JImmy Chun-Keun Tong

Dr. JImmy Chun-Keun Tong

orcid

Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 November 2004 in International Journal of Heat and Mass Transfer
Verified
Journal Article
Closed access
ESEphraim M. Sparrow
Ephraim M. Sparrow
JAJohn P. Abraham
John P. Abraham
JTJImmy Chun-Keun Tong
JImmy Chun-Keun Tong

1 January 2009 in International Journal of Heat and Mass Transfer
Verified
Journal Article
Closed access
JAJ.P. Abraham
J.P. Abraham
ESE.M. Sparrow
E.M. Sparrow
JTJImmy Chun-Keun Tong
JImmy Chun-Keun Tong

1 December 2009 in Applied Thermal Engineering
Verified
Journal Article
Closed access
JTJImmy Chun-Keun Tong
JImmy Chun-Keun Tong
ESEphraim M. Sparrow
Ephraim M. Sparrow
JAJohn P. Abraham
John P. Abraham

21 March 2022 in Building and Environment
Verified
Journal Article
Closed access
JZJiaying Zhang
Jiaying Zhang
HKHelen Kwok
Helen Kwok
HLHan Luo
Han Luo
JTJImmy Chun-Keun Tong
JImmy Chun-Keun Tong
JCJack C.P. Cheng
Jack C.P. Cheng

18 June 2008 in Numerical Heat Transfer, Part B: Fundamentals
Verified
Journal Article
Closed access
John AbrahamJohn Abraham
John Abraham
ESE. M. Sparrow
E. M. Sparrow
JTJImmy Chun-Keun Tong
JImmy Chun-Keun Tong
The breakdown of laminar pipe flow into transitional intermittency is predicted numerically here for the first time. Subsequent to transitional intermittency, a fully developed regime is achieved wherein the flow may be either intermittent or fully turbulent. Fully developed friction factors are predicted as a function of the Reynolds number throughout the intermittent regime. These predictions successfully bridge the gap between well-established laminar friction factors and turbulent friction factors. Definitive numerical information is provided about the locations in the pipe at which both laminar breakdown and fully developed attainment occur. These locations are a function of the Reynolds number. The streamwise changes in the velocity profiles reflect the complex evolution of the flow as it passes through the successive regimes. For design purposes, information is provided for the pressure drop that characterizes the evolving flow. The numerical results correspond to an inlet turbulence intensity level of 5%.

1 February 2010 in International Journal of Thermal Sciences
Verified
Journal Article
Closed access
JAJ.P. Abraham
J.P. Abraham
ESE.M. Sparrow
E.M. Sparrow
JTJImmy Chun-Keun Tong
JImmy Chun-Keun Tong
DBD.W. Bettenhausen
D.W. Bettenhausen