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Discover the ultimate onboarding checklist for a seamless BroadSim experience. Access tutorials and resources to enhance your onboarding checklist. Home • Support • BroadSim Onboarding Getting Started with BroadSim Learn how to use the Skydel Simulation Engine with our BroadSim line of products, from the moment you receive your package to setting up your first scenario. Onboarding and Tutorials Our onboarding series will help you learn more about your BroadSim device. BroadSim Onboarding: Getting Started Play Video Play Video 04:20 BroadSim Unboxing Tutorial Orolia Defense & Security Applications Engineer, Alaiya Tuntemeke-Winter, takes you through the process of unboxing your BroadSim. Learn more about BroadSim: 🔗https://www.oroliads.com/broadsim User Manual: 🔗https://owncloud.talen-x.com Play Video Play Video 06:22 BroadSim Setup Tutorial Follow along with Orolia Defense & Security applications engineer, Alaiya Tuntemeke-Winter, as she takes you through the process of setting up your new BroadSim. Learn more about BroadSim: 🔗https://www.oroliads.com/broadsim User Manual: 🔗https://owncloud.talen-x.com Play Video Play Video 07:36 BroadSim Operating System Overview Follow along with Orolia Defense & Security applications engineer, Joshua Prentice, as he takes you through our third onboarding video, which now covers our custom BroadSim operating system. Learn more about BroadSim: 🔗https://www.oroliads.com/broadsim User Manual: 🔗https://owncloud.talen-x.com Play Video Play Video 02:12 Skydel Automation This video gives an overview on Skydel's innovative automation panel. The Automation panel makes automating GNSS simulation an easy task by automatically recording everything that happens in the Skydel UI, and any commands issued through the API. These commands can then be edited, saved, and played back as a sequence, much like a macro.These commands can also be exported as a python script which you can modified instead of starting with a blank page for your automated tests. These features are designed to save time so you can spend more time on your own product development. Learn More: https://safran-navigation-timing.com/solution/skydel-advanced-gnss-simulation/ Play Video Play Video 06:08 Skydel Real-Time Performance Tutorial A tutorial on using the Real-Time Performance feature of the Skydel Simulation Engine. Learn more at https://www.orolia.com/solution/skydel-advanced-gnss-simulation/ BroadSim Onboarding: Advanced Territory Play Video Play Video 14:18 Advanced GNSS Spoofing Simulation Tutorial Contact us today to learn more or to add this capability to your BroadSim: sales@OroliaDS.com Discover the endless possibilities of spoofing testing. Advanced Spoofing is a powerful, intuitive tool that allows users to quickly create and automate a multitude of dynamic spoofing scenarios. This feature is available now with BroadSim, powered by the Skydel Simulation Engine. https://www.oroliads.com/broadsim #PNT #GNSS #GPS #Spoofing #BroadSim #Orolia --- Music: https://icons8.com/music/author/moroza-knozova Play Video Play Video 04:06 IQ File Scenario In our latest Support Tutorial, we walk you through the process, use cases, and benefits of using IQ Files within our Skydel Simulation Engine. For more information, visit https://www.orolia.com/skydel-onboarding/ Play Video Play Video 01:57 Terrain Modeling with BroadSim powered by Skydel Orolia Defense & Security Applications Engineer Supervisor, Jaemin Powell, gives a behind-the-scenes view of the new terrain modeling feature supported across our BroadSim platform. The example Jaemin gives directly correlates to a real-world scenario that can be completed in any type of field test as a more cost-effective alternative. Learn more about BroadSim: 🔗https://www.oroliads.com/broadsim Play Video Play Video 06:27 Wavefront Calibration Tutorial Thanks to the Skydel Simulation Engine, Skydel’s Wavefront Systems have eliminated the calibration inefficiencies by autonomously time, phase and power aligning the signals for you. Using real-time monitoring the CRPA signals are assured to be synchronized within 1° for the duration of the simulation. This continuous calibration is imperative to keep your signals aligned through temperature fluctuations on the wavefront system. Now you can focus on the more important tasks of testing, verifying, and validating your CRPA navigation system’s performance without calibration concerns. Check out this video to learn more about Skydel’s Wavefront Systems capabilities! The Next Generation of CRPA Testing Reimagined for the User: https://www.youtube.com/watch?v=ae3tzko3vac&list=PLIPe8ACXJUl3OPp_bCgEU_zxD9244Fkdl For more information, visit https://www.oroliads.com/ Skydel Resources What you need to get started, served up below. About Skydel Button Advanced Simulation with Modern, Software-based Flexibility. Fundamentals Course Button GNSS concepts, basic simulations, requirements, settings, outputs, and more. Advanced Certification Button Build your test engineering skills or level up your career with our free Skydel Certification courses. Learn the ins and outs of these tools and features through convenient video tutorials Button Advanced Spoofing Button Automation Button Real-Time Performance Button IQ File Other Resources Button PNT Library Learn more about PNT and GNSS applications Button Button Software Releases Button

