Aerospace industry in Latin America

The aerospace industry continues to face uncertainty as tariffs are imposed and withdrawn, compounding existing challenges like supply chain disruptions and parts shortages. The unpredictable tariff landscape has heightened concerns over delivery delays and slowed production.
Negotiations between airlines and manufacturers are underway to determine who will bear the cost of tariffs. Delta Air Lines has announced its preference to delay aircraft deliveries rather than absorb the additional costs. CEO Ed Bastian emphasized that the airline will not pay tariffs on incoming aircraft.
Manufacturers are also seeking clarity as rising costs and market hesitation slow production. In February, Airbus CEO Guillaume Faury indicated that if tariffs take effect, the company may shift its focus to non-US clients. Delays have also affected shipments of RTX engines as the company works to comply with the United States-Mexico-Canada Agreement (USMCA).
The aerospace sector has largely avoided direct tariff impacts, thanks to compliance with agreements like the USMCA. President Donald Trump clarified that products meeting USMCA standards would not be subject to tariffs, a stance confirmed by both Airbus and Boeing.
However, broader supply chain pressures persist, exacerbated by a 25% tariff on aluminum and steel. In March, Boeing's CFO Brian West expressed concern about these tariffs limiting access to critical components. Howmet Aerospace, a key supplier to both Airbus and Boeing, declared a force majeure event in response to potential trade restrictions, warning it may halt deliveries.
Aircraft orders, typically placed years in advance, now face delays that could increase costs for manufacturers and ultimately lead to higher airfares. Historically, aerospace products have benefited from duty-free trade under agreements involving the United States and Canada since 1979, although Mexico has been excluded.


View: https://www.youtube.com/watch?v=kMC--S-KfiA



Guillaume Faury, CEO of Airbus, warned about the impact that a trade escalation with the United States would have on the aeronautics industry and called for avoiding retaliatory tariffs. “It is an industry that today operates without tariffs,” he emphasized during the Airbus Summit 2025, while urging other countries not to follow the protectionist path of Donald Trump's administration.

“It's important for the rest of the world not to discuss tariffs, to remain calm and not to increase the possibility of tariffs beyond the United States,” the CEO of the largest global commercial aircraft manufacturer noted.

Unlike other sectors, commercial aviation depends on a highly globalized supply chain. Aircraft, like automobiles, are assembled from components produced in a variety of countries, from engines to electronics to airframes. A tariff in the industry will not only drive up production costs, but will also affect the competitiveness of companies, forcing them to seek alternatives that are not always viable in terms of cost or quality.

The commercial aviation market remains highly concentrated. According to the consulting firm Mordor Intelligence, five companies control 90.62% of the industry, with Airbus in first position, followed by ART, Embraer, Boeing and United Aircraft Corporation.

The importance of the United States in the sector is not minor. According to an analysis by Mordor Intelligence, this country retains the most dynamic market globally, “due to increasing levels of air transport and the growing number of commercial aircraft orders from major airlines, which is also boosting prospects at the regional level”.

Airbus has 20 manufacturing sites around the world, where different parts of the aircraft are produced and assembled, which are then sent to final assembly lines where the entire aircraft is manufactured. These plants depend on thousands of suppliers around the world, which produce around 80% of the aircraft before they reach the final facilities.

Airbus' call comes against a backdrop of growing trade tensions, where economies such as those in Europe, Canada and even China have responded to protectionist measures by the United States with tariffs on key products. This adds pressure to the company's supply chain, which is facing increased demand for aircraft.

View: https://www.youtube.com/watch?v=UEhblIwN_XQ


The aerospace industry in Mexico will grow 14.7% by 2030, according to Camexa

According to data provided by Camexa, this year the size of this sector is estimated at $2.65 billion.

View: https://www.youtube.com/watch?v=oJNH-H6qmRA
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Today I have the honor of interviewing Alejandro Cardona Seemann, President of Safran Mexico, who shares his extensive experience in the aerospace industry.

Together, we discussed Safran's industrial footprint in Mexico, the crucial role of talent development and education in the sector, and the major trends shaping the future of the industry, such as decarbonization and electromobility. Alejandro also offers valuable advice for young people looking to launch a career in the aerospace industry.
 
