Saturday, October 5, 2024

2024 ICAO SAFETY REPORT: What Aeronautical Engineers Can Do

 

2024 ICAO SAFETY REPORT:

What Aeronautical Engineers Can Do

The 2024 ICAO Safety Report presents a comprehensive overview of global aviation safety, focusing on scheduled commercial air transport operations involving aircraft with a certified maximum take-off weight (MTOW) over 5,700 kg. The report highlights accident statistics, trends, and safety indicators for 2023, comparing them to the previous five years to assess progress and emerging risks.

In 2023, global aviation safety improved significantly, with the lowest accident rate in the past five years. The accident rate was 1.87 accidents per million departures, a 17.9% decrease from 2022. There were 66 accidents, a slight increase from 2022, but only one fatal accident was recorded, compared to seven in 2022. This resulted in 72 fatalities, representing a significant reduction from 160 in 2022. The fatality rate also dropped to 17 per billion passengers, down from 50 in the previous year.

The report emphasizes key high-risk categories (HRCs) of occurrence, which ICAO identified as global safety priorities. In 2023, loss of control in-flight (LOC-I) was responsible for 100% of fatal accidents and fatalities. Other high-risk categories include controlled flight into terrain (CFIT), mid-air collision (MAC), runway excursion (RE), and runway incursion (RI). These HRCs represented a small proportion of total accidents but accounted for all fatalities, underscoring their critical impact on safety.

Regional safety statistics reveal that the Asia-Pacific (APAC) region accounted for the only fatal accident in 2023, leading to all 72 fatalities. Other regions, such as Eastern and Southern Africa (ESAF) and Europe and North Atlantic (EUR/NAT), recorded accidents but no fatalities. The accident rates varied significantly by region, with some regions experiencing higher fluctuations due to the lower number of departures, making year-to-year comparisons more complex.

Overall, the report demonstrates a positive trend in global aviation safety, with ICAO and its member states continuing to prioritize risk-based approaches to reduce operational safety risks. The report emphasizes the importance of ongoing monitoring, standardization, and implementation of safety programs to ensure further improvements in aviation safety worldwide.

The 2024 ICAO Safety Report contains several pieces of information that can be highly relevant and useful to aeronautical engineers, particularly those involved in the design, maintenance, and safety assessment of aircraft. Here are the key points:

1.    Accident Causes and Occurrence Categories:

o    The report highlights various accident categories, such as turbulence encounters (TURB), abnormal runway contact (ARC), system or component failure (non-powerplant and powerplant), and ground collisions (GCOL). These categories provide valuable insight for aeronautical engineers to improve aircraft design, structural integrity, and systems to reduce the occurrence of these accidents.

2.    Global High-Risk Categories of Occurrence (HRCs):

o    ICAO identifies five global high-risk categories: controlled flight into terrain (CFIT), loss of control in-flight (LOC-I), mid-air collisions (MAC), runway excursions (RE), and runway incursions (RI). Engineers can focus on innovations that reduce the risk of these events, such as better avionics systems, enhanced collision avoidance technology, improved runway management systems, and advanced flight control systems.

3.    System/Component Failure Data:

o    The report provides detailed analysis on system and component failures (SCF-NP and SCF-PP), both non-powerplant and powerplant-related. Aeronautical engineers working in maintenance, repair, and overhaul (MRO) can utilize this data to prioritize the improvement of specific components and systems prone to failure, enhancing overall aircraft reliability.

4.    Aircraft Damage Statistics by Occurrence Category:

o    The report categorizes aircraft damage by the type of occurrence, highlighting the need for engineers to focus on aircraft design resilience and materials that minimize damage during events like turbulence, ground collisions, or system failures.

5.    Accident Trends and Safety Performance Metrics:

o    The analysis of global accident rates and trends over the past five years allows engineers to track the impact of safety improvements in aviation technology. This data could guide future innovations aimed at reducing accident rates further.

6.    Safety Impact of Turbulence and Weather-Related Issues:

o    Turbulence was one of the leading causes of accidents in 2023. Aeronautical engineers working on aircraft structures, flight dynamics, and atmospheric science can leverage this information to develop technologies and materials that mitigate turbulence effects, enhancing safety for passengers and aircraft.

7.    Regional Safety Data:

o    The report provides accident data by ICAO region. Aeronautical engineers working in specific geographical areas can focus on region-specific challenges, such as addressing operational safety risks that are more prevalent in certain regions due to environmental or infrastructural factors.

