Category Archives: Research

Cyber security firm BITSCore successfully tested software algorithms on a sub-orbital rocket launch

BRISBANE, Queensland, Australia, 17-Nov-2021 — /EPR AEROSPACE NEWS/ — Australian cyber security company BITSCore has successfully tested two sets of software algorithms on a sub-orbital rocket launched in Queensland, Australia, just a week after testing them on the International Space Station.

The software will help providers to upgrade onboard satellite cyber security as they join the 5G network, and allow satellite customers to request “ride-share” tasking from satellite operators.

BITSCore CEO Dr David Hyland-Wood said the advent of 5G had brought home to the satellite industry the need for new cybersecurity measures to help guarantee their security.

“5G has been a wake-up call for satellite operators everywhere, as they come to understand the need for making sure their satellites, some of which may have been in space for several years, need cyber security assurance,” Dr Hyland-Wood said.

“In recent weeks we did some preliminary tests on the International Space station (ISS), and now we have tested in the harsh environment of a rocket launch,” he said.

“We put the software on a board as physical payload and tested our communications, using internet protocols to exercise our authorisation system.”

This latest SONAR mission (‘Snakes on a Rocket’, named after its Python programming language) test confirms the technology has reached Technology Readiness Level 6 (TRL 6) – system prototype demonstration in a relevant environment.

Also tested in the Black Sky Aerospace rocket was an algorithm which will allow satellite customers to alert operators of task requirements, and operators to pick up those tasks in a ride-share arrangement.

The tasking might include earth observation, communications, navigation, surveillance or monitoring the weather.

The launch took place on one of Black Sky’s outback Queensland space launch sites. The flight reached speeds almost twice the speed of sound and altitude of almost 30,000 feet in about 10 seconds.

Dr Hyland-Wood said that following the successful ISS and rocket launch tests, the next step was to test them in a military exercise environment, followed by continued testing on the ISS.

BITSCore Pty Ltd (bits-core.com) is an Australian cybersecurity company providing unique and powerful distributed computing solutions utilising patented and patent-pending technologies. These include satellite command and control, provably secure data storage, and advanced command authorisation services. BITSCore is headquartered in Queensland and serves governments and corporations in countries allied with Australia.

SOURCE: EuropaWire

Neural Concept renews multiple-year collaboration and licence agreement with Airbus

LAUSANNE, 9-Sep-2021 — /EPR AEROSPACE NEWS/ — Neural Concept is pleased to have renewed a multiple-year collaboration and licence agreement with Airbus.

This collaboration aims at making the power of deep learning accessible to design engineers, for real-time simulation and interactive design optimization.

The two companies demonstrated an application of their technology to aircraft aerodynamics at the NeurIPS conference in 2019. The goal is now to increase the deployment of new design methodologies, based on Artificial Intelligence techniques. Airbus is aiming at accelerating and improving the engineering of next generation aircraft.

SOURCE: EuropaWire

DigiSky and Asman Technology partnership to address the aerial surveying market

TORINO, 1-Mar-2021 — /EPR AEROSPACE NEWS/ — Asman Technology, a leading provider of avionic and communication technologies and services, and DigiSky Srl, a leader in aerial ground monitoring technologies, today announced their will to join their forces to bring to market SmartBay, the DigiSky’s proprietary product line that provides a broad range of solutions dedicated to the transformation of General Aviation CS/FAR-23 aircrafts into special mission ones.

Beginning immediately, Asman Technology will be entitled to resell SmartBay products and aircrafts in addition to its traditional Arla-600 model, both in France and internationally. “DigiSky’s SmartBay product line fully complements our traditional manned ULM offer with competitive solutions in the CS-23 certified domain”, said Eric Matysiak, CEO of Asman Technology.

Enabling the most efficient aerial monitoring solutions Asman Technology has a significant expertise in developing, marketing and operating aerial surveillance and photogrammetry solution by airplanes, helicopters, drones and aerostats. In addition, Asman Technology is a leading provider of proprietary solutions, https://aerodatalink.com, dedicated to allowing mission systems to broadcast and be operated from the ground in real time.

