Category Archives: Space Radio

Student and amateur CubeSat news roundup – Sept.9.2020

A sampling of recent articles, press releases, etc. related to student and amateur CubeSat / SmallSat projects and programs (find previous smallsat roundups here):

** USC student team comes out on top in AIAA smallsat competition: USC Wins First Place in the AIAA Small Satellite Student Competition – USC Viterbi School of Engineering

A team of students from the USC Laboratory for Exploration and Astronautical Physics (LEAP), including Robert Antypas and Jeffrey Asher, doctoral students in the Viterbi Department of Astronautical Engineering. The students are working to optimize the design of ionic electrospray thrusters, in-space propulsion devices, in collaboration with the Air Force Research Laboratory (AFRL). These thrusters are small, light and powerful, easy to construct and customizable. These unique aspects contributed to the team winning first place in the AIAA Small Satellite Poster Competition. The students were supervised by Joseph Wang, professor of astronautics and aerospace and mechanical engineering at the USC Viterbi School of Engineering.

Said Asher: “Unlike traditional electric or chemical propulsion technologies, these thrusters are able to scale linearly with the area by increasing the number of emission sites.” In other words, you can increase the level of thrust outputted by increasing the number of emitter tips on the device, a feature not currently possible on other types of propulsion technologies.

Major components of the USC electrospray testbed thruster. Image Credits: Jeffrey Asher.

“The ionic electrospray thruster the team created is an electrostatic propulsion device that operates by extracting and accelerating ions from the propellant using an electric field. The ion extraction is aided by the thruster’s use of a novel liquid propellant, called an ionic liquid. This liquid is highly conductive and freely “gives up” its charge when exposed to an electric field. It also has extremely low vapor pressure, so that it can withstand being directly exposed to the vacuum conditions of space without evaporating.” – USC

** AMSAT news on student and amateur CubeSat/smallsat projects:

ANS-243 AMSAT News Service Special Bulletin

  • AMSAT Member David Minster, NA2AA, Elected ARRL CEO
  • Jeanette Epps, KF5QNU, Joins Starliner Mission To ISS
  • ANS Editors Wanted
  • CubeSat Challenge Seeks To Inspire, Prepare Students
  • Amateur License Fee Proposal From FCC
  • AO-92 (FOX-1D) Reverting to Safe Mode
  • GRBAlpha Frequency Coordination Completed
  • ARISS News
  • Upcoming Satellite Operations
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Satellite Shorts From All Over

ANS-250 AMSAT News Service Special Bulletin

  • ARISS First Element of the Interoperable Radio System is Operational
  • FCC Notice of Proposed Rulemaking: Proposal open for comment
  • Successful Vega Mission Launches the Amicalsat Project Satellite
  • TEVEL Mission Nears Projected Launch Date
  • Changes to the AMSAT-NA TLE Distribution for September 3, 2020
  • VUCC Satellite Awards and Endorsements
  • ARISS News
  • Upcoming Satellite Operations
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Satellite Shorts From All Over

General CubeSat/SmallSat info:

** Autonomous deep-space CubeSat: where we are and where we are going – GVWI (The Global Virtual Workshop I – Stardust-R)

** Educational webinars – Session A – Build a Cubesat from scratchSatRevolution

SatRevolution is happy to invite you to a series of informational sessions (only 30 minutes long!), organized by our team and the team of our partners. This webinars has been recorded during Small Sat Conference 2020 this is way session is different in title and during webinars record. For more infromation please visit our website:

** Ask NMD Episode 1 – Guest, Prof. Jordi Puig-SuariNanosatellite Missions Design

Prof Jordi Puig-Suari is a professor and an aerospace technology developer. He is the co-inventor of the CubeSat standard, and co-founder of Tyvak Nano-Satellite Systems. Prof. Jordi answered 2 questions from the many questions you asked us. The questions were “How did Cubesats begin” and “What is the relationship and collaboration between robotics, AI, software and space exploration”.