Breaking Barriers: Women In Science Defense technology demands precision, reliability, and innovation—and women at Safran Federal Systems are at the forefront of making it happen. On National Women and Girls in Science Day, we are highlighting Lindsay Fitzgerald, a Senior Quality Engineer, whose expertise ensures that every system meets the highest standards of quality and reliability. Her journey in STEM is one of determination, problem-solving, and breaking barriers. Today, she shares what inspired her path, the impact of her role, and advice for the next generation of women in science. A Love For Science and Learning From an early age, Lindsay was drawn to the mechanics of how things worked. Whether she was solving complex problems or devising innovative solutions, she was captivated by the STEM world. “I am inspired by science, my love for learning sciences, and endless world of learning, and I love solving complex problems and being innovative. And my science career took off when I was a young girl.” This fascination led her to pursue a career in the STEM field, ultimately leading her to work in the defense industry, where she plays a crucial role. Ensuring Excellence Every system, product, and process she oversees must meet rigorous industry and government standards, leaving no room for error. Her work involves collaborating with different teams to ensure that the technology is both effective and secure. “I'm a quality engineer here and quality is a super critical role in making sure that our processes are sustainable and reliable, so that we're producing quality products that meet customer requirements and industry requirements. So in the defense industry, our end users our military operations, so it's super critical. That they receive products they can trust just given the high-stakes nature of the business.” Her role is not just about enforcing standards but ensuring that every component meets the demands of the end-users and industry. From Aspiration to Leadership Every career has a key moment that defines and strengthens an individual’s path. After years of hard work, persistence, and breaking barriers, Lindsay achieved her goal of becoming a leader in the quality industry. “A defining moment I would say is becoming a leader in the quality industry not only have I been able to achieve my career goals as a woman in science, I'm helping others do the same. So being a leader in the role has really helped shape who I am today.” Her journey is proof that persistence and self-confidence can break down barriers, opening more doors for women to rise in the science and engineering fields. With the position she has reached, she knows she can drive meaningful change as a woman in science. Owning Your Space The path into STEM isn’t always easy. There will be challenges along the way, but the future depends on diverse perspectives—on people who think creatively, solve problems uniquely, and bring new ideas to the table. Here is some advice for women considering a career in STEM: “Advice to other women, I would say set goals, start small but dream big. Don't let anyone tell you that you can't achieve them and never be afraid to speak your mind and if STEM is a field that you're passionate about, then go for it. The world is yours.” Empowering Women in Science Lindsay’s story serves as both inspiration and a call to action for those interested in the field. For those considering a path in STEM, the opportunities to make a difference are limitless. The next breakthrough, the next advancement, the next leader in defense technology could be you. Feeling inspired? Explore career opportunities at Safran Federal Systems CAREERS

Our expertise in inertial sensors technologies (optical, laser & optical fiber, mechanical dynamically tuned, vibrating) enables a family of already well proven stabilization units. Home • Products • Inertial Navigation Systems • BM Series BM Series Rate Gyro Units BM Series PRODUCT | INERTIAL NAVIGATION SYSTEMS Rate range Up to 400°/sec Scale factor accuracy +/-0.1% (-40°C to +85°C) Noise (0.1-100Hz) <0.015 deg/sec rms) ANY QUESTIONS? GET QUOTE About Our expertise in inertial sensors technologies (optical, laser & optical fiber, mechanical dynamically tuned, vibrating) enables a family of already well proven stabilization units. This dynamically tuned gyroscope has been selected in order to offer to the user the best compromise between accuracy required for stabilization purposes, robustness, reliability and price. These units also include a DC/DC converter and filters fully compliant with Mil Std 461 and Mil Std 1275 in block version. Rugged, reliable gyros Dynamically Tuned Gyroscope & Gyrometer High Performance, Accuracy, & Reliability Compact &Robust Click to download the data sheet. VIEW DATA SHEET

