Jeannine Tang
· Assistant ProfessorVerifiedNew York University · Performance Studies
Active 2005–2022
About
Jeannine Tang is an art historian and Assistant Professor in the Department of Performance Studies at the Tisch School of the Arts, NYU. Her scholarly work focuses on contemporary art, exhibition and curatorial histories, queer and trans cultures, and visual culture and cultural studies. She has contributed writings to venues such as Art Journal, Artforum, GLQ, Theory Culture & Society, and the journal of visual culture, as well as anthologies including Trap Door: Trans Cultural Production and the Politics of Visibility. Jeannine has co-curated exhibitions, notably The Conditions of Being Art: Pat Hearn Gallery and American Fine Arts, Co. (1983-2004) at the CCS Bard Hessel Museum, and has co-edited the accompanying publication. Her research has been recognized with a 2020 Warhol Writer's grant for her book project Living Legends: Contemporary Art & Trans* History. Recent collaborative programs with the Singapore Biennale and Asia Art Archive in America have emphasized Asian/diasporic feminist, queer, and trans* artistic and curatorial practices. Her academic interests include modern and contemporary art history, queer and transgender studies, visual culture, exhibition and curatorial history, and ecological aesthetics. Jeannine holds a B.A. from the National University of Singapore and an M.A. and Ph.D. from the Courtauld Institute of Art.
Research topics
- Medicine
- Cardiology
- Internal medicine
Selected publications
Demystifying Cardiac Iron Deficiency in End‐stage Heart Failure
The FASEB Journal · 2022
- Internal medicine
- Cardiology
- Medicine
Background Cardiac iron depletion (CID) in heart failure (HF) remains largely unexplored regarding its prevalence, pathogenesis, and impact on the failing hearts. Hypotheses: We anticipate that iron‐deficient failing hearts will demonstrate defective iron regulatory pathways, whereby the HF progression is markedly aggravated by the mitochondrial redox imbalance. Purpose We aim to establish CID’s defining criterion, recapitulate its pathophysiological role, and evaluate the applicability of monitoring it non‐invasively in HF. Methods Biventricular myocardial iron levels were measured in both failing (n=138) and non‐failing control (NFC, n=46) explanted human hearts. Clinical phenotyping was complemented with comprehensive assessment of myocardial remodeling and mitochondrial functional profiles, including metabolism, respiration, and oxidative stress. Heart iron status was further investigated by cardiac magnetic resonance (CMR) imaging. Results Tissue iron content in the left ventricle (LV) was significantly lower in HF versus NFC [121.4 (88.1‐150.3) vs. 137.4 (109.2‐165.9) μg/g dry weight], which was absent in the right ventricle (RV). With a priori cutoff of 86.1 μg/g d.w. in LV, we identified 23% of HF patients with CID (HF‐CID) associated with higher NYHA class and worsened LV function. Respiratory chain and Krebs cycle enzymatic activities were suppressed and strongly correlated with depleted iron stores in HF‐CID hearts. Defenses against oxidative stress were severely impaired in association with worsened adverse remodeling in iron‐deficient hearts. Mechanistically, iron uptake pathways were impeded in HF‐CID, while transmembrane fraction of ferroportin positively correlated with CID. CMR with T2* effectively captured myocardial iron levels in failing hearts. Conclusions CID is highly prevalent in advanced human HF and exacerbates pathological remodeling in HF driven primarily by dysfunctional mitochondria and increased oxidative stress in the LV. CMR demonstrates clinical potential to non‐invasively monitor CID.
Analysis and Design of Tamper-Mitigating Microfluidic Routing Fabrics
IEEE Transactions on Computer-Aided Design of Integrated Circuits and Systems · 2019-03-27 · 4 citations
article1st authorCorrespondingMicrofluidic routing fabrics are reconfigurable primitives that permit the dynamic redirection of fluids on a flow-based microfluidic biochip. Such primitives are bringing the benefits of rapid prototyping and on-the-fly reconfigurability from integrated circuits to the microfluidic domain. An unfortunate side effect of this increased flexibility is susceptibility to tampering. A malicious adversary can alter either the electronic control signals or the pneumatic control lines used to drive the routing fabric. In this paper, we provide a high-level security assessment of microfluidic systems utilizing routing fabrics, and analyze their security under actuation tampering attacks. We show that under reasonable assumptions, the permissible states of a routing fabric form a probability distribution. We provide methods for efficiently determining this distribution through a binary tree representation. We then show how to synthesize routings fabrics that exhibit well-defined behaviors. We call a routing fabric designed in such a way tamper-mitigating, as it makes the effects of tampering probabilistically less severe. We then show how the proposed methodology can be used to protect a forensic DNA barcoding application from attack.
