IST Sounding Rocket Momo User Guide

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2 Table of contents Revision History Note 1.Introduction 1 1.Project Overview 1 2. About the Momo Sounding Rocket 1 3.Launch Facility 2.Mission Planning Guide 2 1. Flight stages 2 2. Visibility from the ground 2 3. Acceleration environment 2 4. Upper atmosphere environment 2 5. Microgravity environment 2 6. Payload recovery 3. Payload Design Guide 3 1. Size and weight 3 2. Payload interface with fuselage 3 3. Surrounding environment 3 4. Flow sequence until launch 3 5. Other conditions regarding payload 4.Advertising 4 1. Fuselage advertisements 4 2. Onboard video footage 5.Support 5 1. Support facilities for launch 6. Company & Contact 2

3 Revision History ver.0.1 Beta published on May/22/2016 ver.0.1 English ver. published on July/31/2016 Note Contents is intended to reflect the developing situation at the time of its publication, there is a possibility to change without notice. 3

4 1. Introduction 1 1. Project Overview The Momo sounding rocket produced by Interstellar Technologies Inc. (hereafter referred to as IST) is a rocket that is capable of launching a 20kg payload to an altitude exceeding 100km (which is generally considered to be outer space) at relatively low cost. It can achieve a microgravity environment of roughly 4 minutes and its payload can later be recovered at sea. The rocket has a wide range of applications, including observations of the upper atmosphere and microgravity experiments, space observations with infrared and X rays, technical experiments which requires high acceleration environment during launch, business application such as PR activities for products, and entertainment. Everything from rocket construction, payload preparation, launch and operations for recovery are carried out at IST facilities located in Taiki, Hokkaido. One of IST's advantage is the fact that rocket components such as engines, fuselages, various types of mechatronics, avionics, radio equipment, and simulation programs are all produced by our selves. By utilizing the comprehensive engineering technologies developed within the company, we are able to respond flexibly to users' needs. To perform our best, the first few launches will be carried out as technical experiment to demonstrate establishment of ballistic flight technology. 4

5 1 2. About the Momo Sounding Rocket Fuselage features Momo is a liquid fuel rocket which propellants are fed by Helinum gas pressure. With liquid fuleled rocket engines that use ethanol (EA) for fuel and liquid oxygen (LOX) as an oxidizer, Momo provides much gentler acceration and vibration environment for the payload when compared to solid fuel rockets. The rocket's pitch and yaw are controlled through thrust vector control via the movement of engine gimbals and roll is controlled with cold gas jets. With real time command uplinks and telemetry downlinks, thrust can be shut off in emergency situations with a command transmission at any time, making it possible to carry out safe launches. Fuselage specifications (values are from development phase and are tentative) Length: 8.5m Total weight: 900kg (includes propellant) Dry weight: 250kg (does not including propellant) Diameter: 500mm 5

6 1 3. Launch Facility Launch pad position Interstellar Technologies test site: Hamataiki 80, Taiki cho, Hiroo gun, Hokkaido Near north latitude 42.5058857 Near east longitude 143.4571724 (c) OpenStreetMap contributors The launch site is located on the Pacific coast at Taiki cho, Hiroo gun, Hokkaido, and is surrounded by the coast, rivers, wetlands, and windbreaks. Next to the launch pad are the facilities for engine testing and machinery, a command control center, communications facilities, etc., where tasks such as adjustments to powered payloads and very simple machining can be done. Additionally, the launch site is located at 15 minute drive from IST's main plant where additional support is available in the form of machine processing with lathes, milling machines, drills, and welding machines, and electrical and electronic tools that utilize equipment such as spectral analyzers, etc.. Official website for the town of Taiki 6

7 2. Mission Planning Guide 2 1. Flight stages Rocket and payload flight is divided into the following 3 stages. T+0s (launch) 100s: accelerated flight T+100s 340s: inertial flight T+340 700s: decelerated flight with parachute & splashdown 7

8 2 2. Visibility from the ground Launch observation points Currently being prepared Visible time Ground elevation 1km: 20 seconds till arrival 2km: 30 seconds till arrival 5km: 45 seconds till arrival 10km: 60 seconds till arrival 2 3. Acceleration environment Maximum acceleration during ascent: 5G 2 4. Upper atmosphere environment Tropospheric flight (0 10km in altitude): approximately 60 seconds Stratospheric flight (10 50km in altitude): approximately 50 seconds on both ascent and descent (approximately 100 seconds in total) Mesospheric flight (50 80km in altitude): approximately 30 seconds on both ascentand descent (approximately 60 seconds in total) Thermospheric flight (80km + in altitude): approximately 180 seconds including peak altitude 2 5. Microgravity environment Changes in mission time corresponding to desired microgravity levels 10 1 G or below: 240 seconds 10 2 G or below: 200 seconds 10 4 G or below: 150 seconds 2 6. Payload recovery Splashdown speed: 15m/s (using parachute) 8

9 3. Payload Design Guide 3 1. Size and weight Payload envelope Size: within a maximum box size of 350 350 300mm Weight: 20kg 15kg (with payload recovery option) 9

10 3 2. Payload interface with fuselage Mechanical interface Fairing and integral After the lock between the fairing and fuselage is released, the fairing is pushed away and separated with an air cylinder Electronic interface A 12V DC power supply can be provided by the fuselage A hot launch in which the power is on from the time of launch is possible 3 3. Surrounding environment The air pressure within the fairing equals external atmospheric pressure (non pressurized fairing) The fairing itself is a non watertight structure (although it is possible to make the fairing watertight for only the payload section) 3 4. Flow sequence until launch Payloads accepted up to 3 months prior to launch Testing of payload/fuselage interface Payload is brought to launch site 3 7 days prior to launch Payload is mounted onto fuselage Launch Payload is recovered and handed over 3 5. Other conditions regarding payload Payloads containing anything that can potentially cause harm to humans such as explosives, pathogens, or poisons cannot be mounted. 10

11 4. Advertising 4 1. Fuselage advertisements The exterior cylindrical surfaces of the ethanol and helium tanks (roughly 3 4m in length and 500mm in diameter) can be used as advertisement space. There may be cases in which the customer mounting the payload and the customer utilizing the advertising space are not the same. 4 2. Onboard video footage Customers may utilize mounted cameras to capture footage that will be handed over after launch and payload recovery. There may be cases in which customers utilizing advertisement space and those using the mounted cameras are not the same. 11

12 5.Support 5 1.Support facilities for launch Guest house IST Taiki factory Workroom in the launch field 12

13 6.Company & Contact We are doing the rocket development business since 2006. It has offices and factory in Tokyo and Taiki cho, continue to "Momo ", we are developing a rocket to launch a small satellite in orbit around the Earth. Company name Interstellar Technologies Inc. head office Tokyo office Adress: 690 4 Memu, Taiki, Hiroo gun,hokkaido, Japan 089 2113 Bunkyo MM building, B102, Suido, Bunkyo ku, Tokyo, Japan,112 0005, Date of establishment May 2003 capital stock 90 million yen Company executive Business CEO Takahiro Inagawa Development of reaching technology to interstellar space web: http://www.istellartech.com/company Twitter: https://twitter.com/natsuroke Facebook: https://www.facebook.com/istellartech/ 13