2 Engine Ignition Stage 1 Separation Stage 1 Engine Cutoff Lift-off 03 Press Kit December 2018

ROCKET LAB PRESS KIT 'ELANA-19' 2018 viewing a launch VIEWING IN PERSON Wairoa District Council has allocated a rocket launch viewing area for the public near Nuhaka, accessible via Blucks Pit Road. Visit www. visitwairoa.co.nz/welcome-to-wairoa/space-coast-new-zealand/ for more information. Scrubs and postponements are likely during launch windows, so visitors to the Blucks Pit viewing site should anticipate multiple postponements, sometimes across several days. LIVESTREAM The best way to view a launch is via Rocket Lab s live video webcast. This offers the best views of launch and includes helpful commentary about the launch process. A livestream will be made available approximately 20 minutes prior to a launch attempt. Rocket Lab will post links to the web cast when live via Facebook and Twitter. The livestream is viewable at www.rocketlabusa.com/live-stream and Rocket Lab's YouTube channel. LC-1 LAUNCH VIEWING AREA Blucks Pit Road, near Nuhaka ROCKET LABS LIVESTREAM OF 'IT'S BUSINESS TIME' October, 2018 Launch footage and images Images and video footage of the ELaNa-19 launch will be available shortly after a successful mission at www.rocketlabusa.com/news/ updates/link-to-rocket-lab-imagery-and-video Images and footage of previous Rocket Lab launches can also be found at this link. SOCIAL MEDIA For real time updates on the launch follow the Rocket Lab Twitter page @RocketLab @RocketLabUSA @RocketLab LAUNCH VIEWING AREAS DISTANCE FROM ROCKET LAB LC-1 As Rocket Lab s top priority during the test launch is public safety, there are safety zones in place during a launch and no access will be permitted to Onenui Station, where Launch Complex 1 is located. CONTACTS MORGAN BAILEY COMMUNICATIONS MANAGER +64 27 538 9039 morgan@rocketlabusa.com Press Kit December 2018 04

ROCKET LAB PRESS KIT 'ELANA-19' 2018 ABOUT ROCKET LAB We go to space to improve life on Earth Rocket Lab is providing rapid and repeatable access to orbit for small satellites with the Electron rocket. We are in an exciting new era of small satellite technology - one that s making life on Earth better. We all rely on satellites. They connect us, keep us safe, help us understand our planet and manage our impact on it, and enable us to innovate and explore. The satellites of today are getting smaller, doing more and costing less and thousands of them need to get on orbit. Rocket Lab is launching these satellites to orbit at unprecedented frequency to enable a new era of innovation on orbit. Founded in 2006, Rocket Lab has developed the world s first fully carbon composite orbital launch vehicle, Electron, which is powered by 3D printed, electric pump fed engines. Electron is a two-stage vehicle capable of delivering payloads of up to 150kg to a 500 km sun-synchronous orbit. Rocket Lab has also designed and operates a unique third stage of the rocket, called the kick stage, which can raise and circularize orbits. Powered by the 3D printed Curie engine, the kick stage is capable of performing a deorbit burn to reduce its orbital lifespan to reduce space junk, following payload deployment. On May 25, 2017, Rocket Lab successfully launched its first Electron rocket, It s a Test, from Rocket Lab Launch Complex 1 on New Zealand s Māhia Peninsula. Rocket Lab has since completed two successful orbital missions; Still Testing launched to orbit on 21 January 2018, followed by It s Business Time on 11 November 2018. To date, Rocket Lab has launched 11 small satellites to orbit. Rocket Lab is a privately funded company. Investors include Khosla Ventures, Promus Ventures, DCVC (Data Collective), Bessemer Venture Partners, Future Fund, Greenspring Associates, ACC, K1W1, and Lockheed Martin. ELECTRON AT ROCKET LAB LAUNCH COMPLEX 1 Māhia Peninsula, 2017 ABOUT LAUNCH COMPLEX-1 Electron is launched from Rocket Lab Launch Complex 1, the world s only private orbital launch range. Located in Māhia, New Zealand, and licensed to launch up to 120 times per year, Rocket Lab can accommodate an unprecedented launch cadence and reach orbital inclinations from sun-synchronous through to 39 degrees from a single site. Rocket Lab is also developing a second launch site to provide unmatched schedule and launch location freedom. Launch Complex 2 is being built at the Mid-Atlantic Regional Spaceport in Wallops Flight Facility, Virginia, USA. ROCKET LAB LAUNCH COMPLEX 1 Māhia Peninsula, 2018 NIGHT SKIES AT LC-1 Electron, 'Its Business Time', LC-1 Māhia Peninsula, 2018 05 Press Kit December 2018

About The RUTHERFORD ENGINE Rutherford is a state-of-the-art oxygen and kerosene pump fed engine specifically designed from scratch for Electron, using an entirely new propulsion cycle. A unique feature of Rutherford is the high-performance electric propellant pumps which reduce mass and replace hardware with software. Rutherford is the first engine of its kind to use 3D printing for all primary components. These features are world firsts for a high-performance liquid rocket engine with propellants that are fed by electric turbopumps. The production-focused design allows Electron launch vehicles to be built and satellites launched at an unprecedented frequency. RUTHERFORD ENGINE TEST New Zealand, 2016 RUTHERFORD IS A STATE OF THE ART OXYGEN AND KEROSENE PUMP FED ENGINE SPECIFICALLY DESIGNED FROM SCRATCH FOR ELECTRON, USING AN ENTIRELY NEW PROPULSION CYCLE. e l e c t r o n DEDICATED Electron can deliver your payload when and where required. RIDESHARE Fly with other payloads at commercially competitive prices. OPTIONAL KICK STAGE Rocket Lab's apogee kick stage can execute multiple engine burns to place numerous payloads into different, circularized orbits. It opens up significantly more orbital options, particularly for rideshare customers that have traditionally been limited to the primary payload s designated orbit. Powered by Rocket Lab's 3D printed Curie engine, the kick stage is capable of 120N of thrust and multiple burns. Electron is an entirely carbon-composite vehicle powered by Rocket Lab s 3D-printed, electric turbo-pump fed Rutherford engines. Electron is capable of delivering payloads of up to 150 kg to a 500 km sun-synchronous orbit the target range for the high growth constellation-satellite market. Customers signed to fly on Electron include NASA, Spaceflight, Planet, Spire and Moon Express. 06 Press Kit December 2018

CONTACT US rocketlabusa.com +64 9 373 2721 enquires@rocketlabusa.com CONNECT WITH US @rocketlab RocketLabUSA facebook.com/rocketlabusa Rocket Lab USA 2018