NewOrbit Space’s Post

Satellites use solar panels to harvest energy from the sun to power their internal space electronics: modern, AI-enabled payloads for Telecommunication, Earth-Observation, Space-Debris Retrieval, Space-Domain Awareness and In-Orbit Servicing applications require multiple voltages with specific current and sequencing needs. The video demonstrates the use of an active load to verify the space power electronics can supply supplies the mission’s needs reliably and cleanly. Spacechips’ Design Consultancy Department develops bespoke Space Electronics’ hardware and software solutions for satellite and spacecraft manufactures, as well as advising clients on technology selection, designing, testing, assembling and manufacturing Space Electronics. Spacechips’ Avionics Testing Department develops bespoke hardware and software test solutions for all stages of satellite development: from verifying the functionality of hardware demonstrators and validating proof-of-concepts during the prototyping phase, to spacecraft validation at the qualification stage, to automated testing during productization followed by regular in-orbit checks of transmission links to monitor and confirm quality of service.   What are your Satellite Technology Design and Test Challenges? Contact Spacechips to realise your Satellite Technology ambitions! 

🛰️ From Concept to Cosmos: The Journey of a Satellite's Creation 🌌 Have you ever wondered how those marvels of engineering orbiting our planet are brought to life? The satellite manufacturing process is a complex yet fascinating journey, involving a series of meticulous steps. Let's take a simplified look at the key stages involved: 1️⃣ Design and Engineering: * This crucial phase involves defining the satellite's mission, requirements, and specifications. * Engineers design the satellite's structure, subsystems (power, thermal control, propulsion, etc.), and payload (communication antennas, sensors, etc.). * Rigorous simulations and analyses are conducted to ensure the design's feasibility and performance. 2️⃣ Component Procurement and Fabrication: * Once the design is finalized, individual components are sourced or custom-built. * This includes everything from solar panels and batteries to onboard computers and communication antennas. * Quality control is paramount to ensure each component meets stringent space-grade standards. 3️⃣ Assembly, Integration, and Testing (AIT): * Components are carefully assembled and integrated into the satellite's structure. * Extensive testing is performed to verify functionality, performance, and resilience to the harsh space environment. * This includes thermal vacuum tests, vibration tests, and electromagnetic compatibility tests. 4️⃣ Launch Preparation and Deployment: * The completed satellite is transported to the launch site and integrated with the launch vehicle. * Final checks and preparations are made before the launch. * The satellite is deployed into its designated orbit, marking the beginning of its mission. 5️⃣ In-Orbit Testing and Commissioning: * Once in orbit, further tests are conducted to ensure all systems are functioning as expected. * The satellite is gradually brought into full operational mode. Creating a satellite is a collaborative effort involving engineers, technicians, scientists, and project managers. Each step demands precision, innovation, and a deep understanding of space technology. Which stage of the satellite manufacturing process do you find most interesting?  #satellite #manufacturing #space #engineering #technology #innovation

Over the past decade, CubeSats have grown significantly and are now a viable complement to traditional large satellite technology for various applications, requiring high-gain antennas. Deployable reflectarrays, offering excellent performance with reduced size and cost, are seen as ideal for these needs. Currently, only non-European institutions have launched reflectarrays into space. This project aims to develop a deployable passive reflectarray for CubeSats, enhancing European capabilities and marking a significant step towards having a European reflectarray in orbit. TICRA will handle all radio frequency tasks, including design, analysis, and testing of the reflectarray. Upon completion in 2019, TICRA will be among the few companies worldwide to offer complete reflectarray solutions for CubeSats. #cubesat #satellite #antenna #rf #microwave #telecommunications #electrical #electronics #engineering #linkedin #innovation #technology #creativity #education #networking

In-orbit software update gives satellite PTT capabilitie Read more: 👇👇 https://buff.ly/43o8jem #newtechnology #wireless #worldofengineering #device #smarttech #electronic #smartgadget #technology #electronics #device #techy #technews #Electrical #tech #Critical_comms

When it comes to electronic equipment and devices used in space, reliability is the highest priority. Conducting thermal testing to advance thermal management technology increases the lifespan and efficiency of these mission-critical tools. #electronics #aerospace #producttesting #thermal #technology #equipment https://lnkd.in/grHVu9Ts