8.    Emerging Trends in Aviation Safety:

o    The report highlights emerging safety trends and the importance of a coordinated, risk-based approach to address them. Aeronautical engineers can use this forward-looking data to anticipate future safety challenges and design aircraft systems that can adapt to new risks, such as increased air traffic or changes in flight operations post-pandemic.

These insights from the ICAO Safety Report can help aeronautical engineers develop safer, more reliable, and efficient aircraft systems by targeting the key areas where improvements are most needed.

-ooo-

Wednesday, September 11, 2024

Charting the Future: How Aeronautical Engineering Can Propel the Philippine Aviation Industry Towards Sustainable Development


The following article is based on the United Nations' report on the new global "Sustainable Development Goals"

The aviation industry in the Philippines is at a critical juncture, facing both significant challenges and extraordinary opportunities. As global pressures mount to address climate change, resource scarcity, and the need for sustainable growth, the Philippine aviation sector, backed by the expertise and innovation of Filipino aeronautical engineers, is uniquely positioned to lead a transformative journey towards a more resilient and sustainable future. This comprehensive article explores the Sustainable Development Goals (SDGs) relevant to the aviation industry, the strategies to achieve them, the action plans required, measurable indicators for success, and the estimated timeline for these developments. Additionally, we assess the current status of the aviation industry in the Philippines, including the roles played by key companies, and highlight the critical role that Filipino aeronautical engineers must play in this evolution.

The Relevance of Sustainable Development Goals (SDGs) to Aviation

The United Nations Sustainable Development Goals (SDGs) provide a global framework for achieving a sustainable and equitable future. The aviation industry, a significant contributor to global emissions and a key driver of economic growth, must align its practices with these goals to ensure long-term viability and global responsibility. For the Philippine aviation industry, several SDGs are particularly relevant:

  • SDG 7: Affordable and Clean Energy: This goal emphasizes the need for sustainable energy sources, which is crucial for reducing the carbon footprint of aviation.
  • SDG 9: Industry, Innovation, and Infrastructure: Innovation in aircraft design, airport infrastructure, and air traffic management is vital for the industry's growth and sustainability.
  • SDG 11: Sustainable Cities and Communities: As urbanization accelerates, integrating Urban Air Mobility (UAM) into city planning can alleviate congestion and reduce emissions.
  • SDG 12: Responsible Consumption and Production: Implementing circular economy principles in aircraft manufacturing and maintenance can minimize waste and promote sustainability.
  • SDG 13: Climate Action: The aviation industry must lead in reducing greenhouse gas emissions through technological innovation and sustainable practices.
  • SDG 15: Life on Land: Preserving ecosystems and integrating green infrastructure in aviation projects are essential for minimizing the environmental impact of industry operations.

Developing Strategies to Achieve the SDGs

To align the Philippine aviation industry with these SDGs, clear and focused strategies are essential. These strategies are designed to address the specific challenges and opportunities within the industry and are the foundation for achieving sustainability goals.

Developing and Integrating Sustainable Aviation Fuels (SAF)

One of the most critical strategies for achieving SDG 7 (Affordable and Clean Energy) is the development and integration of Sustainable Aviation Fuels (SAF). SAF is produced from renewable resources such as plant oils, waste products, or algae and can significantly reduce the carbon emissions associated with traditional jet fuels. The transition to SAF is essential for the aviation industry to meet global climate goals and reduce its environmental impact.

In the Philippines, this strategy involves developing local production capabilities for SAF, which requires collaboration between airlines, energy companies, and government agencies. Philippine Airlines, for example, could pioneer the adoption of SAF on select routes, gradually expanding its use as infrastructure develops. Energy companies like Energy Development Corporation can play a vital role in producing and supplying SAF, contributing to the country's energy security and sustainability.

Fostering Innovation in Aircraft Design and Infrastructure

Innovation is at the heart of SDG 9 (Industry, Innovation, and Infrastructure). The aviation industry must prioritize the development of new aircraft designs that are more fuel-efficient, emit fewer greenhouse gases, and utilize sustainable materials. Additionally, modernizing airport infrastructure with smart technologies and green initiatives is crucial for supporting the industry's growth and reducing its environmental footprint.

Establishing innovation hubs where engineers, researchers, and industry leaders collaborate on advanced aviation technologies is a key part of this strategy. The Philippine Aerospace Development Corporation (PADC) could lead this initiative, fostering a culture of innovation that drives the industry forward. These hubs would focus on developing next-generation aircraft technologies, improving air traffic management systems, and modernizing airport facilities to enhance efficiency and sustainability.

