Photo
![](/sites/default/files/styles/photo_gallery_515_x_325_/public/UMD_v2_0_1.jpg?itok=rPoKmmlu)
Caption
The University of Maryland used direct metal printing—a 3D printing technology—to manufacture a unique miniaturized air-to-refrigerant heat exchanger as a single, continuous piece. Image: University of Maryland, Center for Environmental Energy Engineering.
Photo
![](/sites/default/files/styles/photo_gallery_515_x_325_/public/Heatexchangers1_0.jpg?itok=zE0J4YrS)
Caption
Credit: Oak Ridge National Lab.
Photo
![](/sites/default/files/styles/photo_gallery_515_x_325_/public/Heatexchangers2_0.jpg?itok=SJ_uDyXM)
Caption
(a) Finned Microchannel (MCHX);
(b) Web-Tube (WTHX) (Abdelaziz et. al., 2010);
(c) Round Bare Tube (BTHX);
(d) Plain Fin-and-Tube (FTHX).
Credit: Oak Ridge National Lab.
(b) Web-Tube (WTHX) (Abdelaziz et. al., 2010);
(c) Round Bare Tube (BTHX);
(d) Plain Fin-and-Tube (FTHX).
Credit: Oak Ridge National Lab.
Photo
![](/sites/default/files/styles/photo_gallery_515_x_325_/public/UMD_v2_0_1.jpg?itok=rPoKmmlu)
Caption
The University of Maryland used direct metal printing—a 3D printing technology—to manufacture a unique miniaturized air-to-refrigerant heat exchanger as a single, continuous piece. Image: University of Maryland, Center for Environmental Energy Engineering.
The University of Maryland used direct metal printing—a 3D printing technology—to manufacture a unique miniaturized air-to-refrigerant heat exchanger as a single, continuous piece. Image: University of Maryland, Center for Environmental Energy Engineering.