** SmallSat Mesh Networking – SmallSat 2020 Webinar – TethersUnlimited – YouTube

** Leveraging the Success of the CubeSat Standard to Create a SmallSat Standard for ESPA SpacecraftEnrico Congiu – YouTube

=== Amazon Ad ===

Introduction to CubeSat Technology and Subsystem:
Orbit Design, Debris Impact, and Orbital Decay Prediction

Student and amateur CubeSat news roundup – July.17.2020

A sampling of recent articles, press releases, etc. related to student and amateur CubeSat / SmallSat projects and programs (find previous smallsat roundups here):

** Two CubeSats deployed this week from the ISS: Spacewalk Preps, Satellite Deployment During Bone and Heart Research – Space Station/NASA

A pair of microsatellites were deployed into Earth orbit today outside Japan’s Kibo laboratory module. The Deformable Mirror CubeSat will demonstrate the performance of a tiny but powerful exo-planet telescope. The TechEdSat-10 CubeSat will test returning small payloads safely into Earth’s atmosphere.

The CubeSats were launched to the ISS on a Northrop-Grumman Antares rocket in a Cygnus cargo vehicle on February 15th of this year.

TechEdSat-10 is the latest CubeSat sponsored by the NASA Ames Technology Education Satellite (TechEdSat) program. This spacecraft was developed in collaboration with student teams at San Jose State University and the University of Idaho. The primary goal of the mission is to test technologies for low cost return of small payloads from orbit. The CubeSat will deploy a Exo-Brake, which is

a tension-based, flexible braking device resembling a cross-parachute that deploys from the rear of a satellite to increase the drag. It is a de-orbit device that replaces the more complicated rocket-based systems that would normally be employed during the de-orbit phase of re-entry.

An Exo-Brake is a parachute-like apparatus deployed from a spacecraft to increase drag in the very thin atmosphere of low earth orbit. The increased drag will hasten the satellite’s reentry. This photo shows an Exo-Brake being packed into TechEdSat-5. Credits: ASA Ames/Dominic Hart

The TecEdSat-10 mission will

… further develop the tension-based drag device (an ‘Exo-Brake’) and demonstrate frequent uplink/downlink control capability. In addition, the Exo-Brake is modulated in order to change the drag profile and then permit, for the first time, a targeting experiment. TechEdSat-10 is sized at a scale of 3 m, which permits re-entry within 4 weeks at a ßof ~5 kg/m2. Understanding the thermophysics of such a device permits it to be scaled for larger payloads and re-entry within 1.5 days.

Targeting would allow the brake to return a payload to a specific area for ease of recovery.

The Deformable Mirror CubeSat (DeMi) project is an MIT project sponsored by DARPA. Deformable mirrors are used in ground-based telescopes to cancel out distortions in stellar images caused by variations in atmospheric density, temperature, etc. For observatories in orbit, there is no atmosphere to deal with but there are various structural and optical flaws,  small strains from temperature changes, etc. The goal for this mission is to demonstrate that such imperfections can be compensated for with a deformable mirror in a space telescope.

In order to image an Earth-like planet, an exoplanet direct imaging system needs to achieve a contrast ratio of 1 × 10E−10. Even with adaptive optics on a large ground-based telescope, it is currently not possible to overcome the effects from atmospheric turbulence to achieve the high contrast needed to obtain high-resolution spectra of an Earth-like exoplanet. While a space telescope does not have to overcome the effects of atmospheric turbulence, achieving a clear image usually comes at the expense of smaller aperture size (e.g., due to launch cost and launch vehicle limitations). The performance of a space telescope will still suffer from optical imperfections, thermal distortions, and diffraction that will corrupt the wavefront, create speckles, and ruin the contrast. High actuator-count deformable mirrors have the authority to correct high spatial frequency aberrations that would otherwise degrade the contrast in these conditions.

Deformable Mirror CubeSat (DeMi) serves as an on-orbit testbed for a MEMS deformable mirror. The baseline deformable mirror payload architecture incorporates a Shack-Hartmann wavefront sensor for mirror characterization as well as a focal plane sensor for correcting an image of an external object. DeMi characterizes the on-orbit performance of a 140 actuator MEMS deformable mirror with 5.5 μm maximum stroke. The goal is to measure individual actuator wavefront displacement contributions to a precision of 12 nm. …

The ultimate goal is to enable space telescopes to image exoplanets directly:

Current space telescopes have limited ability to detect and distinguish small, dim objects such as exoplanets that are next to large, bright objects such as stars. MEMS deformable mirror technology can improve the imaging capabilities of future space telescopes.