“We truly believe that Asman Technology expertise and market footprint in enabling aerial missions with advanced ground-board communication is key to accelerate DigiSky’s roadmap towards new markets”, said Paolo Pari, CEO of DigiSky.

Asman Technology and DigiSky’s joint efforts to market efficient and affordable technologies will provide unique key benefits to all those clients, whether already operating or willing to operate, in the aerial ground monitoring segment, such as:

– The ability to collect and process large amounts of aerial images in an affordable manner by using highly configurable aerial platforms that match multiple missions’ typologies.
– The ability to reconfigure missions and sensors suite in a rapid, easy and certified way
– The ability to expand monitoring capabilities without the need for expensive investment by adapting existing aircrafts to their unique aerial monitoring needs

SOURCE: EuropaWire

Web app that monitors olive groves by relying on European satellite tech won the Farming by Satellite Prize 2020

LONDON, 17-Dec-2020 — /EPR AEROSPACE NEWS/ — The winners of the Farming by Satellite Prize 2020 were announced at the virtual Farming by Satellite Prize 2020 Awards Ceremony on Monday 30th November. The Prize promotes the use of Galileo, the European Global Navigation Satellite Systems, the European Geostationary Navigation Overlay Service (EGNOS), and Copernicus, the European Earth observation programme in European and African agriculture. The overall winner of €5,000 was team Graniot from Spain with their web application that uses European satellite technologies to help agronomists and farmers monitor their olive groves to reduce water waste and poor fertilisation practices.

Team Genuine received second prize for their web-based solution that identifies crop stress and the optimal tractor path for irrigation and fertilisation using Copernicus, EGNOS and Galileo, components of the European Space Programme. Third prize went to team AI4OceanFarming, who use satellite data to identify ocean farming threats such as harmful algal blooms (HABs), ocean acidification (OA), and invasive species. The Special Africa Prize went to GeoM&E for their solution that looks to monitor coffee diseases using European satellite technologies. The winners beat stiff competition from 40 other young people. Judges selected the best teams to take their ideas forward to the ‘Deep Dive’ phase, and then selected eight grand finalists to pitch their solutions during the final ‘live’ judging round.

The Farming by Satellite Prize is an initiative of the European GNSS Agency (GSA) and the European Environment Agency (EEA). It is supported by CLAAS, a leading manufacturer of agricultural engineering equipment. It aims to increase the usage of Galileo, EGNOS and Copernicus for European agriculture. The Prize also aims to grow awareness on the benefits the EU Space Programme provides toward fostering innovative and sustainable farming solutions. The objective of the Special Africa Prize is to encourage young Africans to develop satellite-based solutions that cater to the specific needs and resources of communities and lands in Africa.

Reviewing the winning entries this year, GSA judge Joaquín Reyes González said: “The innovation and wide variety of agriculture applications submitted by young innovators this year has been wonderful to see. It confirms the value of encouraging the next generation of farmers to explore the use of satellite technologies in agriculture to enable sustainable farming practices.”

Commenting on the environmental aspect of entries, Hans Dufourmont, judge for the European Environment Agency added: “The agricultural sector needs to continue developing sustainable food production activities and lessen their impact on the environment and climate. It’s great to see Galileo and Copernicus convincing young farmers to become tech savvy entrepreneurs and develop competitive yet sustainable agriculture.”

The last words go to the winners Pablo Romero Díaz and Manuel Castro Ruiz of Graniot, who stated: “We’re honoured to be chosen as winners for the Farming by Satellite Prize 2020. We will be putting the EUR 5,000 cash prize to good use developing our satellite crop monitoring web application further. The whole journey has been a great experience that would not have been possible without the support of UGREmprendedora and the Andalucia Agrotech DIH. We’ve learnt so much. We have been inspired by the feedback from the judges and have enjoyed seeing the entries from all the grand finalists during the awards ceremony.”