Explore VersaSync, the master clock and network time server designed for precision in harsh environments, including GPS denied environments. Home • Products • Assured PNT • VersaSync M-Code VersaSync Rugged GPS Time & Frequency Reference VersaSync M-Code PRODUCT | RESILIENT PNT Ruggedized MIL-STD-810G, MIL-STD-461F, IP65 M-Code Connector: SMA, +3.3V to power active antenna Receiver input: L1/L2 Crypto Key input: DS-101 /DS-102 key loading, front panel connector Security: M-Code (MPE-M) MGUE Coordination through SMC Production Corps, FMS ANY QUESTIONS? GET QUOTE About VersaSync is a high-performance GPS master clock and network time server that delivers accurate, software-configurable time and frequency signals in harsh environments, including GPS-denied areas. Now with M-Code ! Applications – Ground – Airborne – Marine/Naval Options – Wide variety of time and frequency signals – Software configurable inputs/outputs – Network sync, set-up and management – Customized COTS available – VICTORY compatible (optional) – Low phase noise OCXO options – High stability mini rubidium option – Alternative Navigation option Easy integration of time and frequency functionality into systems architecture. Click to download the VersaSync data sheet. VERSASYNC DATA SHEET

Discover the business credentials of our defense company. Explore how our defense company excels in technology and contracting information. Home • Company • Business Credentials Business Credentials Serving U.S. Government agencies, U.S. Defense organizations, and their contractors Company Contracting Information Orolia Defense & Security, LLC 320 N Goodman St, Ste 101 Rochester, NY 14607-1185 Office: (585) 250-1545 Fax: (585) 682-8761 CAGE Code: 81R74 DUNS: 081081640 Primary NAICS Code: 541715 - Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology) Additional NAICS Codes: 334111, 334118, 334220, 334290, 334419, 334511, 334515, 334519, 541330 Orolia Government Systems, Inc. 320 N Goodman St, Ste 101 Rochester, NY 14607-1185 Office: (585) 250-1545 Fax: (585) 682-8761 CAGE Code: 826V3 DUNS: 081076087 Primary NAICS Code: 541715 - Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology) Additional NAICS Codes: 334111, 334118, 334220, 334290, 334419, 334511, 334515, 334519 Talen-X, Inc. 1610 SW Main St, Ste 202 Ankeny, IA 50023 Office: (585) 250-1545 Fax: (585) 682-8761 CAGE Code: 7NK54 DUNS: 080258032 Primary NAICS Code: 334511 - Search, Detection, Navigation, Guidance, Aeronautical, and Nautical System and Instrument Manufacturing Additional NAICS Codes: 334118, 334220, 541330 ISO-9001:2015 Certified by NQA Orolia Defense & Security is committed to upholding compliance and process standards that assure quality, confidence, and trust in our products. To demonstrate this, Orolia Government Systems, Inc. has been ISO-9001:2015 certified by National Quality Assurance, U.S.A., an ANAB accredited organization, as a service provider of Position, Navigation and Timing (PNT) solutions for public safety, aerospace/defense, and commercial critical infrastructure. VIEW CERTIFICATE Code of Ethics Corporate responsibility and ethical behavior are critical to the success of our business. As we continue to grow and expand, conducting ourselves ethically and with integrity is at the core of our actions and decisions. Our Code of Ethics embodies and reinforces our commitment to integrity, explains our policies and provides guidelines for conducting business throughout the world. Each one of us is expected to know and understand the Code of Ethics and to abide by its principles. DOWNLOAD Consortium Memberships Technology and Industry Consortiums Orolia Defense & Security holds membership with and participates in multiple consortiums that help to foster collaboration and leverage expertise from the community in order to a dvance technology, support industry sustainability and growth, and ultimately to protect and assert our warfighters position. Consortium Management Group | C5 ⭢ C5 is a consortium composed of leading companies and institutions in the C4ISR and cyber technology sectors. C5 accelerates the development and deployment of new capabilities to the Warfighter through the use of Other Transaction Authority. C5 gives members an innovative and commonsense acquisition mechanism for development of new technologies and products to meet government customer requirements. The National Armaments Consortium (NAC) ⭢ The NAC is a consortium of over 850 