Aurora Flight Sciences is managing the project and Blue Canyon Technologies built the spacecraft.

** AMSAT news on student and amateur CubeSat/smallsat projects: ANS-194 AMSAT News Service Special Bulletin

  • AMSAT Leadership Explains 2018-2020 Legal Expenses
  • Update on HO-107 (HuskySat-1)
  • AMSAT-DL Proposes LunART – Luna Amateur Radio Transponder
  • Buffalo Soldiers Special Event on the Satellites
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Upcoming Satellite Operations
  • Upcoming ARISS Contacts
  • Satellite Shorts from All Over

** AMSAT arose from the HAM radio community and many educational and science related smallsats use amateur radio bands for communications. This article doesn’t include anything on AMSAT or amateur radio via satellites but it does give a good overview of the state of amateur radio globally: The Uncertain Future of Ham Radio – IEEE Spectrum.

General CubeSat/SmallSat info:

**  Building a CubeSat for less than $1000 — Part 3 — Avionics Schematic – Third episode in a series from RG SAT on how to build a low cost CubeSat.

Today I cover the schematic I created for the Avionics board of the Cubesat. The Avionics board essentially serves as the main computer for the Cubesat, including control of the Attitude Control System, and radio communications.

** CanSat, A CubeSat learning kit Made in IndiaWorld CanSat & Rocketry Championship – YouTube

A World CanSat/Rocketry Championship (hereinafter: WCRC) is generally an international competition open to elite competitors from around the world, representing their nations (as university student Teams or as independent student Teams), and winning this event will be considered the highest or near highest achievement in this field. The WCRC was formulated and negotiated among the Organizations from 6 countries: Serbia, India, Italy, Tunisia, Canada, and Peru (hereinafter: Founders) from October.

** Tracking CubeSats with a TelescopeBruce Van Deventer – YouTube

CubeSats are miniature satellites typically deployed into low earth orbit. A standard 1U CubeSat is a cube ten centimeters on a side. Here, I tracked three different CubeSats on the night of 6/17 at our dark site observatory. Tracking is performed blind, meaning there is no optical assist to help the telescope point to the target. These videos are shot using a Celestron RASA 11 telescope and the ZWO ASI 6200 mono camera, operated in 8 bit video mode, quarter frame size, 100ms exposure. That video is further cropped here to make it easier to find the satellite.

** Dove Satellite – Observing Earth With A Cubesat

I paid a visit to Planet, they’re one of my ‘neighbours’ in San Francisco’s SOMA district. Their business is planetary imaging and they’ve launched over 100 Dove Cubesats which are built around the largest possible camera you can fit in a cubesat.

** Aerospace CubeSats Blaze a Faster Trail to Space | The Aerospace Corporation

The challenge: Build and launch a pair of cube satellites on a tight budget and even tighter timeline. Here is how Aerospace engineers designed the Aerospace Rogue Alpha/Beta CubeSats as pathfinders for studying rapid reconstitution.

=== Amazon Ad ===

Introduction to CubeSat Technology and Subsystem:
Orbit Design, Debris Impact, and Orbital Decay Prediction

Student and amateur CubeSat news roundup – June.17.2020

A sampling of recent articles, press releases, etc. related to student and amateur CubeSat / SmallSat projects and programs (find previous smallsat roundups here):

** NASA expands Cube Quest Challenge competition:  NASA Invites Competitors to Shoot for the Moon and Beyond | NASA

NASA is inviting additional teams to compete in the Cube Quest Challenge. You can still participate in the in-space phase of the challenge and be eligible to win part of a $4.5 million prize purse.

The Cube Quest Challenge, NASA’s first in-space competition, incentivizes teams to design, build and deliver small satellites capable of advanced operations near and beyond the Moon. To compete, new teams meeting the eligibility criteria must obtain a ride to deep space for their CubeSats – either through commercial launch opportunities or programs like NASA’s CubeSat Launch Initiative.