#hiring #getintouch 🚀 🛰 DCUBED is hiring in Munich for a Lead Electrical Engineer for our state-of-the-art In-Space Manufacturing programme. European Space Agency - ESA #ScaleUp supporting DCUBED for World’s first in-space manufactured solar array scheduled for SpaceX launch in Feb 2025, paving the way to solve growing power needs of future space applications. Gianluigi Baldesi (Head of Ventures & Finance, ESA): “By having the European Space Agency support the first ever in-space 3D printed solar array via the ScaleUp INVEST programme element, we enable an exciting opportunity for a European company to demonstrate a disruptive technology.” Thomas Sinn (CEO, DCUBED): “Future space applications hinge on more power provision; Thus, solar arrays are among fastest-growing space sectors: +7% p.a., reaching US$ 20 billion by 2029). DCUBED´s ambition is to spearhead new technologies in this sector is now backed by funding of ESA ScaleUp and a partnership with Exotrail. Next Goals: Product launches in 2025/26 and ramp-up production to one solar array per day in next 5 years.”  https://lnkd.in/e5FgG5h3

Power Supply Design Workshop - Optimal Switching Frequency? It's always slightly bothered me that we get 24 high-powered engineers in our lab, and we don't have them find out new things. We are going to change that in our next session in a week or so. We are going to discover through the lab what's the optimal frequency in the range of 100 - 500 kHz to run an isolated two-switch forward converter. Attendees will have access to multiple transformer and inductor core sizes so they can try many different designs. We will have litz and regular wire on hand (maybe some foil for the adventurous?) to build some advanced parts. When we have engineers from the likes of SpaceX at our command center for a week, it seems a shame not to get them doing really useful things! It's going to be a lot of fun, some things won't work for sure, but we will all learn a tremendous amount. How often do you get to do these things? Still time to sign up if you want to be part of this important event! https://lnkd.in/gw2yW6r3

Congratulations to Réaltra Space Systems Engineering that successfully invented and implemented an Irish-owned Video Telemetry System on #Ariane6. This achievement marks a significant milestone in Irish Space Engineering sector. Video telemetry system are revolutionizing data monitoring and control by leveraging advanced electronics and electrical engineering principles. These systems are precise, reliable and efficient operation, making them indispensable across various industries. As technology advances, the capabilities and applications of video telemetry systems will continue to expand, driving innovation and efficiency in Irish Space Engineering. Are you interested in knowing the backbone of this technical system, this would be a great article that explain how it works. https://lnkd.in/eFMSjccK Congratulations again to all the engineer and scientists who had been wonderfully applied their knowledge and effort in growing Irish space power. #SETU #SETUEngineering #Engineering #ESA #Ariane6 #SpaceTelemetrySystem #VIKI #VIKISystem #ArianeGroup #RealtraSpaceSystemsEngineering #Realtra #SpaceEngineering #Irishpride #IrishSpace

Do You Need To Design Reliable, Electronic Products for Satellite Communications, Earth-Observation, SIGINT, ISR, In-Orbit Servicing and Space-Debris Retrieval Applications? Spacechips has just upgraded to Siemens’ Expedition Release 2409 which uses AI to boost productivity for PCB and product development, and to optimise your space-electronics designs. Designing reliable space electronics for use in the harsh environment of outer space is incredibly challenging and for over thirty years, Siemens has been trusted by the global space industry to provide best-in-class EDA solutions to develop out-of-this-world products. Siemens’ Expedition Release 2409 integrates the supply chain connecting design engineers with component suppliers and manufacturing service providers to allow you to make key technology decisions earlier in the development process. Changing demographics and work practices, as well as key skills shortages, allow OEMs to develop products using collaborative teams spread geographically, combining electronic, mechanical, thermal and cabling design data via secure cloud storage. These features allow satellite OEMs to get products to orbit faster, expediting revenue for spacecraft operators and financial return for investors. All future attendees of Spacechips’ training course, Right-First-Time PCB Design & Layout for Space Applications, will get to use and experience Siemens’ Expedition Release 2409, to help you learn by doing! This course will be taught to the global space industry from 2025! A webinar describing Siemens’ Expedition Release 2409 will be broadcast on Thursday September 26th at 16:00 GMT: https://lnkd.in/espUctrb

Friday, October 11, 2024: We now have reusable spacecraft and human-like robots that can interact with us. You can't help but marvel at the ingenuity and complex engineering required to achieve these feats. Makes you think, that beneath every great breakthrough in "macro technology" there are myriad other technologies enabling it. Truly impressed by all of the semiconductor, physics, and electrical engineering talents that have worked on these projects 👏 #semiconductorindustry #engineering #electricalengineering