companies and academic institutions brought together to enhance warfighter capability, lethality and survivability by leveraging the nation’s industrial and academia research, development, and acquisition base to advance and expand U.S. military technological superiority. The NAC is the preeminent collaboration organization that enables Government, Industry, and Academia to deliver rapid Armaments innovation for the Nation’s security. AMTC is a team of industry leaders and innovative small companies collaborating to rapidly develop and mature guided missile and aviation technologies to enhance our national security. Aviation & Missile Technology Consortium (AMTC) ⭢ The DOTC integrates the DoD Ordnance community to work collaboratively in RDT&E of prototype solutions to advance and transition ordnance systems, subsystems and component technologies. Their mission is to enhance our Warfighter’s lethality, survivability and combat effectiveness by facilitating the industrial and academic R&D and technology demonstrations needed to advance and expand our military technological superiority. Department of Defense Ordnance Technology Consortium (DOTC) ⭢ The VLC is a collaboration of traditional and nontraditional government contractors, small and large businesses, for-profit and not for-profit entities, academic organizations, and their affiliated organizations to work collaboratively with the U.S. Government to develop and transition innovative vertical lift technologies to rapidly and affordably meet warfighter needs. Vertical Lift Consortium (VLC) ⭢ The NASC is an agile, collaborative and enduring enterprise with world-class capabilities that will provide the Navy with broad reach, robust competition and a comprehensive range of technology solutions. Through its unique structure, consortium members will be able to work with the Government to identify opportunities, target their technology offerings, expand into new markets and grow their businesses. Naval Aviation Systems Consortium (NASC) ⭢ SOSA enables government and industry to collaboratively develop open standards and best practices to enable, enhance and accelerate the deployment of affordable, capable, interoperable sensor systems. SOSA is creating open system reference architectures applicable to military and commercial sensor systems and a business model that balances stakeholder interests. The architectures employ modular design and use widely supported, consensus-based, nonproprietary standards for key interfaces. Sensor Open Systems Architecture™ (SOSA) ⭢ The NSC builds bridges between key stakeholder groups – government and industry; industry stalwarts and startups; and civilian and military suppliers and users – to deliver two essential outcomes: 1) breakthroughs in spectrum- and spectrum-dependent capabilities; and 2) policy and regulatory insights to enhance, inform and sustain U.S. technical leadership. National Spectrum Consortium (NSC) ⭢ The NSTIC is comprised of small and large businesses, academic institutions, and nonprofits collaborating to improve naval capabilities and deliver innovative solutions across a wide array of technology areas that address current and future threats in the surface and maritime environment. Naval Surface Technology Innovation Consortium (NSTIC) ⭢ Space Enterprise Consortium (SpEC) ⭢ SpEC was created to bridge the cultural gap between military buyers and commercial space startups and small businesses, with the mission to minimize barriers to entry, promote integrated research and prototyping efficiencies and leverage partnerships to increase flexibility and agility, reduce cost, improve technology and decrease program development cycles. VULCAN (A CYLITIX Platform)⭢ Vulcan Technology Domain Awareness is a technology scouting platform used by diverse communities of practice to accelerate the delivery of innovative solutions to emerging challenges, through a connected ecosystem built to expand discovery, enhance collaboration with 550+ participating defense organizations and 15,000+ tech organizations. Defense Industrial Base Consortium The Manufacturing, Capability Expansion, and Investment Prioritization Directorate (MCEIP) established an Other Transaction Agreement (OTA) to enable rapid research, access to commercial solutions for defense requirements, and innovations from industry, academia, and non-traditional contractors. DIBC members focus on identifying, developing, and testing cutting-edge capabilities at the speed of innovation. Training & Readiness Accelerator II TReX II offers federally funded research and business opportunities for large and small companies and academia, especially small and emerging companies that have not traditionally worked with the Government in the past. TReX II members focus on identifying, developing, and testing modeling, simulation, and training capabilities at the speed of innovation.