Contestants were tasked with creating a new sustainable and environmentally friendly agriculture solution using Galileo, EGNOS and/or Copernicus. Solutions had to demonstrate their novel approach to the use of satellite services for farming, while ensuring accurate technical feasibility and a maximal impact on the farming industry.

On behalf of the judging panel, Marcel Fölsch from CLAAS said about the winning idea: “Graniot have consistently presented a high-quality solution throughout all stages of this year’s competition. It is great to see their focus on olive farming in southern Europe, allowing them to narrow in on specific customer needs and present a compelling remote sensing solution to their users. We’re pleased to award the top prize to a team clearly driving the adoption of sustainable agriculture practises in Europe.”

Participation was open to young farmers, academics, and professionals between the ages of 18 and 32. They could take part as individuals or as a team of up to four. For the Special Africa Prize, at least one applicant was required to be a citizen of or resident in an African country.

Full details on the competition are available at www.farmingbysatellite.eu.

SOURCE: EuropaWire

LSPT to offer laser peening research & app development at ZAL Center of Applied Aeronautical Research in Hamburg

Dublin, OH, Aug-01-2017 — /EuropaWire/ — LSP Technologies (LSPT) is now filling its schedule for laser peening application development in Europe. This landmark opportunity coincides with the impending delivery of LSPT’s Procudo® 200 Laser Peening System to the ZAL Center of Applied Aeronautical Research (ZAL Zentrum für Angewandte Luftfahrtforschung) in Hamburg, Germany. Beginning in 2018, LSPT is making the Procudo® System available to European manufacturers for laser peening research and application development.

Key features of the Procudo® 200 Laser Peening System:

• Production-quality system engineered for high-volume laser peening
• Diode-pumped, pulsed YLF laser delivers high beam quality for consistent processing
• Fastest (20 Hz) and most powerful (200 W) pulsed laser peening equipment available in the world
• Real-time diagnostics and selectable beam parameters for comprehensive process control

“This is the first opportunity for many European manufacturers to access an industrial laser peening system for application and product development research,” said David Lahrman, VP of Business Development for LSPT. “We’re introducing a superior fatigue enhancement solution to the European market, and we’re excited to form new partnerships in pursuit of stronger, more reliable components.”

Laser shock peening (LSP) is a powerful metal improvement process that produces a 10X fatigue life enhancement over shot peening. LSP utilizes a high-energy pulsed laser to generate controlled stress waves that impart compressive residual stresses up to 12 mm beneath the material surface. Laser peening has been proven to significantly extend the service life of metal parts by providing enhanced resistance to common failure mechanisms:

• Fatigue Cracking
• Stress Corrosion Cracking
• Foreign Object Damage
• Fretting Fatigue
• Creep Deformation
• Erosion

Laser peening improves the performance and reliability of metal components, adding value to critical parts across a broad range of industries:

• Aviation and Aerospace – Engine components, turbine blades, bulkheads, wing attachments, landing gear, helicopter components
• Automotive – Axles, drive shafts, valve stems, connecting rods, pistons, impellers
• Medical – Orthopedic implants, replacement joints, spinal fixation devices
• Power Generation – Land-based turbine blades and components, nuclear containment vessels, wind turbine gears
• Manufacturing – Metal forming dies, machine tools

LSP Technologies’ newest laser peening facility will reside in the heart of the Hamburg Aviation Cluster at the ZAL Center of Applied Aeronautical Research. The ZAL TechCenter is one of the largest and most advanced aeronautical research facilities in the world, offering an innovative research space for collaborative development of emerging technologies.

Companies looking to improve the fatigue strength and performance capabilities of their parts should contact LSP Technologies regarding access to the Hamburg laser peening facility. Highly trained technicians will work alongside OEM researchers to develop custom applications addressing specific material performance issues.

LSP Technologies is the world’s premier laser peening services, technology and equipment provider, delivering proven metal enhancement solutions for more than twenty years. LSPT is the only company in the world selling, installing, and integrating laser peening systems into manufacturing and research facilities, and the company has been awarded more than fifty patents for innovations in laser peening equipment and technology.

