In this article, we will discuss the value chain of the Aerospace Industry and will define the generic business model to understand the key process areas in the aerospace industry. This will provide you with a basic understanding of key activities in the industry.
The aerospace and defense industry value chain can be defined as follows:
The most important aspect of the aerospace industry is research and development. Aerospace firms big and small throughout the world employ designers, jet engineers, and others to work solely in the research and development of new aircraft and aerospace technologies. Research and development are crucial in the creation of aircraft to ensure safety, compliance, technological advances to stay ahead of the fierce competition.
Research and development have been responsible for the creation of new aerospace technologies like the Stealth bomber and satellite flight guidance systems. In product planning, ideas for new products based on market research, safety regulations, and legislation, as well as financial feasibility, are discussed. The R&D team continuously modifies or redesigns new products until they meet the required specifications.
Flight vehicles are subjected to demanding conditions such as those produced by extreme changes in atmospheric pressure and temperature, with structural loads applied upon vehicle components. Consequently, they are usually the products of various technological and engineering disciplines including aerodynamics, propulsion, avionics, materials science, structural analysis, and manufacturing. The interaction between these technologies is known as aerospace engineering.
Because of the number of disciplines involved, aerospace engineering is carried out by teams of engineers, each having their own specialized area of expertise. The development and manufacturing of a modern flight vehicle is an extremely complex process and demands careful balance and compromise between abilities, design, available technology, and costs.
Aerospace engineers design, test, and supervise the manufacture of aircraft, spacecraft, and missiles. Aerospace engineers develop new technologies for use in aviation, defense systems, and space. Designers create conceptual sketches, clay models, or computer-aided 3-D designs of a new product. Then, they collaborate with suppliers and product managers to ensure that newly designed parts can be successfully integrated into the design specifications of an aircraft, missile, or another product model. Finally, a prototype of each part is built. The team troubleshoots any potential problems and conducts the required tests. Since the aerospace industry is very design intensive, on average an OEM takes about five years to design a completely new model.
The global commercial aerospace market has few prime contractors who manufacture aircraft and engines. There are numerous small and medium-sized firms that supply components and subsystems. Typically the aerospace value chain is characterized by engine manufacturers and system suppliers firms who are in exclusive supplier contracts with aircraft manufacturers. Once the engineering design is ready and the prototype is approved, the next step in the aerospace value chain is the aerospace manufacturing process. Raw materials are requisitioned from suppliers, purchases, and tested and this process results in the production of the final part.
The lead times in aircraft manufacturing are typically very long. According to Boeing, building a commercial jet aircraft takes about a year on an average. The tooling requirements are very critical and can be almost one third to two-thirds of the total development costs. The recurring cost thereafter for the aerospace companies comprises of maintenance costs including tool replacement. All the requisite finished parts needs for the final product are either ordered or procured from suppliers, or parts are produced in-house in the earlier step. They are used to assemble the final product. The final product is then assessed for quality; if it doesn't meet the required standards, it is reworked.
The life cycle of a typical commercial aircraft spans about 30 years. There is a trend in the aerospace industry for both outright sales and leasing of the aircraft. OEM makes logistical decisions about the transportation of the products from warehouses to the customer. Logistics and contracts to purchase or lease the products are finalized at this step.
As a current trend, the aftermarket services are being pushed back to the suppliers since the OEMs increasingly understand that this is not their core competence. The services technologies are also becoming increasingly advanced which means that a specialist in this area would be able to manage this area much more competently. OEMs have to make sure that service engineers and technicians are available to meet any after-sales support and service needs. Customers are also free to contract the MROs of their choice for future maintenance and repair needs.
Key Sectors of Aerospace and Defense Industry
Understand the categorization of the aerospace industry to various sectors based on the services it currently provides. Understand the key constituents under these sectors and activities under each of these sectors.
Civil Aerospace Sector - Sector Profile
In this article, we will discuss the four important sub-sectors of the Civil Aerospace Sector namely “Civil Aircraft Manufacturing”, “Commercial Avionics”, “MRO” and “Commercial Simulation & Training”.
An overview of the Aerospace Industry. A brief account of how modern aerospace began way back with Sir George Cayley in 1799 and the success story of the Wright Brothers to today's massive international airspace developments.
Aerospace Industry: The Business Model
In this article, we will discuss the value chain of the Aerospace Industry and will define the generic business model to understand the key process areas in the aerospace industry. This will provide you with a basic understanding of key activities in the industry.
Civil Aerospace: Civil Aircraft Manufacturing Industry
This article discusses sectors within the Civil Aerospace Sector and its subsectors, products, and services. This article provides an overview of the definition, industry products, industry activities, and global locations.
Military & Defense Aerospace Sector – Sector Profile
In this article, we will discuss the important sub-sectors of the Military & Defense Aerospace Sector namely military aircraft manufacturing and military avionics, maintenance, repair, and overhaul (MRO), missiles, C4ISR, and related services and modeling, simulation, and training.
Application of Aviation in Military – A Short History
Aerospace is an industry that has a history of about a century in the defense space. This article discusses how the historic flight of the Wright brothers in 1908 gave birth to the aerospace defense industry that today employs 850K people in the US only.
Civil Aerospace: Maintenance, Repair & Overhaul (MRO)
This subsector under the civil aerospace industry includes the maintenance, repair, and overhaul (Known as MRO) of civil aircraft and aircraft components. This includes line and heavy maintenance of civil aircraft, as well as repair and overhaul of all parts of an aircraft, including engines, electronic components, and avionics, instruments, and aircraft structures.
Challenges in the Aerospace and Defense Industry
New market dynamics are dramatically changing the way A&D companies serve their customers, collaborate with partners, and take ideas and solutions to the market. Given below are several vitally important challenges that are currently confronting the aerospace and defense industry and strategies to mitigate them.
Civil Aerospace: Commercial Avionics Industry
Commercial avionics refers to cockpit electronics and airborne equipment, although it doesn't include antennas, recorders, or other passenger-only cabin systems. Avionics is referred to denote the electronic systems that are utilized in aircraft.
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