Author: "Ren, P." / Language: undetermined - Searchworks@Jio Institute Digital Library Search Results

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1. Additional file 1 of Attenuated androgen discontinuation in patients with hereditary angioedema: a commented case series

Author: Maurer, Marcus, Magerl, Markus, Ayg��ren-P��rs��n, Emel, Bork, Konrad, Farkas, Henriette, Longhurst, Hilary, Kiani��Alikhan, Sorena, Bouillet, Laurence, Boccon-Gibod, Isabelle, Cancian, Mauro, Zanichelli, Andrea, and Launay, David
Subjects: immune system diseases, food and beverages, cardiovascular diseases, urologic and male genital diseases, skin and connective tissue diseases
Abstract: Additional file 1. Word document.doc; Patient cases; Further details of attenuated androgen discontinuation in hereditary angioedema cases series.
Published: 2022
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2. Downregulation of NCL attenuates tumor formation and growth in cervical cancer by targeting the PI3K/AKT pathway

Author: Zhang E, Yongliang Lou, Tang Z, Jiansheng Zhu, Ren P, Hu P, Qiyu Bao, Peizhen Li, Pan R, Li D, Jun Ying, and Huang D
Subjects: Gene knockdown, biology, Downregulation and upregulation, Chemistry, Cancer cell, biology.protein, Cancer research, Caspase 3, Cyclin-dependent kinase 6, Protein kinase B, Nucleolin, PI3K/AKT/mTOR pathway
Abstract: Nucleolin (NCL, C23) is a multifunctional phosphoprotein that plays a vital role in modulating the survival, proliferation and apoptosis of cancer cells. However, the effects of NCL on cervical cancer and the underlying mechanisms behind this are poorly understood. In the study presented here, Hela cells were transfected with shRNAs targeting the endogenous NCL gene (sh-NCL-Hela). NCL knockdown inhibited cell proliferation and promoted apoptosis both in vivo and in vitro. Mechanistic studies revealed that NCL knockdown inhibited the PI3K/AKT pathway by upregulating FGF, ITGA, TNXB, VEGF, Caspase 3, and Bax, as well as by downregulating AKT, GNB4, CDK6, IL6R, LAMA, PDGFD, PPP2RSA and BCL-2. In addition, the expression levels of apoptosis-related genes after using a PI3K inhibitor LY294002 were consistent with shRNA studies, while treatment with a 740Y-P agonist showed the opposite effect. Altogether, this study uncovered that downregulation of NCL may be a novel treatment strategy for cervical cancer.
Published: 2021

3. Bioinspired Long-Wavelength Excitable Near-Infrared AIEdots for Endometriosis Targeting and Image-Guided Surgery

Author: Lei X, Ni J, Wang J, Weiliang Zhu, Chuan Li, Peng Zhang, Hai Zhao, Huang B, Xue L, Xudong Wang, Jian-Feng Li, Zhang Jv, Ren P, Yang Yang, and Yu M
Subjects: medicine.diagnostic_test, business.industry, Chemistry, Near-infrared spectroscopy, Endometriosis, medicine.disease, In vitro, Flow cytometry, Image-guided surgery, Text mining, In vivo, medicine, Nanodot, business, Biomedical engineering
Abstract: Endometriosis（EM）is a non-cancerous and intractable disease in clinic due to the ambiguity of its etiology and mechanism. Surgical removal of the lesions is more efficient method for EM treatment compared with pharmacological intervention. Intraoperative identification of the endometrial ectopic sites is a prerequisite, however, available probes with high specificity remain limited, owing to lack of specific biomarkers. Here, based on a polypeptide derived from VAR2CSA protein (CSA) and a near-infrared AIE material (TPA-TBZ-2), we prepared a CSA AIEdots capable of labeling the EM lesions by a one-step nanoprecipitation method. The nanodots have an absorbance maximum at 610 nm with a wide emission range from 650 to 850 nm and an absolute quantum yield of up to 34% in the aggregation states. Through in vitro assay, the dots could specifically label endometrioid cells (Ishikawa cells), and flow cytometry experiments showed its specific spectral absorption peak, compared with empty particles and scrambled peptide groups. Next, to verify the ability of the dots to label the ectopic endometrium in vivo, we established a mouse model of endometriosis. After injection the dots into model mouse intravenously for 24 hours, the AIE signaling could be specifically detected at the ectopic lesions in an IVIS small animal imaging system. The CSA AIEdots were further used for image-guided EM resection in vivo and showed a high EM-to-normal tissue signal ratio. Taken together, our AIE nanodots-based EM diagnosis system is a promising candidate for EM development monitoring and surgical navigations.
Published: 2021

4. Learning to Ask Conversational Questions by Optimizing Levenshtein Distance

Author: Liu, Z., Ren, P., Chen, Z., Ren, Z., de Rijke, M., Zhou, M., Zong, C., Xia, F., Li, W., Navigli, R., and Information and Language Processing Syst (IVI, FNWI)
Subjects: FOS: Computer and information sciences, Sequence, Computer Science - Computation and Language, Process (engineering), Computer science, business.industry, Anaphora (linguistics), Levenshtein distance, computer.software_genre, Computer Science - Information Retrieval, Dynamic programming, Ask price, Benchmark (computing), Artificial intelligence, business, computer, Computation and Language (cs.CL), Natural language processing, Information Retrieval (cs.IR), Ellipsis (computer programming)
Abstract: Conversational Question Simplification (CQS) aims to simplify self-contained questions into conversational ones by incorporating some conversational characteristics, e.g., anaphora and ellipsis. Existing maximum likelihood estimation (MLE) based methods often get trapped in easily learned tokens as all tokens are treated equally during training. In this work, we introduce a Reinforcement Iterative Sequence Editing (RISE) framework that optimizes the minimum Levenshtein distance (MLD) through explicit editing actions. RISE is able to pay attention to tokens that are related to conversational characteristics. To train RISE, we devise an Iterative Reinforce Training (IRT) algorithm with a Dynamic Programming based Sampling (DPS) process to improve exploration. Experimental results on two benchmark datasets show that RISE significantly outperforms state-of-the-art methods and generalizes well on unseen data., Comment: 13 pages, 4 figures, Published in ACL 2021
Published: 2021
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5. Reconstructed primary fragments and symmetry energy, temperature and density of the fragmenting source in Zn64+Sn112 at 40 MeV/nucleon

Author: Liu, X., Lin, W., Wada, R., Huang, M., Ren, P., Chen, Z., Wang, J., Xiao, G.Q., Zhang, S., Han, R., Liu, J., Shi, F., Rodrigues, M.R.D., Kowalski, S., Keutgen, T., Hagel, K., Barbui, M., Bonasera, A., Natowitz, J.B., and Zheng, H.
Subjects: Nuclear and High Energy Physics
Published: 2015
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6. Evidence for Z=6 'magic number' in neutron-rich carbon isotopes

Author: Tran, D. T., Ong, H. J., Hagen, G., Morris, T. D., Aoi, N., Suzuki, T., Kanada-En'yo, Y., Geng, L. S., Terashima, S., Tanihata, I., Nguyen, T. T., Ayyad, Y., Chan, P. Y., Fukuda, M., Geissel, H., Harakeh, M. N., Hashimoto, T., Hoang, T. H., Ideguchi, E., Inoue, A., Jansen, G. R., Kanungo, R., Kawabata, T., Khiem, L. H., Lin, W. P., Matsuta, K., Mihara, M., Momota, S., Nagae, D., Nguyen, N. D., Nishimura, D., Otsuka, T., Ozawa, A., Ren, P. P., Sakaguchi, H., Scheidenberger, C., Tanaka, J., Takechi, M., Wada, R., and Yamamoto, T.
Subjects: Nuclear Theory (nucl-th), Nuclear Theory, Physics::Atomic and Molecular Clusters, FOS: Physical sciences, Nuclear Experiment (nucl-ex), Nuclear Experiment
Abstract: The nuclear shell structure, which originates in the nearly independent motion of nucleons in an average potential, provides an important guide for our understanding of nuclear structure and the underlying nuclear forces. Its most remarkable fingerprint is the existence of the so-called `magic numbers' of protons and neutrons associated with extra stability. Although the introduction of a phenomenological spin-orbit (SO) coupling force in 1949 helped explain the nuclear magic numbers, its origins are still open questions. Here, we present experimental evidence for the smallest SO-originated magic number (subshell closure) at the proton number 6 in 13-20C obtained from systematic analysis of point-proton distribution radii, electromagnetic transition rates and atomic masses of light nuclei. Performing ab initio calculations on 14,15C, we show that the observed proton distribution radii and subshell closure can be explained by the state-of-the-art nuclear theory with chiral nucleon-nucleon and three-nucleon forces, which are rooted in the quantum chromodynamics., Comment: 7 pages, 5 figures
Published: 2017
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7. Charge-changing-cross-section measurements of $^{12-16}$C at around $45A$ MeV and development of a Glauber model for incident energies $10A-2100A$ MeV

Author: Tran, D. T., Ong, H. J., Nguyen, T. T., Tanihata, I., Aoi, N., Ayyad, Y., Chan, P. Y., Fukuda, M., Hashimoto, T., Hoang, T. H., Ideguchi, E., Inoue, A., Kawabata, T., Khiem, L. H., Lin, W. P., Matsuta, K., Mihara, M., Momota, S., Nagae, D., Nguyen, N. D., Nishimura, D., Ozawa, A., Ren, P. P., Sakaguchi, H., Tanaka, J., Takechi, M., Terashima, S., Wada, R., and Yamamoto, T.
Subjects: Nuclear Theory (nucl-th), Nuclear Theory, FOS: Physical sciences, Nuclear Experiment (nucl-ex), Nuclear Experiment
Abstract: We have measured for the first time the charge-changing cross sections ($\sigma_{\text{CC}}$) of $^{12-16}$C on a $^{12}$C target at energies below $100A$ MeV. To analyze these low-energy data, we have developed a finite-range Glauber model with a global parameter set within the optical-limit approximation which is applicable to reaction cross section ($\sigma_{\text{R}}$) and $\sigma_{\text{CC}}$ measurements at incident energies from 10$A$ to $2100A$ MeV. Adopting the proton-density distribution of $^{12}$C known from the electron-scattering data, as well as the bare total nucleon-nucleon cross sections, and the real-to-imaginary-part ratios of the forward proton-proton elastic scattering amplitude available in the literatures, we determine the energy-dependent slope parameter $\beta_{\rm pn}$ of the proton-neutron elastic differential cross section so as to reproduce the existing $\sigma_{\text{R}}$ and interaction-cross-section data for $^{12}$C+$^{12}$C over a wide range of incident energies. The Glauber model thus formulated is applied to calculate the $\sigma_{\text{\tiny R}}$'s of $^{12}$C on a $^9$Be and $^{27}$Al targets at various incident energies. Our calculations show excellent agreement with the experimental data. Applying our model to the $\sigma_{\text{\tiny R}}$ and $\sigma_{\text{\tiny CC}}$ for the "neutron-skin" $^{16}$C nucleus, we reconfirm the importance of measurements at incident energies below $100A$ MeV. The proton root-mean-square radii of $^{12-16}$C are extracted using the measured $\sigma_{\text{CC}}$'s and the existing $\sigma_{\text{R}}$ data. The results for $^{12-14}$C are consistent with the values from the electron scatterings, demonstrating the feasibility, usefulness of the $\sigma_{\text{CC}}$ measurement and the present Glauber model., Comment: 8 pages, 4 figures
Published: 2016
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8. High Serum Levels of Follistatin in Patients with Ovarian Cancer