“We welcome new teams to join us in this challenge in pursuit of advancing space exploration,” said Monsi Roman, program manager for NASA’s Centennial Challenges. “When we established the Cube Quest Challenge in 2015, commercial flight opportunities weren’t as available. Now that technology has advanced and commercial partners are flying payloads, it is a great time to make potential participants aware of the opportunity.”

Fifteen university and private developer teams have already competed for prizes to showcase creative CubeSat technologies through ground-based tournaments, or phase one, of the Cube Quest Challenge, which was completed in 2017.

Three winners received spots as secondary payloads on Artemis I, the first integrated test flight of NASA’s Space Launch System rocket and the Orion spacecraft. These teams have been working on their CubeSats, readying them for launch. Once deployed from the rocket, the teams will begin phase two, the in-space competition.

In-Space Competition

All Cube Quest Challenge competitors, both new and current, will compete in one of two arenas. The Lunar Derby is where CubeSats are to maintain a verifiable lunar orbit. There’s also the Deep Space Derby, in which CubeSats reach approximately 1.8 million miles from Earth.

Once in orbit, the CubeSats must complete various tasks outlined in the competition rules document to be eligible for prize money. To ensure data integrity, each satellite must transmit NASA-provided communications data to be eligible for prize money.

The Next Frontier

“The Cube Quest Challenge opens the lunar and deep space environment, thanks to the mastery of several technologies,” said Elizabeth Hyde, a mechanical engineer at NASA’s Ames Research Center in California’s Silicon Valley and technical advisor for the challenge. “The three technology areas we see as important for jumping from low-Earth orbit to deep space are communications, propulsion and radiation tolerance for CubeSats.”

Initiatives such as the Cube Quest Challenge aim to make deep space exploration more accessible and open up commercial space opportunities beyond low-Earth orbit.

“The next frontier is small satellites. Development efforts are aimed at pushing the boundaries of CubeSat exploration beyond low-Earth orbit,” Hyde said.

The competition is a part Centennial Challenges, based at the NASA’s Marshall Space Flight Center in Huntsville, Alabama. Centennial Challenges is a part of the Prizes and Challenges program within NASA’s  Space Technology Mission Directorate. The challenge is managed by NASA’s Ames Research Center in California’s Silicon Valley.

To register to compete in the challenge, visit:

For more information of NASA’s Cube Quest Challenge, visit:

For more information about NASA’s Prizes and Challenges, visit:

**  Code In Space! initiative challenges students to create software to upload and run on a CubeSat in orbit. The 1U CubeSat is named QMR-KWT.  Both the satellite and the initiative are sponsored by  the Kuwaiti company Orbital Space and developed in partnership with EnduroSat of Bulgaria. The educational program “is open to all students from all schools and universities around the world“.

The code will be uploaded to the nanosatellite from a ground station operating in UHF frequency range. The code will be executed by EnduroSat’s Onboard Computer Type I (high-performance and low-power computing platform). Code executions test results will be received by a ground station operating in UHF frequency range.

Participation can be as an

individual, or team based and should include a mentor (teacher/ university faculty member or scientist affiliated with a school or academic/ research institution)

Software apps will be selected on the basis of how well they provide

a solution for current challenge or limitation in the satellite industry or new concept that could be of value to satellite technology.

The CubeSat will get to orbit in February 2021 on a SpaceX Falcon 9. After deployment from the F9 upper stage, it will get to its target orbit with the help of a Momentus Vigoride transfer vehicle:

** Rocket Lab Electron rocket successfully launched the ANDESITE cubesat built by the BUSAT (Boston University SATellite) group: Rocket Lab launches Boston University’s magnetosphere experiment – As described here back in March, ANDESITE will

… release eight small satellite sensors in space to form a first-of-its-kind free-flying mesh network capable of delivering uniquely comprehensive data mapping of magnetic fields and space weather to our smart phones here on campus.”

