TY - JOUR
T1 - Assessing the economic feasibility and environmental sustainability of 3D printed dysphagic food
AU - Stratakos, Alexandros
AU - Vyrkou, Antonia
AU - Fatola, Oluwatobi
AU - Angelis-Dimakis, Athanasios
N1 - Publisher Copyright:
© 2025
PY - 2025/12/1
Y1 - 2025/12/1
N2 - 3D-printing of food is an emerging technology that has great potential not only to leading to more efficient food production with less waste but also for developing functional foods, suitable for consumers with specific medical conditions such as dysphagia. An aspect that has not been addressed so far, though, is its environmental performance compared to conventional food production and the potential economic benefits of decentralised 3D-printing of food. We have examined the case of a care home which hosts between 10 and 30 dysphagic residents, with specific dietary requirements, and assessed three alternative scenarios: (a) decentralised 3D printed dysphagic food; (b) centralised 3D printed dysphagic food, distributed to the care home; and (c) centralised conventionally prepared dysphagic food. The analysis has shown that 3D-printing of dysphagic food has a better environmental performance compared to conventionally prepared food, with a 5–13 % improvement in all the midpoint impact indicators. Moreover, the purchase of a 3D-printer by the case home for decentralised production of dysphagic food can be a profitable investment, with the price of conventionally prepared food being the main parameter affecting the decision. A commercial purchase price conventionally prepared food higher than £3.80 per portion of 250 g will definitely render such an investment economically viable, while prices as low as £3.25 can also lead to a viable investment, when the number of residents increases.
AB - 3D-printing of food is an emerging technology that has great potential not only to leading to more efficient food production with less waste but also for developing functional foods, suitable for consumers with specific medical conditions such as dysphagia. An aspect that has not been addressed so far, though, is its environmental performance compared to conventional food production and the potential economic benefits of decentralised 3D-printing of food. We have examined the case of a care home which hosts between 10 and 30 dysphagic residents, with specific dietary requirements, and assessed three alternative scenarios: (a) decentralised 3D printed dysphagic food; (b) centralised 3D printed dysphagic food, distributed to the care home; and (c) centralised conventionally prepared dysphagic food. The analysis has shown that 3D-printing of dysphagic food has a better environmental performance compared to conventionally prepared food, with a 5–13 % improvement in all the midpoint impact indicators. Moreover, the purchase of a 3D-printer by the case home for decentralised production of dysphagic food can be a profitable investment, with the price of conventionally prepared food being the main parameter affecting the decision. A commercial purchase price conventionally prepared food higher than £3.80 per portion of 250 g will definitely render such an investment economically viable, while prices as low as £3.25 can also lead to a viable investment, when the number of residents increases.
KW - 3D-printed food
KW - Life cycle assessment
KW - Technoeconomic assessment
KW - Dysphagic food
UR - https://www.scopus.com/pages/publications/105017434518
U2 - 10.1016/j.cesys.2025.100341
DO - 10.1016/j.cesys.2025.100341
M3 - Article
SN - 2666-7894
VL - 19
JO - Cleaner Environmental Systems
JF - Cleaner Environmental Systems
M1 - 100341
ER -