Author: Hongyu Liu, Ren P, Jia Liu, Jingjing Guan, Zeng-Shan Liu, Yuantao Wang, Yuanqing Sun, Fangfang Chen, and Xueling Cui
Subjects: Adult, Follistatin, endocrine system, medicine.medical_specialty, endocrine system diseases, Enzyme-Linked Immunosorbent Assay, Biochemistry, Gastroenterology, Internal medicine, Biomarkers, Tumor, medicine, Humans, In patient, Ovarian Neoplasms, biology, business.industry, Biochemistry (medical), High serum, Case-control study, Cancer, Cell Biology, General Medicine, Middle Aged, medicine.disease, Immunohistochemistry, Confidence interval, Endocrinology, CA-125 Antigen, Case-Control Studies, biology.protein, Female, Ovarian cancer, business, human activities
Abstract: OBJECTIVE: This study investigated the potential use of serum follistatin (FST) as a marker for ovarian cancer alongside serum cancer antigen-125 (CA-125). METHODS: Serum samples were collected from patients with ovarian cancer ( n = 45), benign ovarian cysts ( n = 40) or other cancers ( n = 100) and from healthy subjects ( n = 60) for the determination of FST and CA-125 levels using enzyme-linked immunosorbent assays. Expression of FST in ovarian tissue was investigated using immunohistochemical staining. RESULTS: Compared with healthy subjects and patients with benign ovarian cysts, serum FST and CA-125 levels were significantly increased in patients with ovarian cancer. Using the 95% confidence interval for the healthy subjects group as the cut-off value, tumour marker sensitivity and specificity in ovarian cancer were 53.3% and 97% for FST and 77.8% and 84% for CA-125, respectively. Tissue expression of FST protein was more pronounced in ovarian cancer than in normal ovary. CONCLUSIONS: The serum FST level was elevated in the peripheral blood of patients with ovarian cancer and has potential as a tumour marker for ovarian cancer diagnosis. It may be particularly useful when combined with CA-125 detection to reduce the number of false-positive results.
Published: 2012

9. Rh-POP Pincer Xantphos Complexes for C-S and C-H Activation. Implications for Carbothiolation Catalysis

Author: Ren, P, Pike, SD, Pernik, I, Weller, AS, and Willis, MC
Subjects: Organic Chemistry, 0399 Other Chemical Sciences, 0302 Inorganic Chemistry, 0305 Organic Chemistry
Published: 2015

10. Comparison of treatment outcomes in patients ≥80 years undergoing transradial versus transfemoral coronary intervention

Author: W. Peter Klinke, Ren P. Tan, William P. Warburton, Rebecca N. Warburton, and J. David Hilton
Subjects: Male, medicine.medical_specialty, Health Services for the Aged, medicine.medical_treatment, Treatment outcome, Coronary Artery Disease, Femoral artery, Coronary artery disease, Postoperative Complications, Internal medicine, medicine.artery, Intervention (counseling), medicine, Humans, In patient, Angioplasty, Balloon, Coronary, Radial artery, Aged, Aged, 80 and over, British Columbia, business.industry, Percutaneous coronary intervention, Length of Stay, medicine.disease, Surgery, Femoral Artery, Treatment Outcome, Radial Artery, Propensity score matching, Cardiology, Female, Cardiology and Cardiovascular Medicine, business
Abstract: We assessed the effect of transradial access (vs transfemoral access) for percutaneous coronary intervention on postprocedure length of stay and patient outcomes (in-hospital complications and all-cause and cardiac death at 6 and 12 months) in 225 elderly patients (or =80 years old). Raw differences between transradial and transfemoral accesses were compared, and 3 forms of propensity score analysis were used to determine the true effect of transradial access. After matching to adjust for baseline differences in patient characteristics, remaining differences in outcomes and postprocedure length of stay were small and not statistically significant at the 95% level, but a decrease in postprocedural length of stay of nearly 1 day was observed and likely was not due to chance. Transradial access in patientsor =80 years old undergoing percutaneous coronary intervention should be preferred due to equivalent success rate and safety and likely reduction in postprocedural hospitalization.
Published: 2004

11. Reconstructed primary fragments and symmetry energy, temperature and density of the fragmenting source in $^{64}$Zn + $^{112}$Sn at 40 MeV/nucleon

Author: Liu, X., Lin, W., Wada, R., Huang, M., Zhang, S., Ren, P., Chen, Z., Wang, J., Xiao, G. Q., Han, R., Liu, J., Shi, F., Rodrigues, M. R. D., Kowalski, S., Keutgen, T., Hagel, K., Barbui, M., Zheng, H., Bonasera, A., and Natowitz, J. B.
Subjects: Nuclear Theory (nucl-th), Nuclear Theory, FOS: Physical sciences, Nuclear Experiment (nucl-ex), Nuclear Experiment
Abstract: Symmetry energy, temperature and density at the time of the intermediate mass fragment formation are determined in a self-consistent manner, using the experimentally reconstructed primary hot isotope yields and anti-symmetrized molecular dynamics (AMD) simulations. The yields of primary hot fragments are experimentally reconstructed for multifragmentation events in the reaction system $^{64}$Zn + $^{112}$Sn at 40 MeV/nucleon. Using the reconstructed hot isotope yields and an improved method, based on the modified Fisher model, symmetry energy values relative to the apparent temperature, $a_{sym}/T$, are extracted. The extracted values are compared with those of the AMD simulations, extracted in the same way as that for the experiment, with the Gogny interaction with three different density-dependent symmetry energy terms. $a_{sym}/T$ values change according to the density-dependent symmetry energy terms used. Using this relation, the density of the fragmenting system is extracted first. Then symmetry energy and apparent temperature are determined in a self consistent manner in the AMD model simulations. Comparing the calculated $a_{sym}/T$ values and those of the experimental values from the reconstructed yields, $\rho /\rho_{0} = 0.65 \pm 0.02 $, $a_{sym} = 23.1 \pm 0.6$ MeV and $T= 5.0 \pm 0.4$ MeV are evaluated for the fragmenting system experimentally observed in the reaction studied., Comment: 28 pages, 7 figures. arXiv admin note: text overlap with arXiv:1405.6911, Nucl. Phys. A (2014)
Published: 2014
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12. Synthesis of 2β-Acyl-3β-(substituted naphthyl)-8-azabicyclo[3.2.1]octanes and Their Binding Affinities at Dopamine and Serotonin Transport Sites

Author: Ren P, Hammond Ps, Elie Saikali, Childers, Kuhn La, T. Sexton, Gilliatt, and Davies Hm
Subjects: biology, Chemistry, Stereochemistry, Dopamine Plasma Membrane Transport Proteins, Serotonin transport, Transporter, Tropane, chemistry.chemical_compound, Dopamine, Drug Discovery, Serotonin Plasma Membrane Transport Proteins, medicine, biology.protein, Molecular Medicine, Serotonin, Serotonin transporter, medicine.drug
Abstract: A series of 3β-naphthyltropane derivatives were synthesized and found to show high affinity at both the dopamine and serotonin transporter sites, leading to some of the most potent inhibitors known based on the tropane structure. Comparative molecular field analysis (CoMFA) models were developed for both dopamine and serotonin transporter binding data. These models provide insights into those factors that influence binding at the two transporters.
Published: 2001

13. Pulmonary blastoma

Author: Corey Cutler, Miriam Yassa, Ren P. Michel, and Adrian Langleben
Subjects: Cancer Research, Chemotherapy, medicine.medical_specialty, business.industry, medicine.medical_treatment, Respiratory disease, Biphasic Pulmonary Blastoma, Fetal adenocarcinoma, Combination chemotherapy, medicine.disease, Surgery, Pulmonary Blastoma, Oncology, medicine, Blastoma, business, Etoposide, medicine.drug
Abstract: BACKGROUND. Pulmonary blastoma is a rare malignant neoplasm for which there currently are no treatment guidelines. METHODS. A patient with locally advanced pulmonary blastoma is described. The treatment modality is discussed and the world literature is reviewed with respect to the use of chemotherapy. RESULTS. A 54-year-old man had a 7-year disease free survival despite subtotal resection. He was treated with adjuvant radiotherapy and combination chemotherapy. Three cycles of cisplatin and etoposide were administered. The world literature was reviewed with regard to the use of adjuvant chemotherapy in the treatment of pulmonary blastoma. CONCLUSIONS. Surgery, adjuvant radiotherapy, and combination chemotherapy with cisplatin and etoposide should be considered in the treatment of patients with this rare pulmonary neoplasm.
Published: 1998

14. Resource allocation for QoS multiuser MIMO with zero forcing and MMSE beamforming

Author: Ren P. Liu, Zvi Rosberg, and Antonio Cantoni
Subjects: Beamforming, Minimum mean square error, business.industry, Computer science, Orthogonal frequency-division multiplexing, ComputerSystemsOrganization_COMPUTER-COMMUNICATIONNETWORKS, MIMO, Time division multiple access, Data_CODINGANDINFORMATIONTHEORY, Space-division multiple access, Multiplexing, Base station, business, Computer network
Abstract: To enable ubiquitous end-to-end quality of service over IP networks expanding to rural areas, we examine resource allocation problems of a MAC layer for an OFDM MIMO wireless base station (BS) using multiuser beamforming. We compare two linear beamforming techniques, zero-forcing (ZF-BF) and minimum mean square error (MMSE-BF). To guarantee minimum bandwidth and low packet delay in an environment where the number of users is much larger than the number of BS antennas, one needs to partition the users into several sets and combine space division multiple access (SDMA) with time division multiple access (TDMA). We study the impact on the optimal transmission power resulting from selecting the following design parameters: (i) ZF-BF vs. MMSE-BF; (ii) the number of user sets multiplexed by TDMA; and (iii) the number of BS antennas. Two notable results are observed: (1) power wise, ZF-BF is far more superior to MMSE-ZF; (2) substantial power can be saved by increasing the number of BS antennas; however, only by large increments, e.g., from 6 to 9 and further to 21.
Published: 2010