Physiotherapy Canada · 2019-11-13 · 7 citations
articleOpen accessPurpose: The purpose of this study was to describe the nature and extent of publications and to evaluate whether lead advisor role and experience, data collection tool, sample size, and research topic predict publication for research projects completed as part of a Canadian Master of Science in Physical Therapy (MScPT) programme. Method: We conducted a quantitative, cross-sectional, retrospective review of projects completed between 2003 and 2015 and confirmed publication status through citations of published work, a literature search, and a survey of advisors. We used descriptive statistics to describe the nature and extent of publications and logistic regression to analyze potential predictor variables. Results: Between 2003 and 2015, 44.5% of the 218 projects completed were associated with at least one peer-reviewed journal publication, and there was a seven-fold increase in annual publication rate. Projects led by a scientist or researcher ([OR] = 3.09; 95% CI: 1.15, 8.35), qualitative projects with 10 or more participants ([OR] 6.22; 95% CI: 1.96, 19.78), and quantitative projects with more than 50 participants ([OR] = 2.29; 95% CI: 1.14, 4.63) were associated with an increased likelihood of publication. Conclusions: MScPT research is published at a moderate rate, and annual publication rates increased between 2003 and 2015. Encouragement to obtain adequate sample sizes and additional support for clinician-led projects may enhance publication rates and, ultimately, bridge gaps in research-to-practice integration.
Prevention: Tamper-Resistant Pin-Constrained Digital Microfluidic Biochips
2019-05-28 · 2 citations
book-chapter1st authorCorrespondingDetection: Randomizing Checkpoints on Cyberphysical Digital Microfluidic Biochips
2019-05-28 · 1 citations
book-chapter1st authorCorrespondingBio-Protocol Watermarking on Digital Microfluidic Biochips
IEEE Transactions on Information Forensics and Security · 2019-03-25 · 30 citations
articleAdvancements in digital microfluidic biochip (DMFB) technologies are paving the way for low-cost and automated platforms for implementing bio-protocols. However, the deployment of DMFBs outside of controlled settings will make them vulnerable to intellectual property (IP) theft. Bio-protocol development requires large investments for cross-domain innovations in biochemical analysis, microfluidics, and cyberphysical systems. We propose a watermarking technique for bio-protocol IP protection-a first in microfluidics-that hierarchically embeds a secret signature across these domains. Such a signature can be exclusively attributed to the owner (like a hash). The proposed solution takes into account the inherent variability in domain-specific parameters such as mixing ratio, sensor calibration, and incubation time. We describe watermarking techniques of varying complexities for different bio-protocol steps. These include watermarking for bio-protocol synthesis parameters and the cyberphysical systems control path parameters. A watermarking scheme based on integer linear programming is proposed for the sample-preparation step of a bio-protocol. The practicality of our solution is demonstrated through case studies involving an immunoassay and several mixing ratios required in the sample-preparation process of bio-protocols. The effectiveness of this approach is evaluated through various security metrics: proof of ownership score, the probability of successful tampering of the watermark, and the probability of coincidence. We also analyze the integrity of the watermark against various possible attacks: brute force search, the insertion of a new watermark, and the watermarking of more parameters.
2019-05-31 · 1 citations
book1st authorCorrespondingMitigation: Tamper-Mitigating Routing Fabrics
2019-05-28 · 1 citations
book-chapter1st authorCorrespondingCyberphysical Microfluidic Biochips
2019-05-28 · 3 citations
book-chapter1st authorCorresponding2019-05-28
book-chapter1st authorCorresponding
Frequent coauthors
- 25 shared
Krishnendu Chakrabarty
Arizona State University
- 24 shared
Ramesh Karri
- 20 shared
Mohamed Ibrahim
University of California, Berkeley
- 6 shared
Nancy M. Salbach
University of Toronto
- 6 shared
Kelly K. O’Brien
- 4 shared
Sukanta Bhattacharjee
- 4 shared
Kevin Wood
- 4 shared
Ian Winningham
University of the Witwatersrand
Education
- 2018
Ph.D., Electrical and Computer Engineering
New York University
- 2012
M.S., Electrical and Computer Engineering
San Jose State University
- 2006
B.S., Electrical Engineering and Computer Sciences
University of California Berkeley
Awards & honors
- 2020 Warhol Writer's grant
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