Materials Map

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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Das, J.

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in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (72/72 displayed)

  • 2018Influence of Nb on the microstructure and fracture toughness of (Zr<inf>0.76</inf>Fe<inf>0.24</inf>)<inf>100-x</inf>Nb<inf>x</inf> nano-eutectic composites11citations
  • 2017Is the energy density a reliable parameter for materials synthesis by selective laser melting?343citations
  • 2012Effect of tungsten metal particle sizes on the solubility of molten alloy melt: Experimental observation of Gibbs-Thomson effect in nanocomposites4citations
  • 2011Role of crystalline precipitates on the mechanical properties of (Cu <inf>0.50</inf>Zr<inf>0.50</inf>)<inf>100-x</inf>Al<inf>x</inf> (x = 4, 5, 7) bulk metallic glasses23citations
  • 2011Role of crystalline precipitates on the mechanical properties of (Cu 0.50 Zr 0.50 ) 100- x Al x ( x = 4, 5, 7) bulk metallic glasses23citations
  • 2010Improved plasticity of bulk metallic glasses upon cold rolling129citations
  • 2010Enhanced work hardening of Cu-based bulk metallic glass composites by in-situ formed nano-scale heterogeneities2citations
  • 2010Mechanical response of metallic glasses: Insights from in-situ high energy X-ray diffraction20citations
  • 2010Corrosion and pitting behaviour of ultrafine eutectic Ti-Fe-Sn alloys12citations
  • 2010Effect of prestraining on the deformation and fracture behavior of Zr <inf>44</inf>Ti<inf>11</inf>Cu<inf>9.8</inf>Ni<inf>10.2</inf>Be<inf>25</inf>16citations
  • 2009Designing bulk metallic glass and glass matrix composites in martensitic alloys47citations
  • 2009Correlation between Poisson ratio and Mohr-Coulomb coefficient in metallic glasses16citations
  • 2009Deformation-induced martensitic transformation in Cu-Zr-(Al,Ti) bulk metallic glass composites171citations
  • 2009Consolidation and mechanical properties of ball milled Zr<inf>50</inf>Cu<inf>50</inf> glassy ribbons17citations
  • 2009Glass formation and mechanical properties of (Cu<inf>50</inf>Zr<inf>50</inf>)<inf>100-x</inf>Al<inf>x</inf> (x = 0, 4, 5, 7) bulk metallic glasses39citations
  • 2009Stress-induced martensitic transformation in a Ti<inf>45</inf>Zr <inf>38</inf>Al<inf>17</inf> cast rod2citations
  • 2009Deformation-induced martensitic transformation in CuZrAl(Ti) bulk metallic glass composites171citations
  • 2009Deformation-induced microstructural heterogeneity in monolithic Zr <inf>44</inf>Ti<inf>11</inf>Cu<inf>9.8</inf>Ni<inf>10.2</inf>Be<inf>25</inf> bulk metallic glass31citations
  • 2009Structural evolution of Cu-Zr metallic glasses under tension78citations
  • 2009Phase formation and thermal stability in Cu-Zr-Ti(Al) metallic glasses80citations
  • 2008Deformation behavior and fractographic features of ductile Cu<inf>47</inf> Zr<inf>47</inf>Al<inf>6</inf> bulk metallic glasscitations
  • 2008Strain distribution in Zr<inf>64.13</inf>Cu<inf>15.75</inf>Ni <inf>10.12</inf>Al<inf>10</inf> bulk metallic glass investigated by in situ tensile tests under synchrotron radiation69citations
  • 2008Effect of titanium on microstructure and mechanical properties of Cu<inf>50</inf>Zr<inf>50-x</inf>Ti<inf>x</inf> (2.5 ≤ × ≤ 7.5) glass matrix composites38citations
  • 2008Ti-base nanoeutectic-hexagonal structured (D 0<inf>19</inf>) dendrite composite37citations
  • 2008Nanoscale mechanism and intrinsic structure related deformation of Ti-alloys23citations
  • 2008FeNbB bulk metallic glass with high boron contentcitations
  • 2008Strain distribution in $Zr_{64.13}Cu_{15.75}Ni_{10.12}Al_{10}$ bulk metallic glass investigated by in situ tensile tests under synchrotron radiation69citations
  • 2008Microstructural inhomogeneities introduced in a Zr-based bulk metallic glass upon low-temperature annealing50citations
  • 2007Ti-base bulk nanostructure-dendrite composites: Microstructure and deformation34citations
  • 2007High strength Ti-Fe-Sn ultrafine composites with large plasticity139citations
  • 2007Deformation behavior of a Ti<inf>66</inf>Cu<inf>8</inf>Ni<inf>4.8</inf>Sn<inf>7.2</inf>Nb<inf>14</inf> nanostructured composite containing ductile dendrites19citations
  • 2007Plasticity in bulk metallic glasses investigated via the strain distribution51citations
  • 2007Bulk nanostructure - Dendrite composites: Solidification, microstructure and mechanical propertiescitations
  • 2007Bulk ultra-fine eutectic structure in Ti-Fe-base alloys44citations