15. Integrating mobile telephone based sensor networks into the sensor web

Author: Andrew Terhorst, Ren P. Liu, Jessica Lethbridge, and Jessica Clarke
Subjects: Engineering, Sensor Observation Service, business.industry, Mobile Web, computer.software_genre, Sensor web, Key distribution in wireless sensor networks, Mobile wireless sensor network, Mobile telephony, Web service, business, Telecommunications, computer, Wireless sensor network, Computer network
Abstract: Leading mobile telecommunications vendors are continually looking at innovative ways to exploit their technology. Sensor networking is an application receiving much attention from these vendors, including Nokia and Siemens. The Commonwealth Scientific and Industrial Research Organisation (CSIRO) has, together with students from the University of Tasmania, developed a mobile telephone sensor network concept demonstrator that enables mobile telephone handsets to harvest observations from Bluetooth-enabled sensor devices. The harvested information is updated to a central database via an Open Geospatial Consortium (OGC) web service interface (Sensor Observation Service (SOS)). This enables the integration of sensors into an OGC Sensor Web and discriminates this from other mobile telephone sensor network applications because it is highly scalable.
Published: 2009

16. Acetate oxidation in a thermophilic anaerobic sewage-sludge digestor: the importance of non-aceticlastic methanogenesis from acetate

Author: SÃ¸ren P. Petersen and Birgitte Kiær Ahring
Subjects: Chromatography, biology, Chemistry, Methanogenesis, Methanothrix, Chemostat, Methanosarcina, biology.organism_classification, Microbiology, Methanosaeta, Anaerobic digestion, Biochemistry, Genetics, Molecular Biology, Anaerobic exercise, Sludge
Abstract: Acetate conversion to methane in a steady-state, thermophilic (60°C) anaerobic sewage-sludge digestor and in a thermophilic (60°C) acetate chemostat inoculated with anaerobic thermophilic sewage sludge, was investigated by use of radiotracer methodology. When the acetate pool in the sewage-sludge digestor was 1–2 mM, 4.1% of 2-labeled acetate was converted to CO2. However, when acetate was consumed to less than 1.0 mM, prior to isotopic examinations, this increased to 14.1%. Microscopic observations showed a shift in the acetate-degrading populations during start-up of the acetate-limited chemostat inoculated from the sewage-sludge digestor. Large numbers of Methanosarcina-aggregates were seen during the first 100–150 days of operation, while Methanosaeta-like rods were not observed. The Methanosarcina-aggregates disappeared concurrently with a decrease in the acetate concentration to approx. 0.4 mM, and the culture consisted mainly of a large number of autofluorescent, short rods together with fewer and longer, non-fluorescent, rods. Non-aceticlastic oxidation of acetate to methane was the mechanism of the acetate conversion in the chemostat after 7 months of operation. Our results indicate that the concentration of acetate can influence the mechanism of acetate conversion during thermophilic anaerobic digestion of organic matter.
Published: 1991

17. Quantitative I-123-IMP Brain SPECT and Neuropsychoiogical Testing in AIDS Dementia

Author: M. J. Meier, M. C. Foehse, F. S. Rhame, B. C.P. Lee, R. B. Loewenson, Robert J. Boudreau, Christopher C. Kuni, and Ren P. Ducret
Subjects: Adult, Male, AIDS Dementia Complex, Neuropsychological Tests, Single-photon emission computed tomography, Iodine Radioisotopes, Iodine-123, Humans, Medicine, Dementia, Radiology, Nuclear Medicine and imaging, AIDS dementia, Tomography, Emission-Computed, Single-Photon, medicine.diagnostic_test, business.industry, Amphetamines, Brain, General Medicine, Iofetamine, medicine.disease, Intensity (physics), Quartile, Neuropsychological testing, business, Nuclear medicine, Emission computed tomography
Abstract: We performed I-123-IMP SPECT brain imaging on seven mildly demented AIDS patients and seven normal subjects. In an attempt to detect and quantitate regions of decreased I-123-IMP uptake, pixel intensity histograms of normalized SPECT images at the basal ganglia level were analyzed for the fraction of pixels in the lowest quartile of the intensity range. This fraction (F) averaged 17.5% (S.D. = 4.6) in the AIDS group and 12.6% (S.D. = 5.1) in the normal group (p less than .05). Six of the AIDS patients underwent neuropsychological testing (NPT). NPT showed the patients to have a variety of mild abnormalities. Regression analysis of NPT scores versus F yielded a correlation coefficient of .80 (p less than .05). We conclude that analysis of I-123-IMP SPECT image pixel intensity distribution is potentially sensitive in detecting abnormalities associated with AIDS dementia and may correlate with the severity of dementia as measured by NPT.
Published: 1991

18. Optimal treatment of nonaorto ostial coronary lesions in large vessels: acute and long-term results

Author: Samin K. Sharma, Eli Shalouh, Jonathan D. Marmur, Ren P. Tan, and Annapoorna Kini
Subjects: Male, medicine.medical_specialty, Percutaneous, Cost effectiveness, medicine.medical_treatment, New York, Lumen (anatomy), Rotational atherectomy, Coronary Angiography, Time, Atherectomy, Cohort Studies, Restenosis, Predictive Value of Tests, medicine, Humans, Radiology, Nuclear Medicine and imaging, Angioplasty, Balloon, Coronary, Aged, Retrospective Studies, Aged, 80 and over, business.industry, Incidence, Coronary Stenosis, Stent, General Medicine, Middle Aged, medicine.disease, Debulking, Coronary Vessels, Surgery, Treatment Outcome, Multivariate Analysis, Female, Cardiology and Cardiovascular Medicine, business, Follow-Up Studies
Abstract: Percutaneous interventions of nonaorto ostial coronary lesions are usually complex, often requiring a combined approach of debulking and stenting, insertion of multiple guidewires and long procedure duration. Debulking with atherectomy device preserves side-branch patency by reducing plaque shift while coronary stenting minimizes vessel recoil and restenosis. We retrospectively evaluated the acute and long-term results of rotational atherectomy (group R, n = 94), coronary stenting (group S, n = 39), and combination of rotational atherectomy and stenting (group R-S, n = 59) in a total of 192 patients with nonaorto ostial lesions. The number of patients with diabetes mellitus and rest angina was significantly higher in groups S and R-S. Clinical success rates were high and procedural complication rates were low and comparable in all three groups. Despite the similar reference vessel size and preprocedure minimal lumen diameter (MLD), postprocedure MLD showed a trend toward larger lumen in groups S (3.15 ± 0.18 mm) and R-S (3.21 ± 0.16 mm). Group S had significantly higher incidence of side-branch narrowing (30.7%), requiring intervention (15.4%). At long-term follow-up (mean of 9 ± 4 months), target lesion revascularization rate was significantly lower in groups R-S (11.9%) and S (15.4%) compared to group R (28.9%; P = 0.02). Our nonrandomized data suggest that stenting with or without rotational atherectomy provides the best long-term approach for the interventional treatment of nonaorto ostial coronary lesions. The clinical benefit and cost effectiveness of performing rotational atherectomy before stent implantation to reduce the incidence of side-branch closure requires further study. Cathet Cardiovasc Intervent 2001;54:283–288. © 2001 Wiley-Liss, Inc.
Published: 2001

19. The Aarhus warm EBIS storage ring injection program

Author: Niels Hertel, Ulrik Pedersen, Preben Hvelplund, Dehong Yu, Henning T. Schmidt, ller, Leif Liljeby, and ren P. Mo
Subjects: Nuclear physics, Ion beam deposition, Physics::Plasma Physics, Chemistry, Cathode ray, Atomic physics, Ion gun, Ion source, Storage ring, Ion
Abstract: A warm electron beam ion source (EBIS) for the production of multiply charged ions for injection into the heavy-ion storage ring ASTRID (Arhus STorage RIng Denmark) at the Institute of Physics and Astronomy, University of Aarhus, has now become operational. The aim is to produce moderately charged ions in amounts which match the requirements of ASTRID. For elements lighter than oxygen, ions of all charge states can be produced with sufficient intensity for injection. The same is true for heavier ions with charge states up to ∼15.
Published: 2001

20. QUANTITATIVE I-123-IMP BRAIN SPECT AND NEUROPSYCHOLOGICAL TESTING IN AIDS DEMENTIA

Author: Robert J. Boudreau, Christopher C. Kuni, Ren P. Ducret, M. J. Meier, M. C. Foehse, B. C.P. Lee, R. B. Loewenson, and F. S. Rhame
Subjects: Aids patients, business.industry, General Medicine, medicine.disease, Normal group, Intensity (physics), Quartile, Medicine, Dementia, Radiology, Nuclear Medicine and imaging, Neuropsychological testing, Nuclear medicine, business, AIDS dementia, I 123 imp
Abstract: We performed I-123-IMP SPECT brain imaging on seven mildly demented AIDS patients and seven normal subjects. In an attempt to detect and quantitate regions of decreased I-123-IMP uptake, pixel intensity histograms of normalized SPECT images at the basal ganglia level were analyzed for the fraction of pixels in the lowest quartile of the intensity range. This fraction (F) averaged 17.5% (S.D. = 4.6) in the AIDS group and 12.6% (S.D. = 5.1) in the normal group (p less than .05). Six of the AIDS patients underwent neuropsychological testing (NPT). NPT showed the patients to have a variety of mild abnormalities. Regression analysis of NPT scores versus F yielded a correlation coefficient of .80 (p less than .05). We conclude that analysis of I-123-IMP SPECT image pixel intensity distribution is potentially sensitive in detecting abnormalities associated with AIDS dementia and may correlate with the severity of dementia as measured by NPT.
Published: 1990