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“Mexico” strikes up the thoughts of beautiful beaches, big cities, enchiladas and…the Luscurain Aura, obviously.

Engineer Ángel Lascurain developed the Aura as a transport capable of reaching rural regions of Mexico, operating out of rugged, dirt runways. Reportedly the inspiration for the design (and name) came from the turkey vulture, prevalent in regions of Mexico. (I included a comparison photo so you can see the striking similarities) Kidding aside, the design does in fact have very long wings, with huge chord. Not often you see designs with so much wing area (for the fuselage size), and is considered a variant of a “blended wing” design, not unlike the Burnelli series of aircraft. The thick wing concept was initially tested in a scale version named the “Celia”, powered with what look like small flat-4 engines. ⁣

Power was supplied by two 245HP Jacobs, same you’d find in the the much smaller Cessna Bobcat. Seating capacity was for 12 passengers, with a lavatory, or 14 without the lav. Baggage was stored in the thick wing area between the fuselage and engine. (Starting to think those little Jacobs were bit inadequate, no?) ⁣

News traveled fast about the innovative Aura and designers from around the world marveled on how well built it was, considering the scant resources with which it was built, and funded mostly on donations.

Sadly, in 1957, after only having flown a total 16hrs the Aura crashed following dual power failure and an attempt to return to the airport. The aircraft landing short of the runway, flipped over and broke apart, taking away the lives of the test pilot and Ángel Lascurain himself. One day before it was to be certified. And thus ending the very brief life of the largest aircraft produced in Mexico. ⁣

Lascurain Sport, a semi-blended wing twin from Mexico 1939.​

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Photo Source: elbiplano.com/Lascurain.html⁣
Video Source: Youtube aguilanegra4⁣



The Anahuac Tauro is a Mexican agricultural aircraft built in small numbers in the late 1960s and 1970s. The first prototype flew on 3 December 1968, with Mexican Type certification (the first type approved by Mexico's DGAC) following on 8 August 1969.[1] It was a low-wing braced monoplane of conventional configuration with fixed tailwheel undercarriage. The wing was of constant chord and had spray bars installed along its trailing edge.

Variants
Tauro 300 - prototype and seven production examples with 300 hp R-755-A2M1 engine
Tauro 350 - four examples with 350 hp R-755-SM engine
Specifications (Tauro 350)
Data from Jane's All The World's Aircraft 1980-81 [1]

General characteristics

Crew: One
Capacity: 870 L (230 US Gallons) of liquid or 800 kg (1,764 lb) of dry chemicals
Length: 8.21 m (26 ft 11¼ in)
Wingspan: 11.44 m (37 ft 6½ in)
Height: 2.34 m (7 ft 8 in)
Wing area: 20.24 m² (217.9 ft²)
Airfoil: US 35B
Empty weight: 958 kg (2,112 lb)
Max. takeoff weight: 2,064 kg (4,552 lb)
Powerplant: 1 × Jacobs R-755-SM seven-cylinder radial engine, 261 kW (350 hp)
Performance

Never exceed speed: 225 km/h (121 knots, 140 mph)
Maximum speed: 193 km/h (104 knots, 120 mph)
Cruise speed: 137 km/h (74 knots, 85 mph) (econ cruise)
Stall speed: 68 km/h (36.5 knots, 42 mph)
Range: 375 km (202 nm, 233 mi)
Service ceiling: 5,790 m (19,000 ft)
Rate of climb: 4.3 m/s (850 ft/min)




https://www.revolvy.com/page/Anahuac-Tauro

https://docplayer.es/80373078-Secre...es-economicas-administrativas-y-sociales.html

The Tonatiuh project was designated as CIAAC-7701, the first prototype started its construction in February 1978 in the Naval Hangar of the Mexico City international airport Benito Juarez.
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IPN Tonatiuh
TONATIUH MX-1 plane - Mexico
1744676742593.webpThe Tonatiuh MX-1 was designed by the Marina of Mexico (SEMAR) and by the Polytechnic Institute of National (IPN) the Higher School of Mechanical and Electrical Engineering (ESIME). The design work started in 1978, ending the construction of the first prototype in 1980, with an investment of nearly two million pesos. The first flight of the prototype was made on May 18, 1980, the first flight The first official flight on June 1 of the same year.
it was a single-engine airplane, with high wing and the tubular structure, which develops a speed of up to 195 km / h, can be used as a primary trainer for pilots, such as the aircraft and the environment. The Tanatiuh was a robust and simple aircraft, and it costed 35% less than its foreign equivalent.