  • 2007Strengthening of multicomponent glass-forming alloys by microstructure design8citations
  • 2007Martensite formation in a ductile Cu<inf>47.5</inf>Zr<inf>47.5</inf>Al <inf>5</inf> bulk metallic glass composite48citations
  • 2007Microstructural investigation of a deformed Ti<inf>66.1</inf>Cu<inf>8</inf>Ni<inf>4.8</inf>Sn<inf>7.2</inf>Nb<inf>13 .9</inf> nanostructure-dendrite composite27citations
  • 2007Processing routes/ microstructure and mechanical properties of metallic glasses and their composites46citations
  • 2007New Fe-Cr-Mo-Ga-C composites with high compressive strength and large plasticity15citations
  • 2007Metallic glass formation in the Cu<inf>47</inf>Ti<inf>33</inf>Zr<inf>11</inf>Ni<inf>8</inf>Si<inf>1 </inf> alloy6citations
  • 2007Microstructure and mechanical properties of Ti-Fe-(Sn) ultrafine eutectic alloyscitations
  • 2007Microstructure and mechanical properties of slowly cooled Cu<inf>47.5</inf>Zr<inf>47.5</inf>Al<inf>5</inf>50citations
  • 2007Mechanical properties of bulk metallic glasses and composites394citations
  • 2007Dynamic softening and indentation size effect in a Zr-based bulk glass-forming alloy92citations
  • 2007Microstructural comparison of Zr<inf>73.5</inf>Nb<inf>9</inf>Cu<inf>7</inf>Ni<inf>1</inf>Al<inf>9.5</inf> nanostructure-dendrite composites produced by different casting techniques7citations
  • 2007Formation of ductile ultrafine eutectic structure in Ti-Fe-Sn alloy34citations
  • 2007Impact of microstructural inhomogenities on the ductility of bulk metallic glasses8citations
  • 2006High strength hexagonal structured dendritic phase reinforced Zr-Ti-Ni bulk alloy with enhanced ductility24citations
  • 2006Influence of annealing on the microstructure and hardness of Ti<inf>67.79</inf>Fe<inf>28.36</inf>Sn<inf>3.85</inf> nanocomposite rods7citations
  • 2006Work hardening ability of ductile Ti<inf>45</inf>Cu<inf>40</inf>Ni <inf>7.5</inf>Zr<inf>5</inf>Sn<inf>2.5</inf> and Cu<inf>47.5</inf>Zr <inf>47.5</inf>Al<inf>5</inf> bulk metallic glasses65citations
  • 2006Deformation-induced nanostructuring in a Ti-Nb-Ta-ln β alloy59citations
  • 2006Fracture surface morphology of compressed bulk metallic glass-matrix-composites and bulk metallic glass70citations
  • 2006Phase stability and its effect on the deformation behavior of Ti-Nb-Ta-In/Cr β alloys101citations
  • 2006Effect of Cu on local amorphization in bulk Ni-Ti-Zr-Si alloys during solidification7citations
  • 2006Influence of environment and grain size on magnetic properties of nanocrystalline Mn-Zn ferrite24citations
  • 2006Structural short-range order of the Β-Ti phase in bulk Ti-Fe-(Sn) nanoeutectic composites30citations
  • 2005"work-hardenable" ductile bulk metallic glass876citations
  • 2005Toughening mechanisms of a Ti-based nanostructured composite containing ductile dendrites12citations
  • 2005Nanostructured composite materials with improved deformation behavior29citations
  • 2005Heterogeneous distribution of shear strains in deformed Ti <inf>66.1</inf>Cu <inf>8</inf>Ni <inf>4.8</inf>Sn <inf>7.2</inf>Nb <inf>13.9</inf> nanostructure-dendrite composite14citations
  • 2005Interfacial instability-driven amorphization/nanocrystallization in a bulk Ni45Cu5Ti33Zr16Si1 alloy during solidification5citations
  • 2005Lattice distortiondisordering and local amorphization in the dendrites of a Ti66.1 Cu8 Ni4.8 Sn7.2 Nb13.9 nanostructure-dendrite composite during intersection of shear bands29citations
  • 2005High-strength Ti-base ultrafine eutectic with enhanced ductility150citations
  • 2005In situ formed bulk nanostructured Ti-base compositescitations
  • 2005Propagation of shear bands in Ti<inf>66.1</inf> Cu<inf>8</inf> Ni <inf>4.8</inf> Sn<inf>7.2</inf> Nb<inf>13.9</inf> nanostructure-dendrite composite during deformation44citations
  • 2005Ductile Zr-base bulk nanostructured composites: Present state-of-the-artcitations
  • 2005Improvement of AlGaN∕GaN high electron mobility transistor structures by in situ deposition of a Si3N4 surface layer193citations
  • 2004Novel in situ nanostructure-dendrite composites in Zr-base multicomponent alloy system9citations
  • 2004Effect of casting conditions on dendrite-amorphous/nanocrystalline Zr-Nb-Cu-Ni-Al in situ composites54citations
  • 2003High-strength Zr-Nb-(Cu,Ni,Al) composites with enhanced plasticity108citations
  • 2003Effect of casting conditions on microstructure and mechanical properties of high-strength Zr<inf>73.5</inf>Nb<inf>9</inf>Cu<inf>7</inf>Ni <inf>1</inf>Al<inf>9.5</inf> in situ composites58citations
  • 2003Nanostructured Composites in Multicomponent Alloy Systems34citations