21. Pulmonary imaging in fat embolism syndrome

Author: Duncan C. Brindley, Ren P. Ducret, and Hee-Myung Park
Subjects: Adult, Male, medicine.medical_specialty, Embolism, Fat, Ventilation/perfusion ratio, medicine, Ventilation-Perfusion Ratio, Humans, Radiology, Nuclear Medicine and imaging, Fat embolism, Radionuclide Imaging, medicine.diagnostic_test, business.industry, General Medicine, Syndrome, respiratory system, medicine.disease, respiratory tract diseases, Pulmonary embolism, Pulmonary imaging, Embolism, Breathing, Radiology, business, Chest radiograph, Pulmonary Embolism, Perfusion
Abstract: Ventilation/perfusion lung scanning can be used to effectively detect fat embolism following skeletal trauma. Typical ventilation/perfusion findings may be present when the chest radiograph is normal, and clinical findings are equivocal.
Published: 1986

22. Detection of impending pericardial tamponade during skeletal imaging

Author: Christopher C. Kuni, Ren P. Ducret, Robert J. Boudreau, Mark Mahan, Valerie K. Ulstad, and Claudia M. Engeler
Subjects: Male, medicine.medical_specialty, Lung Neoplasms, medicine.medical_treatment, Bone imaging, Newly diagnosed, Adenocarcinoma, Technetium Tc 99m Medronate, Scintigraphy, Bone and Bones, Pericardial Effusion, Heart Neoplasms, medicine, Adenocarcinoma of the lung, Skeletal imaging, Pericardium, Humans, Radiology, Nuclear Medicine and imaging, Radionuclide Imaging, Aged, medicine.diagnostic_test, business.industry, General Medicine, medicine.disease, Cardiac Tamponade, body regions, medicine.anatomical_structure, Pericardiocentesis, Tamponade, Radiology, business
Abstract: Bone imaging using Tc-99m MDP was performed on a 68-year-old man with a newly diagnosed adenocarcinoma of the lung. The image unexpectedly showed increased activity in the heart area. Emergent echocardiography demonstrated impending pericardial tamponade. A malignant pericardial effusion was verified by pericardiocentesis.
Published: 1989

23. Prevention of diabetes mellitus

Author: Akerblom, H., Alberti, K. G. M. M., Baba, S., Bennett, P. H., Dedov, I., Keen, H., Klein, R., Nerup, J., Xiao-Ren, P., Puchulu, F. E., Jay Skyler, Steiner, G., Swai, A., Zimmet, P., and Assal, J. -P

24. Analysis of the hydrocarbon enrichment regularity in the sequence stratigraphic framework of Tertiary in Qikou sag

Author: SI CHEN, Huang, C. -Y, Ren, P. -G, Wang, H., Wang, J. -H, Wu, Y. -P, and Xia, C. -Y

25. Study on semi-rigid composite beam-column joints

Author: Ren, P., Mäkeläinen, P., and Crisinel, M.
Subjects: 282/ICOM

26. Prediction method for moment - rotation behaviour of composite beam to steel column connection

Author: Ren, P. and Crisinel, M.
Subjects: 310/ICOM

27. Effect of reinforced concrete slab on the moment- rotation behaviour of standard steel beam-column joints: numerical analysis and experimental study

Author: Ren, P. and Crisinel, M.
Subjects: 297/ICOM

28. Effets de la dalle en béton armé sur le comportement moment-rotation d'assemblages métalliques poutre-poteau. Etude expérimentale, analyse numérique et méthode simplifiée