Integrating Urban Air Mobility (UAM) Solutions

As cities become increasingly congested, integrating Urban Air Mobility (UAM) solutions into urban transportation systems is a strategy that directly supports SDG 11 (Sustainable Cities and Communities). UAM involves the use of small, electric aircraft, often referred to as eVTOLs (electric Vertical Take-Off and Landing vehicles), to transport people and goods within cities. This technology has the potential to revolutionize urban transportation by reducing traffic congestion, cutting travel times, and lowering emissions.

In the Philippines, the Department of Transportation (DOTr) could spearhead the integration of UAM by developing pilot programs in Metro Manila and other key cities. These programs would involve creating UAM corridors, establishing vertiports (eVTOL landing and takeoff sites), and integrating UAM with existing public transit systems. Collaboration with private sector companies like Urban Aeronautics would be essential for successfully implementing UAM solutions.

Implementing Circular Economy Principles in Manufacturing

SDG 12 (Responsible Consumption and Production) emphasizes the importance of reducing waste and promoting sustainable practices. In the aviation industry, this can be achieved by adopting circular economy principles in aircraft manufacturing and maintenance. This approach involves designing aircraft with modular components that can be easily replaced, repaired, or recycled, thereby extending the life of aircraft and reducing waste.

Lufthansa Technik Philippines, a leading provider of Maintenance, Repair, and Overhaul (MRO) services, is well-positioned to lead the implementation of these principles. By expanding recycling programs for decommissioned aircraft and encouraging the use of sustainable materials in manufacturing, the industry can reduce its environmental impact and promote sustainability.

Leading in Climate Action with Technological Innovations

SDG 13 (Climate Action) calls for urgent action to combat climate change and its impacts. The aviation industry, as a significant contributor to global greenhouse gas emissions, must take the lead in developing technological innovations that reduce emissions and improve sustainability. This includes the development of ultra-efficient aircraft designs, such as blended-wing body aircraft and hydrogen-powered engines, as well as the adoption of real-time data analytics and AI to optimize flight routes and reduce fuel consumption.

Filipino aeronautical engineers have the expertise and creativity needed to lead these innovations. By collaborating with international research institutions, participating in global aviation projects, and staying at the forefront of technological advancements, they can help position the Philippine aviation industry as a leader in climate action.

Promoting Green Infrastructure Solutions

SDG 15 (Life on Land) emphasizes the importance of preserving ecosystems and biodiversity. In the aviation industry, this can be achieved by integrating green infrastructure solutions into airport and aviation-related construction projects. Green infrastructure includes features such as green roofs, rain gardens, and wildlife-friendly designs that support local biodiversity and manage environmental impacts.

The Airports Council International (ACI) Asia-Pacific – Philippines Chapter, along with airport operators like the Ninoy Aquino International Airport (NAIA), can lead the implementation of green infrastructure projects. These initiatives would help minimize the environmental footprint of airport operations, reduce carbon emissions, and enhance the resilience of aviation infrastructure to climate change.

Translating Strategies into Action Plans

To turn these strategies into reality, actionable steps must be outlined and followed. These action plans provide a clear roadmap for achieving the goals and ensuring that progress is made in a measurable and impactful way.

For instance, to introduce SAF into airline operations, Philippine Airlines could start with pilot programs on select routes, gradually expanding as the infrastructure for SAF production and distribution develops. This action plan would involve partnerships with local energy firms like Energy Development Corporation, which would focus on producing and supplying SAF. Similarly, to foster innovation in aircraft design and infrastructure, establishing innovation hubs where engineers, researchers, and industry leaders can collaborate on advanced aviation technologies is crucial. The Philippine Aerospace Development Corporation (PADC) could lead this initiative, focusing on developing next-generation aircraft technologies, improving air traffic management systems, and modernizing airport facilities.

The development of Urban Air Mobility (UAM) corridors is another critical action plan. The Department of Transportation (DOTr) and Urban Aeronautics could collaborate to pilot UAM projects in Metro Manila and other key cities. This would involve creating UAM corridors, establishing vertiports, and integrating UAM with existing public transit systems. In implementing circular economy principles, Lufthansa Technik Philippines could expand its recycling programs and use of sustainable materials, leading the way in sustainable aircraft manufacturing and maintenance.

