The Experts below are selected from a list of 309 Experts worldwide ranked by ideXlab platform
Gus King - One of the best experts on this subject based on the ideXlab platform.
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high strain rate characteristics of 3 3 metal ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
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High strain rate characteristics of 3-3 metal–ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
Hong Chang - One of the best experts on this subject based on the ideXlab platform.
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high strain rate characteristics of 3 3 metal ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
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High strain rate characteristics of 3-3 metal–ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
Md Shahadath Hossain Patwary - One of the best experts on this subject based on the ideXlab platform.
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Universal and Dynamic Clustering Scheme for Energy Constrained Cooperative Wireless Sensor Networks
IEEE Access, 2017Co-Authors: Muhammad Kamran Naeem, Md Shahadath Hossain Patwary, Mohamed Abdel-MaguidAbstract:Energy conservation is considered to be one of the key design challenges within resource constrained wireless sensor networks that leads the researchers to investigate energy efficient protocols with some application specific challenges. Dynamic clustering is generally considered as one of the energy conservation techniques; but unbalanced distribution of cluster heads, highly variable number of sensor nodes in the clusters and high number of sensor nodes involved in event reporting tend to drain out the network energy quickly resulting premature decrease in network lifetime. In this paper, a Dynamic and cooperative clustering and neighborhood formation scheme is proposed that is expected to evenly distribute energy demand from the cluster heads and optimize the number of sensor nodes involved in event reporting. Assuming multiple sensors will form a cluster, while responding to an event to report to the fusion center. However, all the sensor nodes are assuming to report the sensing parameters to a cluster-head; which are to be summarized and then report it to fusion center. The transmission of the same event data from multiple sensors within the cluster at different distances with single or multiple antennas to the cluster-head with similar antenna characteristics can be realized as multiple-input multiple-output (MIMO) channel set up as found in the literature. Such realization among clusters of MIMO channel and existence of a feedback channel between the clusters and fusion center is the key of the proposed framework. The Dynamic behavior has been adopted within the framework with a proposed index derived from the received measure of the channel quality, which has been attained through the feedback channel from the fusion center. The Dynamic Property of the proposed framework makes it robust against time-varying behavior of the propagation environment. The proposed framework is independent of the nature of the sensing application, providi- g with universal behavior. From simulation results, it is observed that the proposed clustering scheme enhances network lifetime by 24.5% and 36% as compared to existing schemes e.g. DDEEC and EDDEEC respectively. Furthermore, it is validated by simulation results that the proposed framework provides a trade-off model between network lifetime and transmission reliability.
Paul Myers - One of the best experts on this subject based on the ideXlab platform.
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high strain rate characteristics of 3 3 metal ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
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High strain rate characteristics of 3-3 metal–ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
Jon G P Binner - One of the best experts on this subject based on the ideXlab platform.
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high strain rate characteristics of 3 3 metal ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
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High strain rate characteristics of 3-3 metal–ceramic interpenetrating composites
Materials Science and Engineering A-structural Materials Properties Microstructure and Processing, 2011Co-Authors: Hong Chang, R L Higginson, Paul Myers, Peter Webb, Jon G P Binner, Gus KingAbstract:Abstract 3-3 interpenetrating composites (IPCs) are novel materials with potentially superior multifunctional properties compared with traditional metal matrix composites. The aim of the present work was to evaluate the high strain rate performance of the metal–ceramic IPCs produced using a pressureless infiltration technique through Dynamic Property testing, viz. the split Hopkinson's pressure bar (SHPB) technique and depth of penetration (DoP) analysis, and subsequent damage assessment. Though the IPCs contained rigid ceramic struts, the samples plastically deformed with only localised fracture in the ceramic phase following SHPB. Metal was observed to bridge the cracks formed during high strain rate testing, this latter behaviour must have contributed to the structural integrity and performance of the IPCs. Whilst the IPCs were not suitable for resisting high velocity, armour piercing rounds on their own, when bonded to a 3 mm thick, dense Al 2 O 3 front face, they caused significant deflection and the depth of penetration was reduced.