SOURCE: EuropaWire

ZAL Zentrum für Angewandte Luftfahrtforschung to use laser peening system to study metal fatigue enhancement applications for the civil aviation

Dublin, Ohio, USA, Jun-14-2017 — /EuropaWire/ — LSP Technologies announces the sale of its state-of-the-art Procudo® 200 Laser Peening System to the ZAL Zentrum für Angewandte Luftfahrtforschung in Hamburg, Germany. The equipment is being delivered to the ZAL TechCenter in Hamburg during the 3rd quarter of 2017, and being used to study metal fatigue enhancement applications for the civil aviation industry.

“We are very excited to introduce the first production-quality commercial laser peening system into Europe,” said Dr. Jeff Dulaney, President and CEO of LSP Technologies, Inc. “Laser peening is becoming the aviation industry standard for increasing fatigue strength in titanium and steels, and LSPT’s Procudo® Laser Peening System is the most powerful and versatile machine available for component service life extension.”

Laser peening is a proven method for significantly increasing the fatigue life and fatigue strength of metals. The mechanical surface enhancement process utilizes a high-energy pulsed laser beam to impart compressive residual stresses up to twenty times deeper than shot peening. The compressive stresses introduced by laser peening add strength and robustness to metal parts by improving their resistance to damage, fatigue, crack initiation and crack propagation. Benefits of the process include: extended component service life, reduced maintenance and repair costs, improved part performance, and enhanced resistance to failure. The process has been employed for years by major aerospace OEMs including GE Aviation and Rolls Royce.

LSP Technologies’ Procudo® 200 Laser Peening System is the only commercially available laser designed exclusively for laser peening. It employs a diode-pumped, pulsed YLF laser that produces a flat-top beam for smooth energy distribution and consistent processing. The flexible system offers selectable laser parameters, along with custom controls and diagnostics developed from LSPT’s 20 years of laser peening experience. Engineered for high-volume production processing, the Procudo® Laser Peening System can deliver 20 pulses per second, making it the fastest laser peening system ever built.

The Hamburg Center of Applied Aeronautical Research was established in 2009 as a technological research and development hub for the Hamburg Aviation Network. It is a public-private partnership that not only includes collaboration from some of the aviation industry’s largest organizations, such as Lufthansa and Airbus, but also from suppliers, SME, universities, research institutions, start-ups and many more. The ZAL TechCenter opened in Hamburg in 2016, and the 95-million-euro facility immediately became one of the largest and most advanced aeronautical research facilities in the world.

LSP Technologies is the world’s premier laser peening services, technology and equipment provider. It is the only company in the world selling, installing, and integrating state-of-the-art laser peening systems into manufacturing and research facilities. The company has been providing laser peening production services for clients in the aviation and power generation industries for over twenty years, and has been awarded more than fifty patents for innovations in laser peening equipment and technology.

SOURCE: EuropaWire

International Astronautical Congress

The 61st International Astronautical Congress has been celebrated in Prague, CZ. In this congress, new advances in Aeronautics and Astronautics have been exposed. Doctor Gabriel Barceló´s paper has had special relevance in this congress. This paper: ON THE EQUIVALENCE PRINCIPLE relates to his investigation on field theory of Rotational Dynamics, which specifically applies to rigid rotating physical systems and which has numerous and significant scientific and technological applications. The achieved results allow us to obtain a new perspective in dynamics, unknown up to date, making it possible to turn given trajectories which, until now, have been considered as chaotic, into deterministic terms. After a deep analysis of the Equivalence Principle, the Spanish investigator, Doctor Barceló has come to the conclusion that there still exists an unstructured scientific area in the present general assumptions and, specifically, in the area of rigid bodies exposed to simultaneous non-coaxial rotations.

For this purpose, it is necessary to analyze the velocity and acceleration fields that are generated in the body, and assess new criteria in these speeds coupling. In this context, reactions and inertial fields take place, which cannot be justified by means of the classical mechanics.