Measurable Indicators: Tracking Progress and Success

To ensure that these action plans are effective and making an impact, measurable indicators must be established. These indicators provide a way to track progress, assess the effectiveness of the strategies, and ensure that the industry is moving towards the achievement of the SDGs.

For example, the number of flight routes using SAF can be tracked to measure the expansion of SAF use across Philippine airlines. Similarly, the number of patents filed for new aircraft technologies can serve as an indicator of innovation and progress in aircraft design. The development and operationalization of UAM routes can be measured to assess the success of UAM integration in urban transportation systems. The volume of materials recycled from decommissioned aircraft can be tracked to evaluate the effectiveness of circular economy practices, while the area of green infrastructure projects implemented at airports can be measured to assess progress in environmental sustainability.

Estimated Timeline for Achieving the Goals

Achieving the SDGs in the aviation industry is a long-term process that requires sustained effort, collaboration, and innovation. The timeline for these developments can be broken down into short-term, medium-term, and long-term goals.

In the short term, from 2025 to 2030, we can expect to see the initial adoption of SAF, the development of UAM pilot programs, and early-stage innovations in aircraft design. During this period, the groundwork for sustainable aviation practices will be laid, with the first measurable indicators of success beginning to emerge.

In the medium term, from 2030 to 2035, broader SAF use, more extensive UAM integration, and significant progress in green infrastructure and circular economy practices should be realized. This period will see the scaling up of successful pilot programs and the widespread adoption of sustainable practices across the industry.

In the long term, from 2035 to 2045, full-scale implementation of UAM, substantial reductions in carbon emissions, and widespread adoption of sustainable practices across the industry will mark the industry's transformation. By this time, the Philippine aviation industry will be a leader in sustainability, innovation, and resilience, fully aligned with the global SDGs.

Current Status of the Philippine Aviation Industry

Today, the Philippine aviation industry is at a critical juncture. While there are promising developments, such as Philippine Airlines exploring the use of SAF and the expansion of infrastructure projects like Clark International Airport, the industry still faces significant challenges in innovation, sustainability, and alignment with global standards.

Compared to regional neighbors like Vietnam and Thailand, the Philippines is making strides but still has ground to cover. Vietnam, for example, has seen rapid growth in its aviation sector, driven by rising tourism, a growing middle class, and increased domestic and international connectivity. Thailand, slightly ahead of the Philippines, has a more mature aviation industry, driven by a well-established tourism sector and a strategic geographic location as a hub in Southeast Asia.

However, the Philippine aviation industry has the potential to catch up and even surpass its regional counterparts by focusing on sustainable practices, innovation, and collaboration. The industry must prioritize the adoption of SAF, the development of UAM solutions, and the implementation of circular economy principles to ensure long-term sustainability and competitiveness.

The Role of Filipino Aeronautical Engineers

At the heart of this transformation are Filipino aeronautical engineers. These professionals are the innovators, problem-solvers, and leaders who will turn these goals into reality. From designing the next generation of fuel-efficient aircraft to spearheading sustainable manufacturing initiatives, Filipino engineers have the expertise and passion needed to drive change.

Filipino aeronautical engineers must take on multiple roles to achieve these goals. As innovators, they must lead research and development efforts in aircraft design, SAF integration, and UAM solutions. As educators, they should mentor the next generation of engineers, sharing knowledge and best practices to ensure the industry remains at the forefront of innovation. As advocates, they must push for policy changes that support sustainable aviation, such as government incentives for clean energy adoption and funding for research and development. As collaborators, they should engage with international partners, participate in global aviation projects, and adopt best practices from other countries to ensure the Philippine aviation industry remains competitive on the global stage.

Conclusion: Building a Sustainable Future for Philippine Aviation

The future of the Philippine aviation industry is bright, but it requires bold actions and unwavering commitment to sustainable development. With clear strategies, actionable plans, measurable indicators, and a realistic timeline, the industry can achieve the SDGs and lead the way in sustainable aviation.

Filipino aeronautical engineers are at the forefront of this journey, ready to guide the sector toward a more sustainable, resilient, and innovative future. The time to act is now—let’s build the future of Philippine aviation, one sustainable step at a time. By embracing these strategies and working collaboratively across sectors, the Philippine aviation industry can become a global leader in sustainability, setting a standard for the world to follow.

