Fuhua Yan

Fuhua Yan


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 April 2020 in Journal of Infection
Verified
Journal Article
Closed access
WYWenjie Yang
Wenjie Yang
QCQiqi Cao
Qiqi Cao
LQLe Qin
Le Qin
XWXiaoyang Wang
Xiaoyang Wang
ZCZenghui Cheng
Zenghui Cheng
FYFuhua Yan
Fuhua Yan

7 August 2015 in Human Brain Mapping
Verified
Journal Article
Closed access
NHNaying He
Naying He
HLHuawei Ling
Huawei Ling
BDBei Ding
Bei Ding
JHJuan Huang
Juan Huang
YZYong Zhang
Yong Zhang
FYFuhua Yan
Fuhua Yan

1 May 2020 in Radiology
Verified
Journal Article
Closed access
WYWenjie Yang
Wenjie Yang
FYFuhua Yan
Fuhua Yan

5 February 2024 in Nano Biomedicine and Engineering
Verified
Journal Article
Open access
PDF file
JJJinlei Jiang
Jinlei Jiang
XCXinyuan Cui
Xinyuan Cui
YHYixin Huang
Yixin Huang
DYDongmei Yan
Dongmei Yan
BWBensong Wang
Bensong Wang
DCDaxiang Cui
Daxiang Cui
In recent years, the deep integration of basic research and clinical translational research of nanotechnology and oncology has led to the emergence of a new branch, namely integrated nano-oncology. This is an emerging and important interdisciplinary field, which plays an irreplaceable role in the diagnosis, treatment, early warning, monitoring and prevention of tumors, and has become a new interdisciplinary frontier. Here main advances of integrated nano-oncology was reviewed, mainly included controlled preparation of nanomaterials, ultra-sensitive detection of tumor biomarkers, multi-functional nanoimaging probes and integrated diagnosis and treatment technology, innovative nano drugs and nano drug delivery system, DNA nanotechnology, RNA nanotechnology, nano self-assembly technology, nanosensors, intelligent nanorobots, nanotherapeutic machines. The terms, concepts, trends and challenges are also discussed with the aim of promoting the application of nanotechnology in integrated oncology and solving the scientific and key technical problems in basic and clinical translational research of cancer.

1 January 2020 in NeuroImage: Clinical
Verified
Journal Article
Open access
ZCZenghui Cheng
Zenghui Cheng
NHNaying He
Naying He
PHPei Huang
Pei Huang
YLYan Li
Yan Li
RTRongbiao Tang
Rongbiao Tang
EHE. Mark Haacke
E. Mark Haacke
Parkinson's disease (PD) is a clinically heterogeneous chronic progressive neuro-degenerative disease with loss of dopaminergic neurons in the nigrosome 1 (N1) territory of the substantia nigra pars compacta (SNpc). To date, there has been a major effort to identify changes in the N1 territory by monitoring increases of iron in the SNpc. However, there is no standard protocol being used to visualize or characterize the N1 territory. Therefore, the purpose of this study was to create a robust high quality, rapid imaging protocol, determine a slice by slice characterization of the appearance of N1 (the "N1 sign") and evaluate the loss of the N1 sign in order to differentiate healthy controls (HCs) from patients with PD. Firstly, one group of 10 HCs was used to determine the choice of imaging parameters. Secondly, another group of 80 HCs was used to characterize the appearance of the N1 sign and train the raters. In this step, the magnitude, susceptibility weighted images (SWI), quantitative susceptibility maps (QSM) and true SWI (tSWI) images were all reviewed using data from a 3D gradient recalled echo sequence. A resolution of 0.67 mm × 0.67 mm × 1.34 mm was chosen based on the ability to cover all the basal ganglia, midbrain and dentate nucleus with good signal-to-noise with echo times of 11 ms and 20 ms. Thirdly, 80 Parkinsonism and related disorders patients [idiopathic Parkinson's disease (IPD): 57; atypical parkinsonian syndromes (APs): 14; essential tremor (ET): 9] and one additional group of 80 age-matched HCs were blindly analyzed for the presence or absence of the N1 sign for a differential diagnosis. From the first group of 80 HCs, all of the 76 (100%) cases (4 were excluded due to motion artifacts) showed the N1 sign in one form or another after reviewing the first 5 caudal slices of the SN. For the second group of 80 HCs, 78 (97.5%) showed the N1 sign in at least 2 slices. Of the 80 Parkinsonism and related disorders patients, 32 (56.1%, 32/57) IPD and 6 (42.9%, 6/14) APs showed a bilateral loss of the N1 sign, 12 (21.1%, 12/57) IPD and 6 (42.9%, 6/14) APs showed the N1 sign unilaterally and 13 (22.8%, 13/57) IPD and 2 (14.2%, 2/14) APs showed the N1 sign bilaterally. Also, all 9 (100%, 9/9) ET patients showed the N1 sign bilaterally. The mean total structure and mean high susceptibility region for the SN for both IPD and APs patients with bilateral loss of N1 were higher than those of the HCs (p < 0.002). In conclusion, the N1 sign can be consistently visualized using tSWI with a resolution of at least 0.67 mm × 0.67 mm × 1.34 mm and can be seen in 95% of HCs.

1 August 2020 in Radiology
Verified
Journal Article
Closed access
SLShuang Leng
Shuang Leng
HGHeng Ge
Heng Ge
JHJie He
Jie He
LKLingcong Kong
Lingcong Kong
YYYining Yang
Yining Yang
JPJun Pu
Jun Pu
Left atrial strain derived by using cardiac MRI was associated major adverse cardiac events after ST-segment elevation myocardial infarction, overriding outcome predictors such as left atrial volum... Background Left atrial (LA) dysfunction is associated with morbidity and mortality. To the knowledge of the authors, the relationship of LA strain to long-term prognosis in participants with ST-seg...