Illustration of the ANDESITE 6U cubesat with picosat deployments. Credits: BUSAT

**  Cal Poly, birthplace of the CubeSat, gets USAF grant for smallsat program: Cal Poly Partnership with Air Force Research Laboratory Will Direct $2.5 Million to Aerospace Engineering Department

Funding Aims to Boost Mini-Satellite Program for Space Exploration

SAN LUIS OBISPO – Cal Poly’s partnership with the Air Force Research Laboratory will direct roughly $2.5 million to enhance the university’s Aerospace Engineering Department and boost its mini-satellite program, which was the catalyst for a substantial expansion of space research two decades ago.

The Education Partnership Agreement (EPA) with the Air Force provides a total of $5 million to be split evenly between Cal Poly and California State Polytechnic University in Pomona. Funding for the partnership was secured by three U.S. representatives from California — Salud Carbajal, Norma J. Torres and Grace Napolitano — through the Consolidated Appropriations Act of 2020 (H.R. 1158).

The EPA’s agreements between a defense laboratory and an educational institution allow the labs to provide laboratory equipment and personnel to the schools, plus career and academic advice to students while involving faculty and students in research.

The EPA will help the Air Force Research Lab pioneer transformative aerospace technologies and accelerate its long-term strategic objectives in key areas, such as energy security, energy optimization, reusability, maneuverability and multi-mission mobility.

In particular, the funds for Cal Poly will support a thermal vacuum chamber with upgraded facilities to support it. A thermal vacuum chamber can be used for testing spacecraft or spacecraft parts under a simulated space environment.

Cal Poly became a major contributor to space research roughly 20 years ago, when former Aerospace Engineering faculty member Jordi Puig-Suari co-created the CubeSat standard with Bob Twiggs of Stanford University. CubeSats are mini-satellites that are affordable and easy to make, allowing governments, schools and private companies worldwide to more easily and affordably explore space and conduct research. 

The new vacuum chamber will allow researchers to test and develop propulsion for CubeSats, allowing for greater control of the satellites for space exploration. Currently, most CubeSats cannot be controlled in space, and propulsion and maneuverability are often viewed as the next major step in CubeSat technology.

** AMSAT news on student and amateur CubeSat/smallsat projects: ANS-166 AMSAT News Service Special Bulletin

  • 38th Annual AMSAT Space Symposium and Annual General Meeting Moving to Virtual Event
  • 15 Canadian CubeSats to launch from 2021 [See also The RAC Report]
  • AMSAT Member Portal Huge Success!
  • BY70-2 with FM-to-Codec2 Transponder Scheduled for July Launch
  • Two Satellites Receive Frequency Coordination from the IARU
  • IARU Submits Paper on Increasing Noise from Digital Devices
  • New Satellite Distance Records Claimed
  • ISS Runs 6558 Astro Pi Youth Programs in 2019/20
  • Upcoming Satellite Operations
  • Hamfests, Conventions, Maker Faires and Other Events
  • ARISS News
  • Satellite Shorts from All Over

General CubeSat/SmallSat info:

** SSMS inaugural flight on Vega – ESA

Multiple small satellites will be launched at once on the Vega VV16 mission from Europe’s Spaceport in Kourou, French Guiana. This flight will demonstrate the modular SSMS dispenser resting on its upper stage intended to bring routine affordable launch opportunities for light satellites from 0.2 kg CubeSats up to 400 kg minisatellites. Until now the smallest classes of satellites – all the way down to tiny CubeSats, built from 10 cm modular boxes – have typically ‘piggybacked’ to orbit. They have to make use of any spare capacity as a single large satellite is launched, meaning their overall launch opportunities are limited. The new Vega Small Spacecraft Mission Service switches this into a ‘rideshare’ model, with multiple small satellites being flown together, splitting the launch cost…

=== Amazon Ad ===

Introduction to CubeSat Technology and Subsystem:
Orbit Design, Debris Impact, and Orbital Decay Prediction

Student and amateur CubeSat news roundup – June.9.2020

A sampling of recent articles, press releases, etc. related to student and amateur CubeSat / SmallSat projects and programs (find previous smallsat roundups here):

** Univ. of New Hampshire students to built CubeSat to study Earth’s upper atmosphereUNH Space Science Center offers out of this world experience – Univ. of New Hampshire

Scientists from the University of New Hampshire’s Space Science Center will use a $4.6 million grant from NASA to create a project that will offer a diverse group of college students from across the country hands-on research experience designing and building small satellites that will be launched into outer space and collect data for one of NASA’s space missions.