Author: Ren, P., Crisinel, M., and Carretero, A.
Subjects: 345/ICOM

29. Mapping the human genetic architecture of COVID-19

Author: Niemi, Mari E. K., Karjalainen, Juha, Liao, Rachel G., Daly, Mark, Ganna, Andrea, Pathak, Gita A., Andrews, Shea J., Kanai, Masahiro, Veerapen, Kumar, Fernandez-Cadenas, Israel, Schulte, Eva C., Striano, Pasquale, Marttila, Minttu, Minica, Camelia, Marouli, Eirini, Karim, Mohd Anisul, Wendt, Frank R., Savage, Jeanne, Sloofman, Laura, Butler-Laporte, Guillaume, Kim, Han-Na, Kanoni, Stavroula, Okada, Yukinori, Byun, Jinyoung, Han, Younghun, Uddin, Mohammed Jashim, Smith, George Davey, Willer, Cristen J., Buxbaum, Joseph D., Mehtonen, Juha, Finucane, Hilary, Cordioli, Mattia, Martin, Alicia R., Zhou, Wei, Pasaniuc, Bogdan, Julienne, Hanna, Aschard, Hugues, Shi, Huwenbo, Yengo, Loic, Polimanti, Renato, Ghoussaini, Maya, Schwartzentruber, Jeremy, Dunham, Ian, Chwialkowska, Karolina, Francescatto, Margherita, Trankiem, Amy, Balaconis, Mary K., Davis, Lea, Lee, Sulggi, Priest, James, Renieri, Alessandra, Sankaran, Vijay G., Van Heel, David, Deelen, Patrick, Richards, J. Brent, Nakanishi, Tomoko, Biesecker, Les, Kerchberger, V. Eric, Baillie, J. Kenneth, Mari, Francesca, Bernasconi, Anna, Baillie, Stefano Ceri, Canakoglu, Arif, Wolford, Brooke, Faucon, Annika, Dutta, Atanu Kumar, Schurmann, Claudia, Harry, Emi, Birney, Ewan, Nguyen, Huy, Nasir, Jamal, Kaunisto, Mari, Solomonson, Matthew, Dueker, Nicole, Vadgama, Nirmal, Limou, Sophie, Rahmouni, Souad, Mbarek, Hamdi, Darwish, Dima, Uddin, Md Mesbah, Albertos, Raquel, P��rez-Tur, Jordi, Li, Ruolin, Folkersen, Lasse, Moltke, Ida, Koelling, Nils, Teumer, Alexander, Kousathanas, Athanasios, Utrilla, Alicia, Verdugo, Ricardo A., Z��rate, Ruth, Medina-G��mez, Carolina, G��mez-Cabrero, David, Carnero-Montoro, Elena, Cadilla, Carmen L., Moreno-Estrada, Andr��s, Garmendia, Adriana, Moya, Leire, Sedaghati-Khayat, Bahar, Boua, Palwend�� Romuald, Fav��, Marie-Julie, Francioli, Laurent, Lema��on, Audrey, Migeotte, Isabelle, Patel, Sanjay, Varnai, Reka, Szentpeteri, Jozsef L., Sipeky, Csilla, Colombo, Francesca, Von Hohenstaufen, Kathrin, Lio, Pietro, Vallerga, Costanza, Wang, Qingbo, Tanigawa, Yosuke, Im, Hogune, Han, Chulho, Song, Han, Lim, Jiwoo, Lee, Younhe, Kim, Sugyeong, Im, Sangyoon, Atanasovska, Biljana, Ahmad, Hajar Fauzan, Boer, Cindy, Jansen, Philip, Franke, Lude, Kaja, El��bieta, Pasko, Dorota, Kennis-Szilagyi, Ingrid, Kornilov, Sergey A., Prijatelj, Vid, Proki��, Ivana, Sivanadhan, Ilangkumaran, Perumal, Sarala, Esmaeeli, Sahar, Pearson, Nathaniel M., Auton, Adam, Shelton, Janie F., Shastri, Anjali J., Filshtein-Sonmez, Teresa, Coker, Daniella, Symons, Antony, Esparza-Gordillo, Jorge, Aslibekyan, Stella, O��Connell, Jared, Ye, Chelsea, Weldon, Catherine H., Perera, Minoli, O��Leary, Kevin, Tuck, Matthew, O��Brien, Travis, Meltzer, David, O��Donnell, Peter, Nutescu, Edith, Yang, Guang, Alarcon, Cristina, Herrmann, Stefanie, Mazurek, Sophia, Banagan, Jeff, Hamidi, Zacharia, Barbour, April, Raffat, Noora, Moreno, Diana, Friedman, Paula, Ferwerda, Bart, Van De Beek, Diederik, Brouwer, Matthijs C., Vlaar, Alexander P. J., Wiersinga, W. Joost, Posthuma, Danielle, Tissink, Elleke, Koos Zwinderman, A. H., Uffelmann, Emil, Van Agtmael, Michiel, Algera, Anne Geke, Van Baarle, Frank, Bax, Diane, Beudel, Martijn, Jan Bogaard, Harm, Bomers, Marije, Bonta, Peter I., Bos, Lieuwe, Botta, Michela, De Brabander, Justin, De Bree, Godelieve, De Bruin, Sanne, Bugiani, Marianna, Bulle, Esther, Chouchane, Osoul, Cloherty, Alex, Dongelmans, Dave, Elbers, Paul, Fleuren, Lucas, Geerlings, Suzanne, Geerts, Bart, Geijtenbeek, Theo, Girbes, Armand, Goorhuis, Bram, Grobusch, Martin P., Hafkamp, Florianne, Hagens, Laura, Hamann, Jorg, Harris, Vanessa, Hemke, Robert, Hermans, Sabine M., Heunks, Leo, Hollmann, Markus, Horn, Janneke, Hovius, Joppe W., De Jong, Menno D., Koning, Rutger, Van Mourik, Niels, Nellen, Jeannine, Nossent, Esther J., Paulus, Frederique, Peters, Edgar, Van Der Poll, Tom, Preckel, Bennedikt, Prins, Jan M., Raasveld, Jorinde, Reijnders, Tom, Schinkel, Michiel, Schultz, Marcus J., Schuurman, Alex, Sigaloff, Kim, Smit, Marry, Stijnis, Cornelis S., Stilma, Willemke, Teunissen, Charlotte, Thoral, Patrick, Tsonas, Anissa, Van Der Valk, Marc, Veelo, Denise, De Vries, Heder, Van Vugt, Mich��le, Wouters, Dorien, Minnaar, Ren�� P., Kromhout, Adrie, Van Uffelen, Kees W. J., Wolterman, Ruud A., Roberts, Genevieve, Park, Danny, Ball, Catherine A., Coignet, Marie, McCurdy, Shannon, Knight, Spencer, Partha, Raghavendran, Rhead, Brooke, Zhang, Miao, Berkowitz, Nathan, Gaddis, Michael, Noto, Keith, Ruiz, Luong, Pavlovic, Milos, Hong, Eurie L., Rand, Kristin, Girshick, Ahna, Guturu, Harendra, Baltzell, Asher Haug, Guntz, Julien, Beguin, Yves, Pigazzini, Sara, Nkambule, Lindokuhle, Bouysran, Youssef, Busson, Adeline, Peyrassol, Xavier, Wilkin, Fran��oise, Pichon, Bruno, Smits, Guillaume, Vandernoot, Isabelle, Goffard, Jean-Christophe, Georges, Michel, Moutschen, Michel, Misset, Benoit, Darcis, Gilles, Guiot, Julien, Jadot, Laurent, Azarzar, Samira, Dellot, Patricia, Gofflot, St��phanie, Claassen, Sabine, Bertrand, Axelle, Parzibut, Gilles, Clarinval, Mathilde, Moermans, Catherine, Malaise, Olivier, El Kandoussi, Kamilia, Thonon, Rapha��l, Huynen, Pascale, Mesdagh, Alyssia, Melo, Sofia, Jacques, Nicolas, Di Valentin, Emmanuel, Giroule, Fran��ois, Collignon, Alice, Radermecker, Coraline, Lebrun, Marielle, Per��e, H��l��ne, Latour, Samuel, Barada, Olivia, Sanchez, Judit, Josse, Claire, Boujemla, Bouchra, Meunier, Margot, Mariavelle, Emeline, Anania, Sandy, Gazon, H��l��ne, Juszczak, Danusia, Fadeur, Marjorie, Camby, S��verine, Meuris, Christelle, Thys, Marie, Jacques, Jessica, Henket, Monique, L��onard, Philippe, Frippiat, Frederic, Giot, Jean-Baptiste, Sauvage, Anne-Sophie, Von Frenckell, Christian, Mni, Myriam, W��ry, Marie, Staderoli, Alicia, Belhaj, Yasmine, Lambermont, Bernard, Morrison, David R., Mooser, Vincent, Forgetta, Vincenzo, Li, Rui, Ghosh, Biswarup, Laurent, Laetitia, Belisle, Alexandre, Henry, Danielle, Abdullah, Tala, Adeleye, Olumide, Mamlouk, Noor, Kimchi, Nofar, Afrasiabi, Zaman, Rezk, Nardin, Vulesevic, Branka, Bouab, Meriem, Guzman, Charlotte, Petitjean, Louis, Tselios, Chris, Xue, Xiaoqing, Afilalo, Jonathan, Afilalo, Marc, Oliveira, Maureen, Brenner, Bluma, Brassard, Nathalie, Durand, Madeleine, Schurr, Erwin, Lepage, Pierre, Ragoussis, Jiannis, Auld, Daniel, Chass��, Micha��l, Kaufmann, Daniel E., Lathrop, G. Mark, Adra, Darin, Davis, Lea K., Cox, Nancy J., Below, Jennifer E., Sealock, Julia M., Faucon, Annika B., Shuey, Megan M., Polikowsky, Hannah G., Petty, Lauren E., Shaw, Douglas M., Chen, Hung-Hsin, Zhu, Wanying, Ludwig, Kerstin U., Schr��der, Julia, Maj, Carlo, Rolker, Selina, N��then, Markus M., Fazaal, Julia, Keitel, Verena, Jensen, Bj��rn-Erik Ole, Feldt, Torsten, Kurth, Ingo, Marx, Nikolaus, Dreher, Michael, Pink, Isabell, Cornberg, Markus, Illig, Thomas, Lehmann, Clara, Schommers, Philipp, Augustin, Max, Rybniker, Jan, Knopp, Lisa, Eggermann, Thomas, Volland, Sonja, Altm��ller, Janine, Berger, Marc M., Brenner, Thorsten, Hinney, Anke, Witzke, Oliver, Bals, Robert, Herr, Christian, Ludwig, Nicole, Walter, J��rn, Fuchsberger, Christian, Pattaro, Cristian, De Grandi, Alessandro, Pramstaller, Peter, Emmert, David, Melotti, Roberto, Foco, Luisa, Mascalzoni, Deborah, G��gele, Martin, Domingues, Francisco, Hicks, Andrew, Gignoux, Christopher R., Wicks, Stephen J., Crooks, Kristy, Barnes, Kathleen C., Daya, Michelle, Shortt, Jonathan, Rafaels, Nicholas, Chavan, Sameer, Goldstein, David B., Kiryluk, Krzysztof, Sengupta, Soumitra, Chung, Wendy, Reilly, Muredach P., Khan, Atlas, Wang, Chen, Povysil, Gundula, Bhardwaj, Nitin, Gharavi, Ali G., Ionita-Laza, Iuliana, Shang, Ning, O��Byrne, Sheila M., Nandakumar, Renu, Menon, Amritha, So, Yat S., Hod, Eldad, Pendrick, Danielle, Park, Soo-Kyung, Kim, Hyung-Lae, Kang, Chang Kyung, Lee, Hyo-Jung, Song, Kyoung-Ho, Jae Yoon, Kyung, Paik, Nam-Jong, Seok, Woojin, Yoon, Heejun, Joo, Eun-Jeong, Chang, Yoosoo, Ryu, Seungho, Park, Wan Beom, Su Park, Jeong, Un Park, Kyoung, Ham, Sin Young, Jung, Jongtak, Kim, Eu Suk, Kim, Hong