-ooo-

The Unsung Heroes of Aviation: Filipino Aeronautical Engineers


 The Unsung Heroes of Aviation: Filipino Aeronautical Engineers

In the fast-paced world of aviation, where safety, precision, and reliability are paramount, Filipino aeronautical engineers play a crucial role. These highly skilled professionals ensure that the aircraft we fly in are safe, airworthy, and ready to take to the skies. Their work goes beyond mere maintenance; it involves a deep commitment to aviation safety, meticulous attention to detail, and a broad range of responsibilities that span various sectors of the aviation industry. From commercial airlines to Maintenance, Repair, and Overhaul (MRO) facilities, aviation regulatory bodies, and general aviation, Filipino aeronautical engineers are indispensable to the smooth operation and safety of aircraft.

The Role of Filipino Aeronautical Engineers in Aviation

Aeronautical engineers are the backbone of the aviation industry. Their primary function is to ensure that aircraft are airworthy, safe, and ready for operation. This involves a variety of tasks, including designing aircraft components, maintaining and repairing aircraft, and ensuring that all operations adhere to stringent safety standards.

In the Philippines, as well as in many other countries around the world, aeronautical engineers are responsible for a wide array of duties. They work on the design, development, and testing of aircraft and aerospace systems. This can include everything from large commercial jets and turbofan engines to helicopters and other rotary-wing aircraft. Their expertise is not limited to one aspect of aviation; they cover the entire spectrum of the industry.

Ensuring Aviation Safety and Airworthiness

Aviation safety is the highest priority in the aviation industry, and it is the core responsibility of aeronautical engineers to maintain this safety. They are involved in routine inspections, diagnosing and repairing issues, and ensuring that all aircraft systems are functioning correctly. This is where the concept of airworthiness comes into play. Airworthiness refers to an aircraft's suitability for safe flight, and it is a standard that must be met for every aircraft before it can be operated.

Filipino aeronautical engineers are at the forefront of maintaining airworthiness. They conduct rigorous inspections, both scheduled and unscheduled, to ensure that every component of an aircraft is in optimal condition. This includes structural integrity, engine performance, avionics, and all other critical systems. If a fault is found, engineers work diligently to repair or replace the affected components, ensuring that the aircraft meets all safety regulations before it is cleared for flight.

Employment in Airlines, MROs, and Regulatory Bodies

Filipino aeronautical engineers are employed across various sectors of the aviation industry, each playing a vital role in maintaining safety and efficiency.

In commercial airlines, aeronautical engineers work as maintenance engineers, aircraft inspectors, and airworthiness engineers. They are responsible for the ongoing maintenance and inspection of the airline's fleet, ensuring that every aircraft is ready for its next flight. These engineers are the ones who perform regular maintenance checks, troubleshoot issues, and make necessary repairs to keep the aircraft operational.

MRO facilities, like Lufthansa Technik Philippines, are another major employer of aeronautical engineers. In these facilities, engineers focus on the deep maintenance and overhaul of aircraft, often stripping them down to their components for detailed inspections and repairs. This level of maintenance is essential for extending the life of aircraft and ensuring their continued safety. Engineers in MROs work on a variety of aircraft, from large commercial jets to military aircraft and even helicopters.

Aviation regulatory bodies, such as the Civil Aviation Authority of the Philippines (CAAP), also employ aeronautical engineers. In these roles, engineers serve as safety inspectors and airworthiness officers, ensuring that all aircraft operating within or from the Philippines meet international and local safety standards. They conduct audits, oversee maintenance practices, and enforce regulations that protect passengers and crew.

General Aviation and Specialized Roles

In addition to working with commercial airlines and MROs, many Filipino aeronautical engineers are employed in general aviation. This sector includes smaller aircraft used for private travel, charter services, and specialized operations like aerial surveying or emergency medical services. Engineers in this field often wear many hats, serving as both maintenance technicians and safety inspectors. Their work ensures that even the smallest aircraft adhere to the same high safety standards as commercial jets.

Filipino aeronautical engineers also occupy specialized roles within the aviation industry. Some work as structural engineers, focusing on the design and integrity of aircraft structures, ensuring they can withstand the stresses of flight. Others are employed as aircraft safety inspectors, a role that involves reviewing maintenance records, inspecting aircraft, and ensuring compliance with safety regulations.

Airworthiness engineers are another critical role filled by Filipino aeronautical engineers. These professionals are responsible for certifying that aircraft are safe to fly, ensuring that they meet all regulatory requirements. This includes reviewing design modifications, assessing the impact of repairs, and conducting final inspections before an aircraft is returned to service.