The Student Collaboration Project, led by Noé Lugaz, a research associate professor of physics, aims to work in conjunction with NASA’s Interstellar Mapping and Acceleration Probe (IMAP) mission and build off of the collected data to provide firsthand research experience for undergraduate and graduate students and help to diversify the field of space science.

“We’re missing out on so much potential with great people out there,” said Lugaz. “Most science projects are publicly funded, and we want to expand access to college students who are qualified and have a passion for science to get involved, no matter what their major. We are hoping to inspire them, even if it’s just for one year. We think we can really start to make a difference.”

Project coordinators will recruit the first group of students from three universities–UNH, Howard University in Washington, D.C. and Sonoma State University in California. During the five-year project, students from each university will design and build a CubeSat–a small satellite the size of a half-gallon of milk–that will have an instrument that can quantify the concentration of oxygen in the Earth’s upper atmosphere and provide scientists with clues about the effects of the solar wind. This is the region where many satellites are located and knowing more about the atmosphere’s density could help determine their orbit and lifetime.

The student built CubeSats will launch in 2024 separately from the main IMAP mission but at the same time in order to collect complementary data. The CubeSats will be in space for about four months and will be located much closer to the Earth than the other IMAP instruments.

** Technical Univ. of Budapest SMOG/P/ATL-1 picosats measure spectra usage globally.

The pocketqube style satellites were launched in Dec. 2019 along with four other picosats on a Rocket Lab Electron rocket and ejected into orbit via a deployer from Alba Orbital.

SMOG-P pocketqube -Technical Univ. of Budapest

See also SMOG-P (MO-105) and ATL-1 (MO-106) – CubeSat and LEO Satellites – AMSAT Deutschland e.V. Forum.

** RamSat built by Oak Ridge Tennessee middle school students to go to the ISS in the autumn:  For members: RMS satellite scheduled to launch in September – Oak Ridge Today

The small cube satellite built by Robertsville Middle School students with help from teachers, mentors, and NASA is scheduled to launch on a resupply rocket to the International Space Station in September, and it could be deployed into orbit a few hundred miles above Earth in October.

Testing of the satellite and its components, including a battery test and vibration tests, was scheduled to start this week.

** AMSAT news on student and amateur CubeSat/smallsat projects:

ANS-152 AMSAT News Service Special Bulletin:

  • Temporary Rule Waivers Announced for 2020 ARRL Field Day
  • IARU-R2 Workshop Videos Available
  • Digital Mode Experiments Conducted on Linear Satellites
  • SpaceX Launches Successfully Toward ISS
  • Moonbounce Contact via FT8 Could be a First
  • Mid-Altitude Balloon Race Planned for June 1
  • ARISS News
  • Upcoming Satellite Operations
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Satellite Shorts From All Over

ANS-159 AMSAT News Service Special Bulletin:

  • Newly Revised 2020 Digital Edition of “Getting Started with Amateur Satellites” Now Available
  • Amateur Radio on the International Space Station (ARISS) Team in the United States Creates a New Organization: ARISS-USA
  • AMSAT President’s Statement on Creation of ARISS-USA
  • Back Issues of The AMSAT Journal Available to AMSAT Members
  • AO-73 Now in Full-Time Transponder Mode
  • VUCC Awards-Endorsements for June 2020
  • KG5FYJ Assigned to Upcoming ISS Mission
  • A New Way to Obtain GP Data (aka TLEs)
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Upcoming Satellite Operations
  • Satellite Shorts from All Over

See also:

General CubeSat/SmallSat info:

RainCube: “(a) The integrated radar payload and flight avionics in the 6-U bus chassis. (b) The fully integrated RainCube satellite including the solar panels and the deployed radar antenna.” Credits: SPIE, RainCube
    • Coast Guard Auxiliary Supports Research Efforts – MarineLink – “As part of the DHS Science & Technology Polar Scout CubeSat project, the RDC constructed a satellite ground station in Fairbanks, Alaska. This labor-intensive effort required the construction of an 18-foot radome structure. The successful completion on this ground station provided a valuable resource for the Coast Guard and DHS while testing CubeSat technology in support of Arctic search and rescue.

