Huiru Zheng

Prof. Dr. Huiru Zheng

Ulster University, Belfast, UK
orcid

Research Focus & Metrics

Academic Career Length

27Years (2000-Present)

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

Representative Publications

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10 September 2019
Verified
Conference Paper
Open access
SHSamuel Holmes
Samuel Holmes
AMAnne Moorhead
Anne Moorhead
RBRaymond Bond
Raymond Bond
Huiru ZhengHuiru Zheng
Huiru Zheng
VCVivien Coates
Vivien Coates
MMMichael Mctear
Michael Mctear

1 November 2008 in Clinical Immunology
Verified
Journal Article
Closed access
LZLei Zhang
Lei Zhang
KDKamtai Dermawan
Kamtai Dermawan
MJMeilin Jin
Meilin Jin
RLRongjun Liu
Rongjun Liu
Huiru ZhengHuiru Zheng
Huiru Zheng
SXSidong Xiong
Sidong Xiong

1 April 2018 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
PMPatrick McAllister
Patrick McAllister
Huiru ZhengHuiru Zheng
Huiru Zheng
RBRaymond Bond
Raymond Bond
AMAnne Moorhead
Anne Moorhead

1 August 2005 in Medical & Biological Engineering & Computing
Verified
Journal Article
Closed access
PDF file
Huiru ZhengHuiru Zheng
Huiru Zheng
NBN. D. Black
N. D. Black
NHN. D. Harris
N. D. Harris

21 October 2008 in Source Code for Biology and Medicine
Verified
Journal Article
Open access
PDF file
ACAnyela Camargo
Anyela Camargo
FAFrancisco Azuaje
Francisco Azuaje
Haiying WangHaiying Wang
Haiying Wang
Huiru ZhengHuiru Zheng
Huiru Zheng
Background: Genomics and proteomics analyses regularly involve the simultaneous test of hundreds of hypotheses, either on numerical or categorical data. To correct for the occurrence of false positives, validation tests based on multiple testing correction, such as Bonferroni and Benjamini and Hochberg, and re-sampling, such as permutation tests, are frequently used. Despite the known power of permutation-based tests, most available tools offer such tests for either t-test or ANOVA only. Less attention has been given to tests for categorical data, such as the Chi-square. This project takes a first step by developing an open-source software tool, Ptest, that addresses the need to offer public software tools incorporating these and other statistical tests with options for correcting for multiple hypotheses. Results: This study developed a public-domain, user-friendly software whose purpose was twofold: first, to estimate test statistics for categorical and numerical data; and second, to validate the significance of the test statistics via Bonferroni, Benjamini and Hochberg, and a permutation test of numerical and categorical data. The tool allows the calculation of Chi-square test for categorical data, and ANOVA test, Bartlett's test and t-test for paired and unpaired data. Once a test statistic is calculated, Bonferroni, Benjamini and Hochberg, and a permutation tests are implemented, independently, to control for Type I errors. An evaluation of the software using different public data sets is reported, which illustrates the power of permutation tests for multiple hypotheses assessment and for controlling the rate of Type I errors. Conclusion: The analytical options offered by the software can be applied to support a significant spectrum of hypothesis testing tasks in functional genomics, using both numerical and categorical data.