Places of action

Chart of shared publication
Maity, T.
2 / 11 shared
Eckert, Jürgen
68 / 1035 shared
Dutta, A.
1 / 6 shared
Prashanth, K. G.
2 / 60 shared
Jana, P. P.
1 / 2 shared
Scudino, S.
7 / 154 shared
Sordelet, D. J.
2 / 19 shared
Lee, M. H.
5 / 13 shared
Hurd, A. J.
1 / 1 shared
Castellero, A.
2 / 10 shared
Baser, T. A.
4 / 8 shared
Baricco, M.
4 / 27 shared
Battezzati, L.
2 / 16 shared
Matteis, P.
2 / 25 shared
Eckert, J.
3 / 70 shared
Thomas, J.
2 / 26 shared
Lee, K. S.
3 / 5 shared
Kühn, U.
9 / 173 shared
Mattern, N.
10 / 139 shared
Kim, K. B.
24 / 37 shared
Pauly, S.
13 / 80 shared
Calin, M.
6 / 77 shared
Vaughan, G.
1 / 33 shared
Bednarčik, J.
2 / 13 shared
Wang, W. H.
5 / 10 shared
Stoica, M.
8 / 140 shared
Wang, G.
2 / 41 shared
Gebert, A.
8 / 118 shared
Baunack, S.
1 / 4 shared
Sueptitz, R.
1 / 7 shared
Schultz, L.
7 / 279 shared
Boström, M.
2 / 2 shared
Göken, Mathias
1 / 350 shared
Durst, K.
1 / 74 shared
Bednarcik, J.
4 / 42 shared
Kim, D. H.
4 / 37 shared
Venkataraman, S.
3 / 17 shared
Surreddi, K. B.
2 / 35 shared
Nikolowski, K.
1 / 4 shared
Kim, K. T.
1 / 4 shared
Lee, J. K.
1 / 2 shared
Duhamel, C.
9 / 20 shared
Franz, H.
2 / 27 shared
Ettingshausen, F.
2 / 2 shared
Xu, W.
5 / 33 shared
Theissmann, R.
4 / 6 shared
Hajlaoui, K.
1 / 9 shared
Yavari, A. R.
2 / 66 shared
Sort, J.
3 / 23 shared
Concustell, A.
4 / 17 shared
Van Steenberge, N.
3 / 6 shared
Suriñach, S.
3 / 13 shared
Baró, M. D.
3 / 40 shared
He, G.
4 / 30 shared
Lu, H. B.
1 / 2 shared
Zhang, L. C.
1 / 13 shared
Baier, F.
9 / 9 shared
Zhang, Z. F.
2 / 8 shared
Löser, W.
13 / 64 shared
Kvick, Å.
1 / 3 shared
Greer, A. L.
1 / 25 shared
Roy, S. K.
7 / 7 shared
Pouly, S.
1 / 1 shared
Werniewicz, K.
1 / 2 shared
Bartusch, B.
2 / 10 shared
Kulik, T.
1 / 9 shared
Mickel, C.
3 / 18 shared
Wei, B. C.
1 / 2 shared
Yi, S.
4 / 65 shared
Kusy, M.
3 / 6 shared
Rellinghaus, B.
1 / 12 shared
Baro, M. D.
1 / 9 shared
Choi-Yim, H.
2 / 2 shared
Johnson, W. L.
2 / 4 shared
Manna, I.
1 / 7 shared
Dasgupta, S.
1 / 7 shared
Tang, M. B.
1 / 1 shared
Müller, C.
1 / 25 shared
Zhang, H.
1 / 92 shared
Zhang, Z.-F.
1 / 1 shared
Pan, X.-F.
1 / 1 shared
Radtke, N.
1 / 5 shared
Sui, M. L.
1 / 1 shared
Woodcock, T. G.
1 / 10 shared
Loser, W.
1 / 5 shared
Ma, E.
1 / 5 shared
Li, Y.
1 / 95 shared
Derluyn, Joff
1 / 9 shared
Cheng, K.
1 / 4 shared
Ruythooren, W.
1 / 2 shared
Boeykens, S.
1 / 2 shared
Germain, M.
1 / 6 shared
Vandersmissen, R.
1 / 1 shared
Leys, M. R.
1 / 5 shared
Degroote, S.
1 / 5 shared
Borghs, G.
1 / 4 shared
Klauß, H.-J.
2 / 5 shared
Güth, A.
2 / 5 shared
Chart of publication period
2018
2017
2012
2011
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2009
2008
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2003

