Microstrain evolution of multilayered Ti/X (X=Zr, Nb) composites under the effect of heterophase interfaces
The mechanical properties of multilayered metallic composites are determined by strain/stress partitioning between the constituent metals. However, the effect of strain on the deformation behaviour and the selection of deformation mechanisms in individual phases within the composites composed of at least one hcp constituent are still unclear, especially when the single layer thickness is only a few microns or even smaller. In this work, micromechanical behaviour and strain/stress distribution and evolution in multilayered Ti/X (X=Zr, Nb) composites will be measured by using the in-situ neutron diffraction technique. The evolution of microstrains that underlie the load sharing among the differently oriented grains and between the constituent metals will be traced under the applied stress. Then, the mechanism of strengthening and toughening in such a composite structure can be explored.
- 0 0MPa
- 0 2MPa
- 0 3MPa
- 0 59
- 0 6MPa
- 0 71
- 0 80
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- 0 88
- 0 89
- 0 90
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- 1 00
- 1 01
- 1 02
- 1 8mm
- 100 6MPa
- 10MPa
- 119 3MPa
- 139 8MPa
- 139 9MPa
- 15MPa
- 16 7Hz
- 170 0MPa
- 180 0MPa
- 199 9MPa
- 209 4MPa
- 210 2MPa
- 229 3MPa
- 239 4MPa
- 248 1MPa
- 249 9MPa
- 263 7MPa
- 270 3MPa
- 274 7MPa
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- 289 6MPa
- 298 8MPa
- 299 2MPa
- 3 07
- 30 533mm
- 30 54mm
- 30 62mm
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- 30 77mm
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- 30 97mm
- 30 98mm
- 30 99mm
- 300 4MPa
- 31 00mm
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- 31 09mm
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- 31 66mm
- 31 77mm
- 31 83mm
- 31 96mm
- 31 98mm
- 319 4MPa
- 32 11mm
- 32 18mm
- 32 21mm
- 32 28mm
- 32 38mm
- 32 56mm
- 32 88mm
- 323 5MPa
- 329 4MPa
- 33 01mm
- 33 48mm
- 340 3MPa
- 341 1MPa
- 349 6MPa
- 350 2MPa
- 353 9MPa
- 363 7MPa
- 368 4MPa
- 375 0MPa
- 378 2MPa
- 382 8MPa
- 386 9MPa
- 3x3x10
- 400 2MPa
- 418 7MPa
- 425 0MPa
- 433 0MPa
- 450 4MPa
- 453 2MPa
- 463 7MPa
- 475 7MPa
- 478 8MPa
- 482 0MPa
- 495 9MPa
- 509 8MPa
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- 548 2MPa
- 583 9MPa
- 587 7MPa
- 590 5MPa
- 60 6MPa
- 60 8MPa
- 608 9MPa
- 616 3MPa
- 617 0MPa
- 633 9MPa
- 659 1MPa
- 673 2MPa
- 678 9MPa
- 69 4MPa
- 692 3MPa
- 70 2MPa
- 90 1MPa
- CeO2
- Materials
- MgO PSZ
- Test
- Test_sample
- Ti Zr_cyc1_1100C
- Ti Zr_cyc3
- Ti Zr_cyc3 s150 62 ...
- Ti Zr_cyc3 s299 71 ...
- Ti Zr_cyc3 s369 88 ...
- Ti Zr_cyc3_600C
- Ti Zr_cyc3_600C_10MPa
- Ti Zr_cyc3_600Cnew
- Ti Zr_cyc3_900C
- Ti Zr_cyc3new
- Ti Zr_cyc6
- Ti Zr_cyc6_600C
- Ti Zr_cyc6_900C
- Xscan X 13 458
- Xscan X 13 459
- Xscan X 13 958
- Xscan X 13 959
- Xscan X 14 458
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- Xscan X 14 959
- Xscan X 15 108
- Xscan X 15 458
- Xscan X 15 459
- Xscan X 15 608
- Xscan X 15 958
- Xscan X 15 959
- Xscan X 16 108
- Xscan X 16 458
- Xscan X 16 459
- Xscan X 16 608
- Xscan X 16 958
- Xscan X 16 959
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- Xscan X 17 459
- Xscan X 17 608
- Xscan X 17 958
- Xscan X 17 959
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- Xscan X 18 458
- Xscan X 18 459
- Xscan X 18 608
- Xscan X 18 958
- Xscan X 18 959
- Xscan X 19 108
- Xscan X 19 458
- Xscan X 19 459
- Xscan X 19 608
- Xscan X 19 958
- Xscan X 19 959
- Xscan X 20 108
- Xscan X 20 458
- Xscan X 20 459
- Xscan X 20 608
- Xscan X 20 958
- Xscan X 20 959
- Xscan X 21 108
- Xscan X 21 458
- Xscan X 21 459
- Xscan X 21 608
- Xscan X 21 958
- Xscan X 21 959
- Xscan X 22 108
- Xscan X 22 458
- Xscan X 22 459
- Xscan X 22 608
- Xscan X 22 958
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- Xscan X 23 108
- Xscan X 23 458
- Xscan X 23 459
- Xscan X 23 608
- Xscan X 23 958
- Xscan X 23 959
- Xscan X 24 108
- Xscan X 24 458
- Xscan X 24 459
- Xscan X 24 958
- Xscan X 24 959
- Xscan X 25 458
- Xscan X 25 459
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- Yscan Y 7 561
- Yscan Y 7 563
- settings
Provenance | |
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Creator | Miss Shuang Jiang; Professor Ru Lin Peng; Dr Tung Lik Lee |
Publisher | ISIS Neutron and Muon Source |
Publication Year | 2023 |
Rights | CC-BY Attribution 4.0 International; https://creativecommons.org/licenses/by/4.0/ |
OpenAccess | true |
Contact | isisdata(at)stfc.ac.uk |
Representation | |
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Resource Type | Dataset |
Discipline | Photon- and Neutron Geosciences |
Temporal Coverage Begin | 2019-12-17T08:30:00Z |
Temporal Coverage End | 2020-02-10T11:55:29Z |