Doctor Barceló briefly informed to assistants of the surprising results obtained, and expressed the interest towards the investigation of this new area of knowledge in rotational non-inertial dynamics, and of its multiple and remarkable scientific and technological applications.

Quite a number of examples can be thought of for checking the dynamic hypotheses proposed by Doctor Barceló, which would allow us to interpret many, still unexplained assumptions in nature, using the interactions which result from rotating the space of events.

An example of the theory is the feared roll coupling of the planes. It happens when a plane, which is flying a screw or any other kind of air acrobatics which implies, for example, a turn around its main inertia axe, starts a new steering manoeuvre with curved trajectory. According to the supported dynamic hypotheses, the non-homogeneous distribution of speeds, generated by the new non-coaxial rotation of the plane mass, couples to the field of translation speed, causing an unintentional deviation of the trajectory as well as a possible loss of the plane control.

Via EPR Network
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Physics Can Explain The Behaviour Of The South Africa World Cup Ball

The World Cup Ball And Its Astonishing Effects Can Be Easily Explained Through TheTheory Of Dynamic Interactions, Which Also Applies To The Flight Of The Boomerang.

The official World Cup ball, the so called “Jabulani”, which has been object of a lot of criticism due to its unpredictable path, will be studied by the FIFA and experts after the World Cup.

The “strange effects” in the behaviour of the official World Cup ball can be easily described through the physical theory proposed by the Spaniard Gabriel Barceló. For more than twenty years this Spanish PhD in Engineering has been explaining the deviation of a ball, the effect of tennis or ping-pong balls or the curved paths of golf balls through the Theory of Dynamic Interactions (TID). This physical theory describes the behaviour of bodies exposed to acceleration through rotation, from soccer balls to rotating heavenly bodies.

This theory enables an easy understanding of the path of the “Jabulani” and gives the reason for its possible changes, in the same way as this theory explains the typical flight of the boomerang or the rotation of galaxies in space.

Another Spanish engineer, Arturo Rodriguez, who cooperates with PhD Barceló on this investigation project, was the initial observer of the effects of the “Jabulani” and confirmed that it behaved according to the TID , based on the following reasoning: According to official or orthodox Physics, the reason for the effects which occur to the soccer ball (and which cause the change from rectilinear to circular path) is of aerodynamic origin, i.e. they arise from the interaction of the surface of a body (ball) with the environment (draughts). Usually this deviation of the ball is, erroneously, attributed to the so called “Magnus Effect”, without quantification and with insufficient scientific rigor.

But in fact the surface of the “Jabulani” is identical to that of any other soccer ball (shape, size, weight, material, roughness, etc …). What makes this ball different from others is only the internal structure, which in this case is made up of a layer of spherical rubber sectors instead of the homogeneous and continuous structure of traditional balls. Therefore there is every indication that it is this difference which causes a differentiated dynamic behaviour.

Summarizing, according to the analysis which derives from the “Magnus” effect this internal structure of the ball is of none importance, as orthodox Physics only takes into account the aerodynamic effects which are originated between the surface of the ball and the environment (air).

This clear contradiction proves that the physical-mathematical model which has been generally accepted up to date would not be correct. I have been analyzing this topic and have come to the conclusion that this phenomenon confirms the correctness of the Theory of Dynamic Interactions.

Already in 2005 PhD. Barceló published the book “El vuelo del Bumerán” (The flight of the Boomerang), where he explained the TID, later reiterating his arguments in the text “Un mundo en rotación” (A rotating World), published in 2008. In both books he analyzes rotating bodies and repeatedly insists on looking for new solutions to existing rotational questions related to the paths of spinning balls, as well as other similar astrophysical phenomena, or even its possible use in astronautics. This theory has been presented in various Physics and Mathematics Conferences and has been published in several journals.