Co-Authors (by relevance)

  • Maity, T.
  • Eckert, Jürgen
  • Dutta, A.
  • Prashanth, K. G.
  • Jana, P. P.
  • Scudino, S.
  • Sordelet, D. J.
  • Lee, M. H.
  • Hurd, A. J.
  • Castellero, A.
  • Baser, T. A.
  • Baricco, M.
  • Battezzati, L.
  • Matteis, P.
  • Eckert, J.
  • Thomas, J.
  • Lee, K. S.
  • Kühn, U.
  • Mattern, N.
  • Kim, K. B.
  • Pauly, S.
  • Calin, M.
  • Vaughan, G.
  • Bednarčik, J.
  • Wang, W. H.
  • Stoica, M.
  • Wang, G.
  • Gebert, A.
  • Baunack, S.
  • Sueptitz, R.
  • Schultz, L.
  • Boström, M.
  • Göken, Mathias
  • Durst, K.
  • Bednarcik, J.
  • Kim, D. H.
  • Venkataraman, S.
  • Surreddi, K. B.
  • Nikolowski, K.
  • Kim, K. T.
  • Lee, J. K.
  • Duhamel, C.
  • Franz, H.
  • Ettingshausen, F.
  • Xu, W.
  • Theissmann, R.
  • Hajlaoui, K.
  • Yavari, A. R.
  • Sort, J.
  • Concustell, A.
  • Van Steenberge, N.
  • Suriñach, S.
  • Baró, M. D.
  • He, G.
  • Lu, H. B.
  • Zhang, L. C.
  • Baier, F.
  • Zhang, Z. F.
  • Löser, W.
  • Kvick, Å.
  • Greer, A. L.
  • Roy, S. K.
  • Pouly, S.
  • Werniewicz, K.
  • Bartusch, B.
  • Kulik, T.
  • Mickel, C.
  • Wei, B. C.
  • Yi, S.
  • Kusy, M.
  • Rellinghaus, B.
  • Baro, M. D.
  • Choi-Yim, H.
  • Johnson, W. L.
  • Manna, I.
  • Dasgupta, S.
  • Tang, M. B.
  • Müller, C.
  • Zhang, H.
  • Zhang, Z.-F.
  • Pan, X.-F.
  • Radtke, N.
  • Sui, M. L.
  • Woodcock, T. G.
  • Loser, W.
  • Ma, E.
  • Li, Y.
  • Derluyn, Joff
  • Cheng, K.
  • Ruythooren, W.
  • Boeykens, S.
  • Germain, M.
  • Vandersmissen, R.
  • Leys, M. R.
  • Degroote, S.
  • Borghs, G.
  • Klauß, H.-J.
  • Güth, A.
OrganizationsLocationPeople

article

Is the energy density a reliable parameter for materials synthesis by selective laser melting?

  • Das, J.
  • Maity, T.
  • Eckert, Jürgen
  • Prashanth, K. G.
  • Scudino, S.
Abstract

The effective fabrication of materials using selective laser melting depends on the process parameters. Here, we analyse the suitability of the energy density to represent the energy transferred to the powder bed, which is effectively used to melt the particles and to produce the bulk specimens. By properly varying laser power and speed in order to process the powder at constant energy density, we show that the equation currently used to calculate the energy density gives only an approximate estimation and that hatch parameters and material properties should be considered to correctly evaluate the energy density. ; publishedVersion

Topics
  • density
  • impedance spectroscopy
  • energy density
  • melt
  • selective laser melting