For its wing profile they used another Mexican aircraft, designed and manufactured by national technicians Monterrey. However, the section of the wing was specifically designed for it, and although Bárcenas ribs, beams and tensioners B-01 were used, the cost modulation in this case was different.
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8 aircraft in total, of which 6 were acquired in 1982 by the Navy of Mexico. These devices were used in training, surveillance and liaison work until the mid-1990s.

From the last century, a four-seater version has been published, with a 235-hp engine. and a gross weight of 1,250 kg.


Technical data
Seats: 2
Length: 7 m
Spread: 10 m.
Cabin length: 1.69 m.
Cabin width: 2.10 m
Height of the floor to the wing: 2,13 m.
Empty weight: 350 kg.
Maximum takeoff weight: 450 kg.
Payload: 50 kg.
Distance for landing: 150 m.
Maximum speed: 195 km / h
Autonomy: 3.5 hours.
Engine: Lycoming of 150 hp.
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http://blogdepasm.blogspot.com/2009/07/avion-tonatiuh-mx-1-mexico.html
 
FAMEX 2025 Organizers Say They Are Ready

Ulises Gutiérrez / Tuesday, April 15, 2025 - 1:45 PM
THIS EDITION, BETWEEN APRIL 23-26, WILL FOCUS ON SUSTAINABILITY, AI, SPACE, SUPPLY CHAINS, AND UNMANNED SYSTEMS
FAMEX Sustainability
The Mexican Aerospace Fair 2025 (FAMEX) is already counting down the days until its start and has confirmed 337 exhibiting companies, more than 150 organizations, 48 countries, 38 embassies, 5 air force commanders, and more than 10 representatives from other armed forces, which demonstrates its consolidation.

“FAMEX has established itself as the most important aerospace fair in Latin America, also driving Mexico's economic development by generating jobs,” stated General Disraeli Gómez Herrera, the event's general director.

“Today, FAMEX is consolidated as a unique platform for large and small, national and international companies, academic institutions, and government offices to collaborate hand in hand, generating business and investment opportunities,” he said.



The fair's director emphasized that in the 10 years it has been held, the event has helped develop the country's industry. One example he gave was exports in the manufacturing sector, which grew from $4 billion to $11 billion last year, according to official figures.

“Ten years ago, the industry's presence was in 14 states; now it's 21. In terms of job creation, there are 66,000 direct employees and annual growth of nearly 14 percent. The fair hasn't achieved this alone; it has joined the effort,” she shared.

This edition, to be held in Santa Lucía, will focus on five topics: sustainability in aviation, artificial intelligence and automation, international cooperation and supply chain development, space, and unmanned systems.

Between April 23 and 25, there will be foreign investment seminars, technical conferences, academic events, and symposia; in addition to a ceremony honoring the 110th anniversary of the Mexican Air Force and another to commemorate the 80th anniversary of the end of World War II, a conflict in which Mexico participated with Squadron 201.

In addition, the fourth Congress of Women Leaders will be held on April 24, as well as the Aerospace Summit, featuring various presentations and conferences.

Various air displays will also be on display, including a parachute jump by the Mexican Air Force's Eagle Warriors and the United States Air Force's Blackwings. 69 aircraft will also be parked.

The closing ceremony will take place on Saturday, the 26th, at 10:00 a.m.

Gómez Herrera emphasized that FAMEX 2025 will feature the latest trends in the space, security, and defense industries, as well as networking with industry leaders. Among its objectives is to inspire new generations of engineers and scientists.

On this occasion, Brazil will be the international guest of honor, presenting its C-390 Millennium multi-mission aircraft. Querétaro, which stands out as the driving force and home of the Mexican aerospace industry, will be the national guest of honor.

