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<title>Cold Isostatic pressing to improve the mechanical performance of additively manufactured metallic components</title>
<creator>Cuesta Segura, Isidoro Iván</creator>
<creator>Martínez Pañeda, Emilio</creator>
<creator>Díaz Portugal, Andrés</creator>
<creator>Alegre Calderón, Jesús Manuel</creator>
<subject>cold isostatic pressure</subject>
<subject>metal 3D printing</subject>
<subject>small punch test</subject>
<subject>binder jetting</subject>
<description>Additive manufacturing is becoming a technique with great prospects for the production of&#xd;
components with new designs or shapes that are difficult to obtain by conventional manufacturing&#xd;
methods. One of the most promising techniques for printing metallic components is binder jetting,&#xd;
due to its time efficiency and its ability to generate complex parts. In this process, a liquid binding&#xd;
agent is selectively deposited to adhere the powder particles of the printing material. Once the metallic&#xd;
piece is generated, it undergoes a subsequent process of curing and sintering to increase its density&#xd;
(hot isostatic pressing). In thiswork,we propose subjecting themanufactured component to an additional&#xd;
post-processing treatment involving the application of a high hydrostatic pressure (5000 bar) at room&#xd;
temperature. This post-processing technique, so-called cold isostatic pressing (CIP), is shown to increase&#xd;
the yield load and the maximum carrying capacity of an additively manufactured AISI 316L stainless&#xd;
steel. The mechanical properties, with and without CIP processing, are estimated by means of the&#xd;
small punch test, a suitable experimental technique to assess the mechanical response of small samples.&#xd;
In addition,we investigate the porosity andmicrostructure of thematerial according to the orientations of&#xd;
layer deposition during themanufacturing process. Our observations reveal a homogeneous distribution&#xd;
independent of these orientations, evidencing thus an isotropic behaviour of the material.</description>
<date>2021-03-24</date>
<date>2021-03-24</date>
<date>2019-08</date>
<type>info:eu-repo/semantics/article</type>
<identifier>http://hdl.handle.net/10259/5659</identifier>
<identifier>10.3390/ma12152495</identifier>
<identifier>1996-1944</identifier>
<language>eng</language>
<relation>Materials. 2019, V. 12, n. 15, 2495</relation>
<relation>https://doi.org/10.3390/ma12152495</relation>
<relation>info:eu-repo/grantAgreement/JCyL/BU033G18</relation>
<rights>http://creativecommons.org/licenses/by/4.0/</rights>
<rights>info:eu-repo/semantics/openAccess</rights>
<rights>Atribución 4.0 Internacional</rights>
<publisher>MDPI</publisher>
</thesis></metadata></record></GetRecord></OAI-PMH>