This whitepaper explains the importance of simulation in response to new constellations, the benefits of developing a test environment alongside the development of the constellations, and how a flexible system is best equipped for the advent of new LEO constellations... LEO PNT: Developing Simulation Environments Alongside New LEO Constellations Copy DOWNLOAD PDF By Alaiya Tuntemeke-Winter As more technology utilizes satellites for PNT information, it is integral to develop ways to test the functionality of PNT systems before they are deployed. It has become increasingly useful to develop a test environment for LEO constellations alongside the development of the constellations themselves. A flexible simulation system that can evolve is best equipped for the advent of new LEO constellations. Developing simulation hand in hand with developing the constellation itself has several advantages. Simulation can be implemented at various stages of the process. By developing new constellations and simulation simultaneously, the PNT system can be thoroughly tested before the satellites are deployed. This can further streamline the process between the developers of the constellation and the receivers with quick feedback loops to assist in the design. It can lead to increased communication with the receiver developers and give more insight in addition to modeling. It also means that simulation capability can be available along with the introduction of the constellation itself. In the past, there have been instances of the constellation being deployed but there being few ways for the receiver manufacturers to test their solutions, slowing down the development process. By testing using simulation, developers can test functionality early in the development process, rather than awaiting deployment of the constellation for the chance to field test; receivers and systems can be tested during development for common problem scenarios, such as GPS denied environments via canyons or other outages as well as other types of vulnerabilities. This can give developers a head-start in vetting potentially unforeseen issues the receiver may experience using the new constellation. After implementation simulation can be used to repeat any problems encountered in field tests for faster and more effective testing. Fixes can be implemented in a lab setting before going out again for field testing. This can save time and resources, as there is no need to go all the way to the field test stage every time a problem arises or to test a fix. Using a simulation test bed helps to speed up the development process and to save time and money throughout. Developing simulation alongside the development of the constellation gives simulators the time they need for the capability to be ready when the constellation deploys. If simulation development does not begin until after the constellation is deployed, the development of receivers that can use the new constellation data may be slowed by the inability to test and collect data. Some types of simulators take more time to develop the ability to simulate new constellations, as they may need to develop new software, hardware, or a combination of both. Parallel development of the new constellation and the simulation test bed allows for both simulation capability and constellation availability to time align in the development process. The BroadSim product line provides a dynamic simulator within its software-defined architecture. It is “future-proof” as it can grow and change with new constellations or changes in old ones. It also takes advantage of commercial off-the-shelf (COTS) products to increase system performance. This means two things; one, rather than focusing on hardware improvements, the engineers can focus on the simulation side of the system. Two, upgrade cycles are possible more frequently. BroadSim provides open-source libraries and plug-ins to increase the capability of their simulation solution. One major benefit of software-defined simulation systems regarding LEO constellations is that the GPU can handle the generation of more signals than a traditional FPGA-driven simulation solution. This is because in a true software-defined system there are no fixed hardware channels limiting the number of signals that can be generated. This is especially relevant in LEO constellations as there are more satellites in LEO orbit than there are in the GNSS constellations that have been simulated in the past. Another benefit is that if the limit is ever reached, a GPU can simply be added, and the same simulation tool can continue to be used. This leads to another benefit – the flexibility of the system. New constellations can be incorporated with software instead of additional hardware. This means when new constellations are complete, developers can access those new constellations with a mere software update. Software-defined simulators evolve to support LEO constellations and more rapid development. How simulation can aid development Examples of software-defined simulation in BroadSim BroadSim is an example of this flexibility in motion. With BroadSim, new constellations and signals become available in the tool as they are introduced or are more commonly used in receivers, such as QZSS, BeiDou, and M-Code. Simulators allow users to thoroughly test how receivers or whole systems work during specific scenarios, giving them the ability to see all-in-sky satellites and terrain effects, and provide refresh rates that translate into real-time processing for fast-moving applications. This makes it possible to test acquisition time, view relative receiver power data, and collect other relevant data to further development, as well as automate commands to speed up testing. The flexibility of the system is demonstrated by its proven ability to simulate existing LEO constellations. Using BroadSim powered by Skydel, there are multiple built-in ways to create LEO constellations. One such way is using BroadSim’s plug-in tool, which has already seen success. This tool allows users to develop features and integrate them into the BroadSim user interface and real-time simulation engine. BroadSim also provides the ability to modify existing constellations with custom signals and the addition of data sets to manipulate orbital and ephemeris data. In the future, a growing list of constellations will become available for selection within the tool. Orolia Defense & Security is integrating new constellations today, and can help do the same for yours. BroadSim Simulation In conclusion, developing simulation capability alongside the development of constellations is to the advantage of the engineer who will be able to test without delay. Those simulators can aid in the design process by allowing rapid testing and development, speeding up time to market, and increasing cost savings by reducing field test cycles and hours. Software-defined simulators are more equipped to handle LEO constellations. They are not limited in the number of signals they can produce via hardware; they are agile in that they can increase available constellations and capability without needing any hardware upgrades. New features and constellations are available with just a software upgrade, and the user community can create new ways to use the tool using open-source plug-ins to meet their needs. BroadSim already has initial support for LEO simulation using the plugin tool and Orolia is actively taking inquiries from users and providers to partner with them and integrate their solution. DOWNLOAD PDF

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