The Global Impact of Filipino Aeronautical Engineers

The expertise of Filipino aeronautical engineers is not confined to the Philippines. Many have taken their skills abroad, where they work in some of the largest airlines and MRO facilities around the world. In the Middle East, for example, Filipino engineers are a common presence in major airlines and aerospace companies, contributing to the maintenance and safety of some of the world's largest fleets.

In Hong Kong, the United States, Canada, Singapore, the United Kingdom, and across Europe, Filipino aeronautical engineers are recognized for their technical expertise, strong work ethic, and dedication to aviation safety. They work on a wide range of aircraft, from the latest commercial jets to military helicopters and everything in between. Their contributions are not just technical; they bring with them a deep commitment to maintaining the highest safety standards in the aviation industry.

The global demand for Filipino aeronautical engineers speaks to the quality of their training and the high regard in which they are held in the industry. By working abroad, these engineers also contribute to the economy of the Philippines through remittances, supporting their families and communities back home.

Operating and Maintaining Advanced Aircraft and Systems

The work of Filipino aeronautical engineers involves some of the most advanced machines and systems in the world. They operate, maintain, and repair a wide variety of aircraft, including large commercial jets like the Airbus A320, Boeing 737, and wide-body aircraft such as the Boeing 777 and Airbus A330. These engineers are also adept at working on helicopters, which require a different set of skills due to their complex rotor systems and unique operational environments.

One of the most critical components of any aircraft is its engine, and Filipino aeronautical engineers are experts in maintaining and repairing turbofan engines, which power most modern commercial jets. These engines are marvels of engineering, capable of producing immense thrust while being highly efficient. Engineers regularly inspect and overhaul these engines, ensuring they operate at peak performance and are free from defects.

In addition to engines, aeronautical engineers are responsible for the avionics systems that control navigation, communication, and flight management. These systems are crucial for the safe operation of an aircraft, and engineers must be well-versed in both the hardware and software that make them function. From radar systems to autopilot functions, aeronautical engineers ensure that all avionics are functioning correctly and are calibrated to precise standards.

Leadership and Decision-Making Roles

Beyond their technical roles, many Filipino aeronautical engineers occupy important positions within their organizations, where they are involved in decision-making processes that affect the entire operation. Whether serving as maintenance managers, quality assurance officers, or heads of engineering departments, these professionals are responsible for ensuring that safety remains the top priority in all aviation activities.

Their leadership roles involve making critical decisions about aircraft maintenance schedules, resource allocation, and implementing new technologies. They also play a key role in developing and enforcing safety protocols, ensuring that all employees adhere to the highest standards of operation. In this capacity, Filipino aeronautical engineers contribute to the overall safety and efficiency of the aviation industry, both in the Philippines and abroad.

The Vital Contribution to the Philippine Economy

Filipino aeronautical engineers contribute significantly to the Philippine economy, both directly through their work in the aviation industry and indirectly through remittances sent home by those working abroad. The aviation industry is a critical sector for the Philippines, supporting tourism, trade, and economic development. The work of aeronautical engineers ensures that this industry remains safe, reliable, and capable of meeting growing demand.

Moreover, the global presence of Filipino aeronautical engineers enhances the country's reputation for producing highly skilled professionals who are in demand worldwide. Their success abroad not only brings financial benefits to the Philippines but also strengthens the country's ties with the international aviation community.

Conclusion: The Backbone of Aviation Safety

Filipino aeronautical engineers are the unsung heroes of the aviation industry. Their work ensures that every aircraft that takes to the skies is safe, reliable, and airworthy. From maintaining and repairing complex aircraft systems to leading teams and making critical decisions, these engineers play a vital role in every aspect of aviation.

Their impact is felt not only in the Philippines but around the world, where they are recognized for their technical expertise and dedication to safety. As the aviation industry continues to grow and evolve, the role of Filipino aeronautical engineers will remain as essential as ever, ensuring that the skies remain safe for all who fly.

-ooo-

Sunday, July 17, 2022

A Review of Aircraft Research & Development, Prototyping, and Manufacture in the Philippines

Part 1

By Ernesto B. Ferreras Jr.  