Bin, Ellinghaus, David, Degenhardt, Frauke, C��ceres, Mario, Juzenas, Simonas, Lenz, Tobias L., Albillos, Agust��n, Juli��, Antonio, Heidecker, Bettina, Garcia, Federico, Kurth, Florian, Tran, Florian, Hanses, Frank, Zoller, Heinz, Holter, Jan C., Fern��ndez, Javier, Sander, Leif Erik, Rosenstiel, Philip, Koehler, Philipp, De Cid, Rafael, Asselta, Rosanna, Schreiber, Stefan, Hehr, Ute, Prati, Daniele, Baselli, Guido, Valenti, Luca, Bujanda, Luis, Banales, Jesus M., Duga, Stefano, D��Amato, Mauro, Romero-G��mez, Manuel, Buti, Maria, Invernizzi, Pietro, Franke, Andre, Hov, Johannes R., Karlsen, Tom H., Folseraas, Trine, Maya-Miles, Douglas, Teles, Ana, Azuure, Clinton, Wacker, Eike Matthias, Uellendahl-Werth, Florian, ElAbd, Hesham, Arora, Jatin, Lerga-Jaso, Jon, Wienbrandt, Lars, R��hlemann, Malte Christoph, Wendorff, Mareike, Vadla, May Sissel, Lenning, Ole Bernt, ��zer, Onur, Myhre, Ronny, Raychaudhuri, Soumya, Tanck, Anja, Gassner, Christoph, Hemmrich-Stanisak, Georg, K��ssens, Jan, Figuera Basso, Maria E., Schulzky, Martin, Wittig, Michael, Braun, Nicole, Wesse, Tanja, Albrecht, Wolfgang, Yi, Xiaoli, Ortiz, Aaron Blandino, Chercoles, Adolfo Garrido, Ruiz, Agust��n, Mantovani, Alberto, Holten, Aleksander Rygh, Mayer, Alena, Cherubini, Alessandro, Protti, Alessandro, Aghemo, Alessio, Gerussi, Alessio, Ramirez, Alfredo, Braun, Alice, Barreira, Ana, Lleo, Ana, Kildal, Anders Benjamin, Gl��ck, Andreas, Nolla, Anna Carreras, Latiano, Anna, Dyrhol-Riise, Anne Ma, Muscatello, Antonio, Voza, Antonio, Rando-Segura, Ariadna, Solier, Aurora, Karina, Banasik, Cortes, Beatriz, Mateos, Beatriz, Nafria-Jimenez, Beatriz, Schaefer, Benedikt, Bellinghausen, Carla, Ferrando, Carlos, Quereda, Carmen, Skurk, Carsten, Thibeault, Charlotte, Spinner, Christoph D., Lange, Christoph, Hu, Cinzia, Cappadona, Claudio, Bianco, Cristiana, Sancho, Cristina, Lihaug Hoff, Dag Arne, Galimberti, Daniela, Jim��nez, David, Pesta��a, David, Toapanta, David, Azzolini, Elena, Scarpini, Elio, Helbig, Elisa T., Urrechaga, Eloisa, Paraboschi, Elvezia Maria, Pontali, Emanuele, Reverter, Enric, Navas, Enrique, Arana, Eunate, S��nchez, F��lix Garc��a, Ceriotti, Ferruccio, Malvestiti, Francesco, Mesonero, Francisco, Pezzoli, Gianni, Lamorte, Giuseppe, Neb, Holger, My, Ilaria, Hern��ndez, Isabel, De Rojas, Itziar, Galv��n-Femenia, Iv��n, Heyckendorf, Jan, Badia, Joan Ramon, Schneider, Jochen, Goikoetxea, Josune, Kraft, Julia, M��ller, Karl Erik, Gaede, Karoline I., Garcia-Etxebarria, Koldo, Tonby, Kristian, Heggelund, Lars, Izquierdo-Sanchez, Laura, Sumoy, Lauro, Lippert, Lena J., Terranova, Leonardo, Garbarino, Lucia, T��llez, Luis, Roade, Luisa, Ostadreza, Mahnoosh, Intxausti, Maider, Kogevinas, Manolis, Guti��rrez-Stampa, Mar��a A., Vehreschild, Maria J. G. T., Marqui��, Marta, Castoldi, Massimo, Cecconi, Maurizio, Boada, Merc��, Seilmaier, Michael J., Mazzocco, Michela, Rodr��guez-Gand��a, Miguel, Ayo, Natale Imaz, Blay, Natalia, Mart��nez, Nilda, Cornely, Oliver A., Palmieri, Orazio, Tentorio, Paolo, Rodrigues, Pedro M., Espa��a, Pedro P., Hoffmann, Per, Bacher, Petra, Suwalski, Phillip, De Pablo, Ra��l, Nieto, Rosa, Badalamenti, Salvatore, Ciesek, Sandra, Bombace, Sara, Wilfling, Sibylle, Brunak, S��ren, Heilmann-Heimbach, Stefanie, Ripke, Stephan, Bahmer, Thomas, Landmesser, Ulf, Protzer, Ulrike, Rimoldi, Valeria, Skogen, Vegard, Andrade, Victor, Moreno, Victor, Poller, Wolfgang, Farre, Xavier, Wang, Xiaomin, Khodamoradi, Yascha, Karadeniz, Zehra, De Salazar, Adolfo, Palom, Adriana, Garcia-Fernandez, Alba-Estela, Blanco-Grau, Albert, Zanella, Alberto, Bandera, Alessandra, Nebel, Almut, Biondi, Andrea, Caballero-Garralda, Andrea, Gori, Andrea, Lind, Andreas, Fracanzani, Anna Ludovica, Peschuck, Anna, Pesenti, Antonio, De La Horra, Carmen, Milani, Chiara, Paccapelo, Cinzia, Angelini, Claudio, Cea, Cristina, Mu��iz-Diaz, Eduardo, Sandoval, Elena, Calder��n, Enrique J., Sollig��rd, Erik, Aziz, F��tima, Martinelli-Boneschi, Filippo, Peyvandi, Flora, Blasi, Francesco, Medrano, Francisco J., Rodriguez-Frias, Francisco, M��ller, Fredrik, Grasselli, Giacomo, Costantino, Giorgio, Cardamone, Giulia, Foti, Giuseppe, Matullo, Giuseppe, Kurihara, Hayato, Afset, Jan Egil, Dam��s, Jan Kristian, Ampuero, Javier, Mart��n, Javier, Erdmann, Jeanette, Bergan, Jonas, Goerg, Siegfried, Ferrusqu��a-Acosta, Jose, Quero, Jose Hern��ndez, Delgado, Juan, Guerrero, Juan M., Risnes, Kari, Bettini, Laura Rachele, Moreira, Leticia, Gustad, Lise Tuset, Santoro, Luigi, Scudeller, Luigia, Riveiro-Barciela, Mar, Schaefer, Marco, Carrabba, Maria, Valsecchi, Maria G., Hernandez-Tejero, Mar��a, Acosta-Herrera, Marialbert, D��Angi��, Mariella, Baldini, Marina, Cazzaniga, Marina, Ciccarelli, Michele, Bocciolone, Monica, Miozzo, Monica, Chueca, Natalia, Montano, Nicola, Faverio, Paola, Preatoni, Paoletta, Bonfanti, Paolo, Omodei, Paolo, Castro, Pedro, Ferrer, Ricard, Gualtierotti, Roberta, Gallego-Dur��n, Roc��o, Morilla, Rub��n, Haider, Sammra, Marsal, Sara, Aneli, Serena, Pelusi, Serena, Bosari, Silvano, Aliberti, Stefano, Dudman, Susanne, Zheng, Tenghao, Pumarola, Tomas, Cejudo, Trinidad Gonzalez, Monzani, Valter, Friaza, Vicente, Peter, Wolfgang, Dopazo, Ximo, May, Sandra, Grimsrud, Marit M., Gudbjartsson, Daniel F., Stefansson, Kari, Sulem, Patrick, Sveinbjornsson, Gardar, Melsted, Pall, Norddahl, Gudmundur, Swerford Moore, Kristjan Helgi, Thorsteinsdottir, Unnur, Holm, Hilma, Alarc��n-Riquelme, Marta E., Bernardo, David, Mart��nez-Bueno, Manuel, Rello, Silvia Rojo, Magi, Reedik, Milani, Lili, Metspalu, Andres, Laisk, Triin, L��ll, Kristi, Lepamets, Maarja, Esko, T��nu, Reimann, Ene, Naaber, Paul, Laane, Edward, Pesukova, Jaana, Peterson, P��rt, Kisand, Kai, Tabri, Jekaterina, Allos, Raili, Hensen, Kati, Starkopf, Joel, Ringmets, Inge, Tamm, Anu, Kallaste, Anne, Alavere, Helene, Metsalu, Kristjan, Puusepp, Mairo, Kristiansson, Kati, Koskelainen, Sami, Perola, Markus, Donner, Kati, Kivinen, Katja, Palotie, Aarno, Rivolta, Carlo, Bochud, Pierre-Yves, Bibert, St��phanie, Boillat, No��mie, Nussle, Semira Gonseth, Albrich, Werner, Quinodoz, Mathieu, Kamdar, Dhryata, Suh, No��mie, Neofytos, Dionysios, Erard, V��ronique, Voide, Cathy, Bochud, P. Y., Rivolta, C., Bibert, S., Quinodoz, M., Kamdar, D., Neofytos, D., Erard, V., Voide, C., Friolet, R., Vollenweider, P., Pagani, J. L., Oddo, M., Zu Bentrup, F. Meyer, Conen, A., Clerc, O., Marchetti, O., Guillet, A., Guyat-Jacques, C., Foucras, S., Rime, M., Chassot, J., Jaquet, M., Viollet, R. Merlet, Lannepoudenx, Y., Portopena, L., Desgranges, F., Filippidis, P., Gu��ry, B., Haefliger, D., Kampouri, E. E., Manuel, O., Munting, A., Papadimitriou-Olivgeris, M., Regina, J., Rochat-Stettler, L., Suttels, V., Tadini, E., Tschopp, J., Van Singer, M., Viala, B., Boillat-Blanco, N., Brahier, T., H��gli, O., Meuwly, J. Y., Pantet, O., Nussle, S. Gonseth, Bochud, M., D��Acremont, V., Younes, S. Estoppey, Albrich, W. C., Suh, N., Cerny, A., O��Mahony, L., Von Mering, C., Frischknecht, M., Kleger, G.-R., Filipovic, M., Kahlert, C. R., Wozniak, H., Negro, T. Rochat, Pugin, J., Bouras, K., Knapp, C., Egger, T., Perret, A., Montillier, P., Di Bartolomeo, C., Barda, B., Carreras, Anna, Galv��n-Femen��a, Iv��n, Farr��, Xavier, Cort��s, Beatriz, Mercader, Josep Maria, Guindo-Martinez, Marta, Torrents, David, Garcia-Aymerich, Judith, Casta��o-Vinyals, Gemma, Doba��o, Carlota, Gori, Marco, Mondelli, Mario Umberto, Castelli, Francesco, Vaghi, Massimo, Rusconi, Stefano, Montagnani, Francesca, Bargagli, Elena, Franchi, Federico, Mazzei, Maria Antonietta, Cantarini, Luca, Tacconi, Danilo, Feri, Marco, Scala, Raffaele, Spargi, Genni, Nencioni, Cesira, Bandini, Maria, Caldarelli, Gian Piero, Spagnesi, Maurizio, Canaccini, Anna, Ognibene, Agostino, D��Arminio Monforte, Antonella, Girardis, Massimo, Antinori, Andrea, Francisci, Daniela, Schiaroli, Elisabetta, Scotton, Pier Giorgio, Panese, Sandro, Scaggiante, Renzo, Monica, Matteo Della, Capasso, Mario, Fiorentino, Giuseppe, Castori, Marco, Aucella, Filippo, Di Biagio, Antonio, Masucci, Luca, Valente, Serafina, Mandal��, Marco, Zucchi, Patrizia, Giannattasio, Ferdinando, Coviello, Domenico A., Mussini, Cristina, Bosio, Giancarlo, Tavecchia, Luisa, Crotti, Lia, Rizzi, Marco, La Rovere, Maria