"This is how the Santa Lucía air base will become the epicenter of innovation, technology, and development of the aerospace industry in Mexico and the world," added the FAMEX director.

"FAMEX will continue to contribute to creating synergies in the aerospace industry to continue developing sustainably for people and businesses in general," he concluded.
AEROMARMI, S.A. DE C.V. MADE IN MEXICO

The Mexican company Aeromarmi, S.L.P., is located in the state of San Luis Potosí. Founded in 2005 by all Mexican partners, it designs and manufactures 100% Mexican aircraft using composite materials. This technique, which can be simplified by replacing metals with resins and carbon and glass fibers, achieving strength similar to that of metals but with the lightness of plastic. This weight reduction provides enormous advantages in aviation by also reducing fuel consumption and, with smaller engines, optimizing fuel consumption and flight range, resulting in advantages for these aircraft.

With a monocoque and wings made of composite materials, the aircraft's surface is smooth, free of joints, screws, rivets, or sheets that could loosen over time or create maintenance problems. On the contrary, the entire fuselage of aircraft made with this technique offers a perfect aerodynamic surface and looks like new with only periodic cleaning.

Aeromarmi maintains a collaboration agreement with the National Polytechnic Institute, specifically with the ESIME Ticoman Aeronautics School. This agreement provides not only consulting services but also the use of the academic institution's own laboratories to conduct the necessary tests for strength, aging, and improvements, not only regarding the composite fuselage, but also regarding the aircraft's general aerodynamics. Similarly, the aeronautics school is working on the calculation and design of four- and six-seat single-engine aircraft that the company intends to produce in the near future.

Currently, the company's aircraft are single-engine, high-wing, with two seats and dual controls, making them ideal for flight schools or for personal transportation for those who enjoy flying, and for surveillance aircraft on beaches, coasts, jungles, forests, etc.

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The aircraft we have completed have been equipped with four- or six-cylinder Jabiru engines, with power outputs of 80 and 120 HP, depending on the needs of the clients. The avionics installed in the aircraft are basic, and the electronic display in use is complemented by a conventional altimeter, speedometer, and tachometer for dual reading of the main aircraft. On the Fligh DEK – D180 screen, the Dynon Avionics, the oil temperature and pressure, the fuel level, the temperature of each of the cylinders, as well as the speed, elevation and heading of the aircraft in flight are controlled, which allows the pilot at all times, to have the necessary information, to make the appropriate decisions.


In my June 2020 blog, "First CFRP Airframe in Mexico," I discussed how RHEM Composites (Querétaro, Mexico) and the Aeronautical University of Querétaro (UNAQ) helped design and build the carbon fiber-reinforced polymer (CFRP) fuselage for the third prototype of Oaxaca Aerospace's (Tlalixtac de Cabrera, Oaxaca, Mexico) Pegasus P-400T two-seat trainer aircraft.

In response to that blog, CW reader Erik wrote to correct me. "I'd like to clarify a point about CFRP airframe construction in Mexico," he explains. "There was another first CFRP fuselage construction done for the Stela-M1 two-seat trainer, back in 2007, by the Aeromarmi company in San Luis Potosí, about 200 kilometers north of Querétaro."
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Vargas notes that Aeromarmi worked closely with several universities, including the National Polytechnic Institute in Mexico City. He included the following links, which provide a trail of scientific articles:
"The purpose of my email is not to detract from RHEM Composites," says Vargas. “In fact, their greatest achievement is that they started from scratch in the development of the Pegasus P-400T CFRP fuselage. Aeromarmi, on the other hand, already had fuselage molds for the Stela-M1 because it was first developed in Spain. However, production of three to four aircraft will be fully completed in San Luis Potosí over the next few years.”

I'm glad to learn about this story about the development of composite aircraft in Mexico, and I'm also glad that CW readers take our articles seriously enough to correct us. Thanks to Erik Vargas-Rojas, and we all hope that future composites, in the aerospace and other industries, will be developed in Mexico. Stay tuned as we work to have at least one more story like this for you in 2021.
 

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