      

Curtiss Model D (Curtiss Pusher) Biplane

By uploaded by Colputt at en.wikipedia - Transferred from en.wikipedia by SreeBot, Public Domain https://commons.wikimedia.org/w/index.php?curid=16806541

       
       A biplane named the Honolulu Skylark was the first aircraft to conquer the Philippine sky in the afternoon of February 21, 1911. American barnstormer James C. ‘Bud’ Mars took off in the biplane and climbed to a height of 1,000 feet above the carnival grounds at the Luneta. 

James ‘Bud’ Mars

By J. Ellsworth Gross (1862-1933) - https://www.ibiblio.org/hyperwar/OnlineLibrary/photos/images/h91000/h91002c.htm, Public Domain, https://commons.wikimedia.org/w/index.php?curid=79074413

     
      Another biplane called the Red Devil piloted by its builder, Capt. Thomas Baldwin, flew over Manila six days later. The Filipino people witnessed a historic event, the kind of which has continued to thrill us ever since.

Baldwin’s Red Devil

By Cliff - Flickr: Baldwin Red Devil, CC BY 2.0, https://commons.wikimedia.org/w/index.php?curid=25697464


      Mars and Baldwin were barnstormers who performed in exhibitions to demonstrate the new “science of flight” that was started by the Wright Brothers eight years earlier. The Skylark was a Curtiss pusher biplane that had its engine and propeller located at the rear. 

Thomas Scott Baldwin

By Bain News Service - This image is available from the United States Library of Congress' Prints and Photographs division under the digital ID ggbain. 09424.This tag does not indicate the copyright status of the attached work. A normal copyright tag is still required. See Commons: Licensing for more information., Public Domain, https://commons.wikimedia.org/w/index.php?curid=5047590


     In 1914, another American named Tom Gunn, a Chinese-American aviation pioneer dubbed as the ‘Wright of China,’ displayed the same type of aircraft in Manila.

Tom Gunn

BURL BURLINGAME AIRCHIVE

Monday, July 19, 2021

Extension of Deadline for Submission of Nominations for the OPYA and OAPO

 



The PRC has extended the deadline for submissions of nominations for the Outstanding Professional of the Year Award (OPYA) and Outstanding Accredited Professional Organization (OAPO) to August 31, 2021.

In a Memo from the Office of PRC Commissioner Yolanda Reyes dated July 16, 2021, said extension was due to a letter received from the Foundation of Outstanding Professionals (FOP) requesting for an extension of submission of nominations. This was for the purpose of accommodating the requests of APOs/AIPOs for additional time within which to process the requirements of their nominees.

In addition, the schedule of screening and deliberation for the OPYA and OAPO will also be revised.

Friday, April 9, 2021

Dates of Submission of Nominees for OPYA 2021 Rescheduled

 


The Professional Regulation Commission (PRC) has announced the rescheduling of the dates of submission of the nomination for the Outstanding Professional of the Year Award (OPYA) and Outstanding Accredited Professional Organization (OAPO) from April 6, 2021 to May 17, 2021. 

The announcement on the change of dates of the deadline for submission of nominations was sent through a Memo from the Office of PRC Commissioner Yolanda Reyes dated April 6, 2021. This was because of the reimposition of the Enhanced Community Quarantine (ECQ) in the Greater Manila Area, which consists of Metro Manila, Bulacan, Cavite, Laguna, and Rizal and due to numerous requests received from the APOs/AIPOs.

This would give additional time for the APOs/AIPOs and the various PRBs to look for qualified nominees for the OPYA.

Friday, February 12, 2021

Search for Outstanding Professional of the Year Awardee 2021

 


It is with great excitement to announce to all of you there aeronautical engineers that the Professional Regulation Commission (PRC) has opened the nominations for the 2021 Outstanding Professional of the Year Award (OPYA) for all of its 43 professions. The OPYA recognizes "the hallmarks of integrity, responsibility, competence, excellent service, and valuable contributions to the professions."

In a letter to the PRB Chairperson Jun Ferreras dated February 10, PRC Commissioner Yolanda Reyes is requesting the PRB of Aeronautical Engineering (PRB-AER) to submit three (3) qualified nominees from our profession on or before April 16, 2021. 

In this regard, the PRB-AER is coordinating with the Society of Aerospace Engineers of the Philippines (SAEP) in the search for prospective nominees not only nationwide but also throughout the world. The search might be hampered with the current situation of the quarantine brought about by the Covid-19 pandemic, but it must be done nevertheless with dedication and adherence to the criteria set forth by the Commission.