** Smallsat built at UNSW Canberra at the Australian Defence Force Academy to fly on next Rocket Lab Electron launch:

**  NASA STEM Stars: CubeSats

“NASA STEM Stars” is a web-chat series that connects students with subject matter experts to learn about STEM careers and ask questions about STEM topics. This week, “NASA STEM Stars” is joined by aerospace engineer Allison Evans, who specializes in CubeSats. Learn about her path to NASA and how she ended up building and testing spacecraft the size of a loaf of bread.

** Hiber smallsat constellation will provide IoT services for a diversity applications such as assisting beekeepers:

** 1st “Make Space Boring” virtual conference – Jason Kanigan – Lowering the 40%+ Smallsat Failure RateCold Star Technologies – YouTube

Jason Kanigan of Cold Star Tech speaks at the first “Make Space Boring” virtual conference. His topic is lowering the awful 40%+ partial plus full mission failure rate of small satellites.

** Building small satellite/cubesat missions in Indian universities

What goes into building a cubesat program at a university? What are the difference between university teams trying to build satellites in India against US? How can we improve the overall ecosystems in academia to build more student missions in India? Here are some great insights from Sharan. NewSpace India Episode 25 June 5, 2020

=== Amazon Ad ===

Introduction to CubeSat Technology and Subsystem:
Orbit Design, Debris Impact, and Orbital Decay Prediction

Student and amateur CubeSat news roundup – May.24.2020

A sampling of recent articles, press releases, etc. related to student and amateur CubeSat / SmallSat projects and programs (find previous smallsat roundups here):

** NASA grant for Univ. of Hawaii team developing CubeSat kits for undergraduate projects:  UH awarded $500K to develop small-satellite educational kits | University of Hawaiʻi System News

In a bold new initiative to inspire the next generation, NASA has awarded $2.4 million to six universities, including the University of Hawaiʻi at Mānoa, as part of its Artemis Student Challenges. UH Mānoa received $500,000 to create to create an affordable 1U CubeSat kit, which will help develop a robust aerospace program starting at the undergraduate level, including hardware, software and an online lab course.

UH Mānoa will generate hands-on learning opportunities related to orbital and suborbital CubeSats, miniaturized satellites for space research, containing all of the subsystems of fully functioning passive satellites. Each CubeSat will include onboard computing, communication components, dynamic sensors, an infrared camera and an electrical power system. Undergraduate students will help develop all aspects of the project under the guidance of Hawaiʻi Space Flight Laboratory (HSFL) engineers, and will have paid internship positions.

“We are proving that smallsats are absolutely within the realm of an undergraduate education and will develop this course into a national online course in the public domain through a popular online learning platform,” said Frances Zhu, Hawaiʻi Institute of Geophysics and Planetology assistant researcher.

The hands-on learning opportunities will be supplemented with online learning resources. The grant will also be used to assist CubeSat projects from states that are not yet part of NASA’s CubeSat Launch Initiative. This team will include a broad network of students from Hawaiʻi and Washington to perform the initial evaluation of the learning products.

Here was the grant announcement: NASA Funds Artemis Student Challenges to Inspire Space Exploration | NASA

University of Hawaii, Honolulu – $500,000: The university will generate hands-on learning opportunities related to orbital and suborbital CubeSats containing all of the subsystems of a fully functioning passive satellite. Each CubeSat will include onboard computing, communication components, dynamic sensors, an infrared camera and an electrical power system. The hands-on learning opportunities will be supplemented with online learning resources. The grant will also be used to assist CubeSat projects from states that are not yet part of NASA’s CubeSat Launch Initiative. This team will include undergraduate students from the University of Hawaii in Honolulu. A broad network of students from Hawaii and Washington will be included in performing the initial evaluation of the learning products.

