The Development of an Advanced Air Mobility Flight Testing and Simulation Infrastructure

Author:

Altun Arinc Tutku1ORCID,Hasanzade Mehmet1,Saldiran Emre1,Guner Guney1,Uzun Mevlut1,Fremond Rodolphe1,Tang Yiwen1ORCID,Bhundoo Prithiviraj1,Su Yu1,Xu Yan1,Inalhan Gokhan1ORCID,Hardt Michael W.2,Fransoy Alejandro2,Modha Ajay3,Tena Jose Antonio4,Nieto Cesar4,Vilaplana Miguel4,Tojal Marta5,Gordo Victor6,Menendez Pablo7,Gonzalez Ana7

Affiliation:

1. School of Aerospace, Transport, and Manufacturing, Cranfield University, Bedford MK43 0AL, UK

2. Boeing Research & Technology—Europe, 28042 Madrid, Spain

3. ANRA Technologies, Bedford MK43 0DG, UK

4. Airbus-Unmanned Traffic Management, 28906 Madrid, Spain

5. Royal Netherlands Aerospace Centre, 1059 Amsterdam, The Netherlands

6. Ineco, 28036 Madrid, Spain

7. NTT Data, 28050 Madrid, Spain

Abstract

The emerging field of Advanced Air Mobility (AAM) holds great promise for revolutionizing transportation by enabling the efficient, safe, and sustainable movement of people and goods in urban and regional environments. AAM encompasses a wide range of electric vertical take-off and landing (eVTOL) aircraft and infrastructure that support their operations. In this work, we first present a new airspace structure by considering different layers for standard-performing vehicles (SPVs) and high-performing vehicles (HPVs), new AAM services for accommodating such a structure, and a holistic contingency management concept for a safe and efficient traffic environment. We then identify the requirements and development process of a testing and simulation infrastructure for AAM demonstrations, which specifically aim to explore the decentralized architecture of the proposed concept and its use cases. To demonstrate the full capability of AAM, we develop an infrastructure that includes advanced U-space services, real and simulated platforms that are suitable for future AAM use cases such as air cargo delivery and air taxi operations, and a co-simulation environment that allows all of the AAM elements to interact with each other in harmony. The considered infrastructure is envisioned to be used in AAM integration-related efforts, especially those focusing on U-space service deployment over a complex traffic environment and those analyzing the interaction between the operator, the U-space service provider (USSP), and the air traffic controller (ATC).

Funder

SESAR JU

Publisher

MDPI AG

Subject

Aerospace Engineering

Reference50 articles.

1. Federal Aviation Administration NextGen (2020). Urban Air Mobility (UAM) Concept of Operations v1.0, Technical Report.

2. Federal Aviation Administration NextGen (2020). Unmanned Aircraft System (UAS) Traffic Management (UTM) Concept of Operations v2.0, Technical Report.

3. Price, G., Helton, D., Jenkins, K., Kvicala, M., Parker, S., Wolfe, R., Miranda, F.A., Goodrich, K.H., Xue, M., and Cate, K.T. (2020). Urban Air Mobility Operational Concept (OpsCon) Passenger-Carrying Operations.

4. Boeing and Wisk (2022). Concept of Operations for Uncrewed Urban Air Mobility, The Boeing Company. Technical Report.

5. Balakrishnan, K., Polastre, J., Mooberry, J., Golding, R., and Sachs, P. (2018). Blueprint for the Sky: The Roadmap for the Safe Integration of Autonomous Aircraft, Airbus UTM.

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