After so many years, this ball could be the proof of the theory, because, at it is not homogeneous, internal torques will be originated due to the uneven effect of the weight of each sector of the ball, so that gravity will favour the existence of curved paths of the “Jabulani” ball. This theory could be used in the design of spinning or non spinning balls.

The theory of Dynamic Interactions (TID) can be looked up in Internet on:http://www.advanceddynamics.net/

Via EPR Network
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Earth’s Magnetic Field Is Produced By An External Dynamo System, Not An Internal Dynamo

Researcher finds that Earth’s magnetic field is not produced by an internal dynamo. Nor is it produced by ocean current. The dynamo is outside the Planet! New findings by independent researcher, Dennis Brooks, show that Earth’s magnetic field and the planet itself are components of a complex dynamo system, which surrounds the planet. The planet and its magnetic field are part of the dynamo. According to this new theory, no internal dynamo or ocean current helps in producing or maintaining the magnetic field because other planets with magnetic fields do not have ocean currents or iron cores.

Image by NASA

Each planet does not have a unique way of producing its magnetic field. The magnetic field of each planet is produced by a planetary dynamo system and its ring current.

For many years researchers thought that a similar dynamo system was within the planet and that this internal dynamo generated the magnetic field. However, we know now that it is too hot inside the planet to produce and maintain a magnetic field there.

The planetary dynamo system is composed of a magnetosphere, the planet, the magnetic field, radiation belts, ring current, and charged particles from the solar wind. The planet is the central component of the system and its rotation plays an important part in operating the dynamo and generating ring current. The magnetic field is generated by the system’s ring current, which is made up of charged particles. The magnetic field captures even more charged particles and brings them into the dynamo system as fuel. Everything works together.

Earth’s inner and outer core simply cannot provide the fuel a dynamo system needs. If earth’s dynamo had to depend on energy from the planet for fuel, the entire planet would have been completely consumed many years ago.

To learn more about Earth’s magnetic field, Visit
http://sites.google.com/site/earthsmagneticfield/

Via EPR Network
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A2 Technologies Receives Research Contract From The Federal Aviation Administration (FAA)

A2 Technologies announces today that it has received a three year research contract from the Federal Aviation Administration to study the effectiveness of Fourier Transform Infrared Spectroscopy (FTIR) for determining damage to composite materials used in civilian aircraft applications.

The project will focus on three main tasks. A2 Technologies’ hand-held Exoscan FTIR system will be used to develop the methodology for determining, thermal, UV and chemical damage to composites. Once this is developed, it will be used to detect the full extent of damage in composite panels and to monitor and aid in bonding and repair processes. These methods will then be implemented to enable the Exoscan system to be used by qualified non-destructive evaluation personnel in field trials. Collaborating on this project with A2 Technologies is The Center for Composite Materials at the University of Delaware.

Jon Frattaroli, CEO of A2 Technologies states “We developed Exoscan as an easy-to-use, high performance, hand-held FTIR spectrometer in order to expand the use of this widely used analytical technique to non-laboratory applications. We are delighted that the FAA has seen the potential value of FTIR spectroscopy as a non-destructive analysis technology for use in aircraft manufacturing and maintenance. We are excited to work with our outstanding collaborators to prove the value of this technology.”

For more information, please contact Dr. Alan Rein, Vice President Business Development, A2 Technologies at 201-909-8824 or arein@a2technologies.com or visit www.a2technologies.com

About A2 Technologies
Headquartered in Danbury, Connecticut, A2 Technologies is taking FTIR spectroscopy out of the lab and into the field. A2 Technologies manufactures and develops portable FTIR spectrometers designed for the analytical needs of the petrochemical, environmental, transportation, mining and other general environments where there is a need for analysis. The portable FTIR analyzers extend the proven capabilities of Fourier Transform Infrared technology by rendering sample preparation obsolete and ensuring real time results. For further press information or images please contact Marketing Director Valerie Lopez at the A2 Technologies headquarters in Danbury Connecticut 203.312.1106 or e-mail vlopez@a2technologies.com

Via EPR Network
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