UH Manoa awarded $500k for Artemis Project – Hawaii Space Flight Laboratory

New faculty member, Dr. Frances Zhu, recently applied for and won one of six NASA Artemis Student Challenge Awards. She is the PI on this exciting new project to create a foundation enabler 1U CubeSat for $5000 or less per unit with an online lab course. This will help undergraduate programs interested in starting an aerospace track to do so. The goal of the kit is not solely for space flight, it can be used as a tabletop sensor suite, avionics for a sounding rocket, the payload balloon or suborbital mission, a sensor pack for a rover, and more. The team responsible for designing, fabricating, and testing the kit will include HSFL Facu lty, Staff, and undergraduate students. The project kickoff was held on May 18.

Diagram of the NEUTRON-1 CubeSat in development by  the Hawaii Space Flight Laboratory (HSFL) at the Univ. of Hawaii. The spacecraft will measure low energy neutron flux in the low Earth orbit environment. Credtis:HSFL


** AMSAT news on student and amateur CubeSat/smallsat projects:

ANS-138 AMSAT News Service Special Bulletin

  • AMSAT Receives PPP Funds During COVID-19 Pandemic
  • [HuskySat-1 (HO-107) Transponder is Open – ARRL]
  • HuskySat-1 Designated OSCAR 107 (HO-107)
  • AMSAT Executive VP Congratulates HuskySat-1 Team
  • New Satellite Frequency Chart Is Free to Members
  • ARISS Continues Test of MultiPoint Telebridge Contact via Amateur Radio
  • 10th Annual GNU Radio Conference Goes Virtual
  • AMSAT-EA Receives IARU Coordination for Two Satellites
  • AO-7 Delivers Stunning Contact
  • UN Launches Second Space4Youth Competition
  • Upcoming Satellite Operations
  • ARISS News
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Satellite Shorts from All Over

 ANS-145 AMSAT News Service Weekly Bulletins

  • AMSAT Announces 2020 Field Day Rules
  • AMSAT Awards Update
  • AO-27 Returns from the Dead
  • Updated GOLF Project Information Available
  • Changing HuskySat-1 Keps Name in FoxTelem
  • Hack-a-Sat Team Boasts Exceptional Participation
  • Upcoming Satellite Operations
  • ARISS News
  • Hamfests, Conventions, Maker Faires, and Other Events
  • Satellite Shorts From All Over

See also: Two New Chinese Ham Satellites Expected to Launch in September –

General CubeSat/SmallSat info:

** Launching Both CubeSats and Events With SEDS Rice President Ryan Udell – Via Satellite

SEDS Rice Chapter President Ryan Udell gives us an example of next-gen space leadership. An engineering major eager to connect his fellow students with the greater space industry, Ryan has taken it upon himself to revamp the SEDS chapter at his university, transforming the club from a single member to over 30!

From there, he founded and hosted the inaugural Owls in Space Symposium event, which featured attendees such as NASA Administrator Jim Bridenstine and NASA astronaut Dr. Peggy Whitson. Additionally, he led Rice University’s entry into the NASA CubeSat launch initiative project, which was 1 of 18 winners to be launched into space. 

In this episode, On Orbit talks to Ryan about the similarities and differences in leading (and launching) two very different projects, and what it takes to be a next-gen space leader.

** Craig Clark – Pioneering the UK Smallsat Industry – Cold Star Project S02E37

Founder & CSO of AAC Clyde Space Craig Clark is on the Cold Star Project, and our topic is how Clyde has strongly contributed to the pioneering of the UK small satellite industry. With host Jason Kanigan, Craig shares:

– what the most important thing he learned from 11 years as a team leader at Surrey Satellite Tech was
– a snapshot of the UK space industry…where he believes its principle expertise or competitive advantage is, and where it is headed
– what he learned on the UK’s Space Leadership Council, and what impact he believes the Council has
– how Clyde minimizes the smallsat field’s awful 40+% partial plus full mission failure rate…what he has learned about refining quality assurance to produce cubesats in bulk without compromising reliability
– what the most challenging thing at the moment is, given that getting people together to manufacture something is not easy to achieve
– the mission he is most proud of so far, and why.

AAC Clyde Space website:

=== Amazon Ad ===

Introduction to CubeSat Technology and Subsystem:
Orbit Design, Debris Impact, and Orbital Decay Prediction