A little background on the OPYA is in order. The PRC began the bestowal of the OPYA in 1997 to acknowledge the acheivement and service of professionals who excel in their respective fields of professional endeavor. Considered as the highest distinctions conferred by PRC to a professional, the OPYA, together with other awards, are given during the Awards Night, being the highlight of the PRC Anniversary Celebration and the Professional Regulation Week, which is observed every year from June 16 to 22 by virtue of Proclamation No. 118, Series of 1987.

The following are the criteria for the nominees:


Detailed criteria are as follows:


The Screening & Selection Committee for OPYA shall conduct a panel interview of the nominees and shall individually rate the nominees in accordance with the criteria set forth by the Commission. The ratings shall be tallied to determine the highest-ranked nominees qualified for the award.

The PRC is looking forward to our active participation in this prestigious endeavor and our attendance to the 2021 PRC Awards.

Wednesday, June 17, 2020

PRC Issued Public Advisory Recognizing the Heroism of Filipino Professionals



The Professional Regulation Commission has issued a public advisory in which it recognizes the heroism of our professionals in the time of COVID-19 pandemic by granting or awarding Continuing Professional Development (CPD) credit units (CUs) to all registered professionals who are providing essential services. The initiative is under the CPD's Informal Learning, Professional Work Experience and Self-Directed Learning.

Professionals who wish to avail of the said grant shall submit Certification from Institution, Agency, Entity or own Declaration, as may be applicable.

The CPD Councils shall issue their respective advisories to assist and guide the applicants on the award of CPD credit units.

This is under PRC Res. No. 1239 s.2020.

For details and guidelines on its availment, please click the link below:
https://www.prc.gov.ph/sites/default/files/2020-1239_0.pdf


What are Informal Learning, Professional Work Experience or Self-Directed Learning? Or how can a professional earn CUs through these means acknowledging the fact that professionals are constrained from attending CPD programs and activities that entail mass gathering due to the imposition of social distancing during this time of COVID-19 Public Health Emergency?

The PRC is reiterating the ways of learning that can earn CPD CUs by issuing Res. No. 1240 s.2020.

To understand these CPD ways of learning, the following PRC Resolutions elaborated on the matter:

[From Res. No. 1208 s. 2019]:

a. INFORMAL LEARNING (IL)

This refers to learning that occurs in daily life and which can contribute to a qualification. Examples:

1. Reading of books, magazines, journals, and the like that will develop leadership, management, and other skills;

2. Learning how to use cross platform Voice Over Internet Protocol (VOIP) and instant messaging using cloud-based video conferencing tool to meet with co-workers;

3. Learning how to prepare gluten-free meals and baked products; and

4. Learning how to do gardening for home consumption of organic vegetable and fruits.


b. PROFESSIONAL WORK EXPERIENCE (PWE)

This refers to practice at work place that is directly related to profession.
Examples:

1. Reading of books, magazines, journals, and the like on how to improve knowledge and skills in the field of professional practice;

2. Learning how to fashion wheelchairs for pediatric patients with special needs;

3. Learning how to design homes for the elderly population;

4. Learning how to design modules for online teaching;

5. Learning ways of collecting and disseminating information to faculty and students who are studying by distance education; and

6. Providing professional consultancy services to clients.


[From Res. No. 1197 s.2019]

c. SELF-DIRECTED LEARNING (SDL)

This refers to the learning activities such as online training, local/international seminar, non-degree courses, institution/company-sponsored training programs, and the like, which did not undergo CPD accreditation but may be awarded CPD units by the respective CPD Council. These activities are driven by one's need and motivation to learn either through a professional activity or volunteer engagement.

Professional Activity (PA) - refers to activity which promotes and facilitates enhancement of knowledge, skills and values as a professional.

Volunteer Engagement (VE) - refers to activity done under the ambit of social responsibility, which may or may not directly involve the practice of profession, but may help in the development of the professional in the social milieu.


d. ONLINE LEARNING ACTIVITIES (OLA)

These refer to structured or unstructured learning initiatives, which make use of the internet and other web-based Information and Communication Technology solutions. [Sec. 3(p), Art. I of the CPD Act of 2016]

Additional Info:

The PRC is extending the acceptance of Undertaking until December 31, 2021 to enable the professionals to apply for the renewal of their Professional Identification Card (PIC) even without or incomplete CPD units.

For details of the Resolution, please click the link below:

https://www.prc.gov.ph/sites/default/files/2020-1240ReteratingWays.pdf


                                                                        -ooo-