Teresa, Sarzi-Braga, Simona, Bussotti, Maurizio, Ravaglia, Sabrina, Artuso, Rosangela, Perrella, Antonio, Romani, Davide, Bergomi, Paola, Catena, Emanuele, Vincenti, Antonella, Ferri, Claudio, Grassi, Davide, Pessina, Gloria, Tumbarello, Mario, Di Pietro, Massimo, Sabrina, Ravaglia, Luchi, Sauro, Barbieri, Chiara, Acquilini, Donatella, Andreucci, Elena, Paciosi, Francesco, Segala, Francesco Vladimiro, Tiseo, Giusy, Falcone, Marco, Lista, Mirjam, Poscente, Monica, De Vivo, Oreste, Petrocelli, Paola, Guarnaccia, Alessandra, Baroni, Silvia, Perticaroli, Valentina, Furini, Simone, Dei, Simona, Benetti, Elisa, Picchiotti, Nicola, Sanarico, Maurizio, Ceri, Stefano, Pinoli, Pietro, Raimondi, Francesco, Biscarini, Filippo, Stella, Alessandra, Bergomi, Mattia, Zguro, Kristina, Capitani, Katia, Tanfoni, Marco, Fallerini, Chiara, Daga, Sergio, Baldassarri, Margherita, Fava, Francesca, Frullanti, Elisa, Valentino, Floriana, Doddato, Gabriella, Giliberti, Annarita, Tita, Rossella, Amitrano, Sara, Bruttini, Mirella, Croci, Susanna, Meloni, Ilaria, Mencarelli, Maria Antonietta, Lo Rizzo, Caterina, Pinto, Anna Maria, Beligni, Giada, Tommasi, Andrea, Di Sarno, Laura, Palmieri, Maria, Carriero, Miriam Lucia, Alaverdian, Diana, Iuso, Nicola, Inchingolo, Gabriele, Busani, Stefano, Bruno, Raffaele, Vecchia, Marco, Belli, Mary Ann, Mantovani, Stefania, Ludovisi, Serena, Quiros-Roldan, Eugenia, Antoni, Melania Degli, Zanella, Isabella, Siano, Matteo, Emiliozzi, Arianna, Fabbiani, Massimiliano, Rossetti, Barbara, Zanelli, Giacomo, Bergantini, Laura, D��Alessandro, Miriana, Cameli, Paolo, Bennet, David, Anedda, Federico, Marcantonio, Simona, Scolletta, Sabino, Guerrini, Susanna, Conticini, Edoardo, Frediani, Bruno, Spertilli, Chiara, Donati, Alice, Guidelli, Luca, Corridi, Marta, Croci, Leonardo, Piacentini, Paolo, Desanctis, Elena, Cappelli, Silvia, Verzuri, Agnese, Anemoli, Valentina, Pancrazi, Alessandro, Lorubbio, Maria, Merlini, Esther, Miraglia, Federica Gaia, Venturelli, Sophie, Cossarizza, Andrea, Vergori, Alessandra, Gabrieli, Arianna, Riva, Agostino, Andretta, Francesca, Gatti, Francesca, Parisi, Saverio Giuseppe, Baratti, Stefano, Piscopo, Carmelo, Russo, Roberta, Andolfo, Immacolata, Iolascon, Achille, Carella, Massimo, Merla, Giuseppe, Squeo, Gabriella Maria, Raggi, Pamela, Marciano, Carmen, Perna, Rita, Bassetti, Matteo, Sanguinetti, Maurizio, Giorli, Alessia, Salerni, Lorenzo, Parravicini, Pierpaolo, Menatti, Elisabetta, Trotta, Tullio, Coiro, Gabriella, Lena, Fabio, Martinelli, Enrico, Mancarella, Sandro, Gabbi, Chiara, Maggiolo, Franco, Ripamonti, Diego, Bachetti, Tiziana, Suardi, Claudia, Parati, Gianfranco, Bott��, Giordano, Di Domenico, Paolo, Rancan, Ilaria, Bianchi, Francesco, Colombo, Riccardo, Van Heel, David A., Hunt, Karen A., Trembath, Richard C., Huang, Qin Qin, Martin, Hilary C., Mason, Dan, Trivedi, Bhavi, Wright, John, Finer, Sarah, Griffiths, Christopher J., Akhtar, Shaheen, Anwar, Mohammad, Arciero, Elena, Ashraf, Samina, Breen, Gerome, Chung, Raymond, Curtis, Charles J., Chowdhury, Maharun, Colligan, Grainne, Deloukas, Panos, Durham, Ceri, Griffiths, Chris, Hurles, Matt, Hussain, Shapna, Islam, Kamrul, Khan, Ahsan, Khan, Amara, Lavery, Cath, Lee, Sang Hyuck, Lerner, Robin, MacArthur, Daniel, MacLaughlin, Bev, Martin, Hilary, Miah, Shefa, Newman, Bill, Safa, Nishat, Tahmasebi, Farah, Smith, Albert V., Boughton, Andrew P., Li, Kevin W., LeFaive, Jonathon, Annis, Aubrey, Jannes, Cinthia E., Krieger, Jose E., Pereira, Alexandre C., Velho, Mariliza, Marques, Emanuelle, Lima, Isabella Ramos, Tada, Mauricio Teruo, Valino, Karina, McCarthy, Mark, Rosenberger, Carrie, Lee, Jong Eun, Chang, Diana, Hammer, Christian, Hunkapiller, Julie, Mahajan, Anubha, Pendergrass, Sarah, Sucheston-Campbell, Lara, Yaspan, Brian, Lee, Hyun Soo, Shin, Eunsoon, Jang, Hye Yoon, Kim, Sunmie, Kym, Sungmin, Kim, Yeon-Sook, Jeong, Hyeongseok, Kwon, Ki Tae, Kim, Shin-Woo, Kim, Jin Yong, Jang, Young Rock, Kim, Hyun Ah, Lee, Ji Yeon, Lee, Jeong Eun, Lee, Shinwon, Choe, Kang-Won, Kang, Yu Min, Jee, Sun Ha, Jung, Keum Ji, Parikh, Victoria, Ashley, Euan, Wheeler, Matthew, Rivas, Manuel, Bustamante, Carlos, Pinksy, Benjamin, Febbo, Phillip, Farh, Kyle, Schroth, Gary P., DeSouza, Francis, Dalton, Karen, Christle, Jeff, Deboever, Christopher, Szalma, S��ndor, Rubinacci, Simone, Delaneau, Olivier, Gorzynski, John, De Jong, Hannah, Sutton, Shirley, Youlton, Nathan, Joshi, Ruchi, Jimenez-Morales, David, Hughes, Christopher, Amar, David, Ioannidis, Alex, Hershman, Steve, Kirillova, Anna, Seo, Kinya, Huang, Yong, Shoura, Massa, Hammond, Nathan, Watson, Nathaniel, Raja, Archana, Huang, ChunHong, Sahoo, Malaya, Wang, Hannah, Zhen, Jimmy, Rakitko, Alexander, Ilinsky, Valery, Yermakovich, Danat, Popov, Iaroslav, Chernitsov, Alexander, Kovalenko, Elena, Krasnenko, Anna, Plotnikov, Nikolay, Stetsenko, Ivan, Kim, Anna, Cirulli, Elizabeth T., Schiabor Barrett, Kelly M., Bolze, Alexandre, White, Simon, Washington, Nicole L., Lu, James T., Riffle, Stephen, Tanudjaja, Francisco, Wang, Xueqing, Ramirez, Jimmy M., Leonetti, Nicole, Sandoval, Efren, Neveux, Iva, Dabe, Shaun, Grzymski, Joseph J., Esteban Mi��ano, Juan Ignacio, Aguirre, Luis A., L��pez-Collazo, Eduardo, De La Mata Pazos, Manuel, Cerrato, Luciano, Lozano-Rodr��guez, Roberto, Avenda��o-Ortiz, Jos��, Arcos, Ver��nica Terr��n, Montalb��n-Hern��ndez, Karla Marina, Quiroga, Jaime Valent��n, Pascual-Iglesias, Alejandro, Maroun-Eid, Charbel, Mart��n-Quir��s, Alejandro, Namkoong, Ho, Imoto, Seiya, Katayama, Kazuhiko, Fukunaga, Koichi, Kitagawa, Yuko, Sato, Toshiro, Hasegawa, Naoki, Kumanogoh, Atsushi, Kimura, Akinori, Ai, Masumi, Tokunaga, Katsushi, Kanai, Takanori, Miyano, Satoru, Ogawa, Seishi, Edahiro, Ryuya, Sonehara, Kyuto, Shirai, Yuya, Ishii, Makoto, Kabata, Hiroki, Masaki, Katsunori, Kamata, Hirofumi, Ikemura, Shinnosuke, Chubachi, Shotaro, Okamori, Satoshi, Terai, Hideki, Tanaka, Hiromu, Morita, Atsuho, Lee, Ho, Asakura, Takanori, Sasaki, Junichi, Morisaki, Hiroshi, Uwamino, Yoshifumi, Nanki, Kosaku, Mikami, Yohei, Tomono, Kazunori, Kato, Kazuto, Matsuda, Fumihiko, Takahashi, Meiko, Hizawa, Nobuyuki, Takeda, Yoshito, Hirata, Haruhiko, Shiroyama, Takayuki, Miyawaki, Satoru, Suzuki, Ken, Maeda, Yuichi, Nii, Takuro, Noda, Yoshimi, Niitsu, Takayuki, Adachi, Yuichi, Enomoto, Takatoshi, Amiya, Saori, Hara, Reina, Takahashi, Kunihiko, Anzai, Tatsuhiko, Hasegawa, Takanori, Ito, Satoshi, Koike, Ryuji, Endo, Akifumi, Uchimura, Yuji, Miyazaki, Yasunari, Honda, Takayuki, Tateishi, Tomoya, Tohda, Shuji, Ichimura, Naoya, Sonobe, Kazunari, Sassa, Chihiro, Nakajima, Jun, Nannya, Yasuhito, Omae, Yosuke, Takahashi, Kazuhisa, Harada, Norihiro, Hiki, Makoto, Takagi, Haruhi, Nakamura, Ai, Tagaya, Etsuko, Kawana, Masatoshi, Arimura, Ken, Ishiguro, Takashi, Takayanagi, Noboru, Isono, Taisuke, Takaku, Yotaro, Takano, Kenji, Anan, Ryusuke, Nakajima, Yukiko, Nakano, Yasushi, Nishio, Kazumi, Ueda, Soichiro, Hayashi, Reina, Tateno, Hiroki, Hase, Isano, Yoshida, Shuichi, Suzuki, Shoji, Mitamura, Keiko, Saito, Fumitake, Ueda, Tetsuya, Azuma, Masanori, Nagasaki, Tadao, Yasui, Yoshinori, Hasegawa, Yoshinori, Mutoh, Yoshikazu, Yoshiyama, Takashi, Shoko, Tomohisa, Kojima, Mitsuaki, Adachi, Tomohiro, Ishikawa, Motonao, Takahashi, Kenichiro, Watanabe, Kazuyoshi, Manabe, Tadashi, Ito, Fumimaro, Fukui, Takahiro, Funatsu, Yohei, Koh, Hidefumi, Hirai, Yoshihiro, Kawashima, Hidetoshi, Narita, Atsuya, Niwa, Kazuki, Sekikawa, Yoshiyuki, Saito, Fukuki, Yoshiya, Kazuhisa, Yoshihara, Tomoyuki, Suzuki, Yusuke, Nakayama, Sohei, Masuzawa, Keita, Nishi, Koichi, Nishitsuji, Masaru, Tani, Maiko, Inoue, Takashi, Hirano, Toshiyuki, Kobayashi, Keigo, Miyazawa, Naoki, Kimura, Yasuhiro, Sado, Reiko, Ogura, Takashi, Kitamura, Hideya, Murohashi, Kota, Nakachi, Ichiro, Baba, Rie, Arai, Daisuke, Fuke, Satoshi, Saito, Hiroshi, Kuwahara, Naota, Fujiwara, Akiko, Okada, Takenori, Baba, Tomoya, Noda, Junya, Mashimo, Shuko, Yagi, Kazuma, Shiomi, Tetsuya, Hashiguchi, Mizuha, Odani, Toshio, Mochimaru, Takao, Oyamada, Yoshitaka, Mori, Nobuaki, Izumi, Namiki, Nagata, Kaoru, Taki, Reiko, Murakami, Koji, Yamada, Mitsuhiro, Sugiura, Hisatoshi, Hayashi, Kentaro, Shimizu, Tetsuo, Gon, Yasuhiro, Fujitani, Shigeki, Tsuchida, Tomoya, Yoshida, Toru, Kagaya, Takashi, Kita, Toshiyuki, Sakagami, Satoru, Kimizuka, Yoshifumi, Kawana, Akihiko, Nakamura, Yoshihiko, Ishikura, Hiroyasu, Takata, Tohru, Kikuchi, Takahide, Taniyama, Daisuke, Nakamura, Morio, Kodama, Nobuhiro, Kaneyama, Yasunari, Maeda, Shunsuke, Nagasaki, Yoji, Okamoto, Masaki, Ishihara, Sayoko, Ito, Akihiro, Chihara, Yusuke, Takeuchi, Mayumi, Onoi, Keisuke, Hashimoto, Naozumi, Wakahara, Keiko, Ando, Akira, Masuda, Makoto, Wakabayashi, Aya, Watanabe, Hiroki, Sageshima, Hisako, Nakada, Taka-Aki, Abe, Ryuzo, Shimada, Tadanaga, Kawamura, Kodai, Ichikado, Kazuya, Nishiyama, Kenta, Yamasaki, Masaki, Hashimoto, Satoru, Kusaka, Yu, Ohba, Takehiko, Isogai, Susumu, Takada, Minoru, Kanda, Hidenori, Komase, Yuko, Sano, Fumiaki, Asano, Koichiro, Oguma, Tsuyoshi, Harada, Masahiro, Takahashi, Takeshi, Shibusawa, Takayuki, Abe, Shinji, Kono, Yuta, Togashi, Yuki, Izumo, Takehiro, Inomata, Minoru, Awano, Nobuyasu, Ogawa, Shinichi, Ogata, Tomouki, Ishihara, Shoichiro, Kanehiro, Arihiko, Ozaki, Shinji, Fuchimoto, Yasuko, Kitagawa, Yuichiro, Yoshida, Shozo, Ogura, Shinji, Nishiyama, Kei, Yoshida, Kousuke, Beppu, Satoru, Fukuyama, Satoru, Eriguchi, Yoshihiro, Yonekawa, Akiko, Inoue, Yoshiaki, Yamagata, Kunihiro, Chiba, Shigeru, Narumoto, Osamu, Nagai, Hideaki, Ooshima, Nobuharu, Motegi, Mitsuru, Sagara, Hironori, Tanaka, Akihiko, Ohta, Shin, Shibata, Yoko, Tanino, Yoshinori, Sato, Yuki, Yamada, Yuichiro, Hashino, Takuya, Shinoki, Masato, Iwagoe, Hajime, Imamura, Tomonori, Umeda, Akira, Shimada, Hisato, Endo, Mayu, Hayashi, Shinichi, Takahashi, Mai, Nakano, Shigefumi, Yatomi, Masakiyo, Maeno, Toshitaka, Ishii, Tomoo, Utsugi, Mitsuyoshi, Ono, Akihiro, Kanaoka, Kensuke, Ihara, Shoichi, Komuta, Kiyoshi, Boezen, Marike, Claringbould, Annique, Lopera, Esteban, Warmerdam, Robert, Vonk, Judith. M., Van Blokland, Irene, Lanting, Pauline, Ori, Anil P. S., Obeidat, Ma��en, Hern��ndez Cordero, Ana I., Sin, Don D., Boss��, Yohan, Joubert, Philippe, Hao, Ke, Nickle, David, Timens, Wim, Van Den Berge, Maarten, Feng, Yen-Chen Anne, Mercader, Josep, Weiss, Scott T., Karlson, Elizabeth W., Smoller, Jordan W., Murphy, Shawn N., Meigs, James B., Woolley, Ann E., Green, Robert C., Perez, Emma F., Z��llner, Sebastian, Wang, Jiongming, Beck, Andrew, Sloofman, Laura G., Ascolillo, Steven, Sebra, Robert P., Collins, Brett L., Levy, Tess, Sealfon, Stuart C., Jordan, Daniel M., Thompson, Ryan C., Gettler, Kyle, Chaudhary, Kumardeep, Belbin, Gillian M., Preuss, Michael, Hoggart, Clive, Choi, Sam, Underwood, Slayton J., Salib, Irene, Britvan, Bari, Keller, Katherine, Tang, Lara, Peruggia, Michael, Hiester, Liam L., Niblo, Kristi, Aksentijevich, Alexandra, Labkowsky, Alexander, Karp, Avromie, Zlatopolsky, Menachem, Zyndorf, Marissa, Charney, Alexander W., Beckmann, Noam D., Schadt, Eric E., Abul-Husn, Noura S., Cho, Judy H., Itan, Yuval, Kenny, Eimear E., Loos, Ruth J. F., Nadkarni, Girish N., Do, Ron, O��Reilly, Paul, Huckins, Laura M., Ferreira, Manuel A. R., Abecasis, Goncalo R., Leader, Joseph B., Cantor, Michael N., Justice, Anne E., Carey, Dave J., Chittoor, Geetha, Josyula, Navya Shilpa, Kosmicki, Jack A., Horowitz, Julie E., Baras, Aris, Gass, Matthew C., Yadav, Ashish, Mirshahi, Tooraj, Jan Hottenga, Jouke, Bartels, Meike, De Geus, Eco J. C., Nivard, Michel G., Verma, Anurag, Ritchie, Marylyn D., Rader, Daniel, Li, Binglan, Verma, Shefali S., Lucas, Anastasia, Bradford, Yuki, Zara, Federico, Salpietro, Vincenzo, Scala, Marcello, Iacomino, Michele, Scudieri, Paolo, Bocciardi, Renata, Minetti, Carlo, Riva, Antonella, Vari, Maria Stella, Rahier, Jean-Fran��ois, Giorgio, Elisa, Carli, Diana, Louis, Edouad, Bulik, Cynthia M., Land��n, Mikael, Brusco, Alfredo, Ferrero, Giovanni Battista, Madia, Francesca, Fund��n, Bengt, Ismail, Said I., Saad, Chadi, Al-Sarraj, Yaser, Badji, Radja Messai, Al-Muftah, Wadha, Al Thani, Asma, Afifi, Nahla, Klovins, Janis, Rovite, Vita, Rescenko, Raimonds, Peculis, Raitis, Ustinova, Monta, Zeberg, Hugo, Frithiof, Robert, Hultstr��m, Michael, Lipcsey, Miklos, Johnson, Ruth, Geschwind, Daniel H., Freimer, Nelson, Butte, Manish J., Ding, Yi, Chiu, Alec, Chang, Timothy S., Boutros, Paul, Moutsianas, Loukas, Caulfield, Mark J., Scott, Richard H., Walker, Susan, Stuckey, Alex, Odhams, Christopher A., Rhodes, Daniel, Fowler, Tom, Rendon, Augusto, Chan, Georgia, Arumugam, Prabhu, Karczewski, Konrad J., Wilson, Daniel J., Spencer, Chris A., Crook, Derrick W., Wyllie, David H., O��Connell, Anne Marie, Atkinson, Elizabeth G., Tsuo, Kristin, Baya, Nikolas, Turley, Patrick, Gupta, Rahul, Walters, Raymond K., Palmer, Duncan S., Sarma, Gopal, Cheng, Nathan, Lu, Wenhan, Churchhouse, Claire, Goldstein, Jacqueline I., King, Daniel, Seed, Cotton, Daly, Mark J., Neale, Benjamin M., Bryant, Sam, Satterstrom, F. Kyle, Band, Gavin, Earle, Sarah G., Lin, Shang-Kuan, Arning, Nicolas, Armstrong, Jacob, Rudkin, Justine K., Callier, Shawneequa, Cusick, Caroline, Soranzo, Nicole, Zhao, Jing Hua, Danesh, John, Di Angelantonio, Emanuele, Butterworth, Adam S., Sun, Yan V., Huffman, Jennifer E., Cho, Kelly, O��Donnell, Christopher J., Tsao, Phil, Gaziano, J. Michael, Peloso, Gina, Ho, Yuk-Lam, Mian, Michael, Scaggiante, Federica, Chang, Xiao, Glessner, Joseph R., Hakonarson, Hakon, McGuigan, Peter J., Prockter Moore, Luke Stephen, Vizcaychipi, Marcela Paola, Hall, Kathryn, Campbell, Andy, Nichol, Ailstair, Ward, Geraldine, Page, Valerie Joan, Semple, Malcolm G., Adeniji, Kayode, Agranoff, Daniel, Agwuh, Ken, Ail, Dhiraj, Aldera, Erin L., Alegria, Ana, Angus, Brian, Ashish, Abdul, Atkinson, Dougal, Bari, Shahedal, Barlow, Gavin, Barnass, Stella, Barrett, Nicholas, Bassford, Christopher, Basude, Sneha, Baxter, David, Beadsworth, Michael, Bernatoniene, Jolanta, Berridge, John, Best, Nicola, Bothma, Pieter, Chadwick, David, Brittain-Long, Robin, Bulteel, Naomi, Burden, Tom, Burtenshaw, Andrew, Caruth, Vikki, Chambler, Duncan, Chee, Nigel, Child, Jenny, Chukkambotla, Srikanth, Clark, Tom, Collini, Paul, Cosgrove, Catherine, Cupitt, Jason, Cutino-Moguel, Maria-Teresa, Dark, Paul, Dawson, Chris, Dervisevic, Samir, Donnison, Phil, Douthwaite, Sam, Drummond, Andrew, DuRand, Ingrid, Dushianthan, Ahilanadan, Dyer, Tristan, Evans, Cariad, Eziefula, Chi, Fegan, Christopher, Finn, Adam, Fullerton, Duncan, Garg, Sanjeev, Garg, Atul, Gkrania-Klotsas, Effrossyni, Godden, Jo, Goldsmith, Arthur, Graham, Clive, Hardy, Elaine, Hartshorn, Stuart, Harvey, Daniel, Havalda, Peter, Hawcutt, Daniel B., Hobrok, Maria, Hodgson, Luke, Hormis, Anil, Jacobs, Michael, Jain, Susan, Jennings, Paul, Kaliappan, Agilan, Kasipandian, Vidya, Kegg, Stephen, Kelsey, Michael, Kendall, Jason, Kerrison, Caroline, Kerslake, Ian, Koch, Oliver, Koduri, Gouri, Koshy, George, Laha, Shondipon, Laird, Steven, Larkin, Susan, Leiner, Tamas, Lillie, Patrick, Limb, James, Linnett, Vanessa, Little, Jeff, Lyttle, Mark, MacMahon, Michael, MacNaughton, Emily, Mankregod, Ravish, Masson, Huw, Matovu, Elijah, McCullough, Katherine, McEwen, Ruth, Meda, Manjula, Mills, Gary H., Minton, Jane, Ward, Karl, Mirfenderesky, Mariyam, Mohandas, Kavya, Mok, Quen, Moon, James, Moore, Elinoor, Morgan, Patrick, Morris, Craig, Mortimore, Katherine, Moses, Samuel, Mpenge, Mbiye, Mulla, Rohinton, Murphy, Michael, Nagel, Megan, Nagarajan, Thapas, Nelson, Mark, O��Shea, Matthew K., Otahal, Igor, Ostermann, Marlies, Pais, Mark, Panchatsharam, Selva, Papakonstantinou, Danai, Paraiso, Hassan, Patel, Brij, Pattison, Natalie, Pepperell, Justin, Peters, Mark, Phull, Mandeep, Pintus, Stefania, Pooni, Jagtur Singh, Post, Frank, Price, David, Prout, Rachel, Rae, Nikolas, Reschreiter, Henrik, Reynolds, Tim, Richardson, Neil, Roberts, Mark, Roberts, Devender, Rose, Alistair, Rousseau, Guy, Ryan, Brendan, Saluja, Taranprit, Shah, Aarti, Shanmuga, Prad, Sharma, Anil, Shawcross, Anna, Sizer, Jeremy, Shankar-Hari, Manu, Smith, Richard, Snelson, Catherine, Spittle, Nick, Staines, Nikki, Stambach, Tom, Stewart, Richard, Subudhi, Pradeep, Szakmany, Tamas, Tatham, Kate, Thomas, Jo, Thompson, Chris, Thompson, Robert, Tridente, Ascanio, Tupper-Carey, Darell, Twagira, Mary, Ustianowski, Andrew, Vallotton, Nick, Vincent-Smith, Lisa, Visuvanathan, Shico, Vuylsteke, Alan, Waddy, Sam, Wake, Rachel, Walden, Andrew, Welters, Ingeborg, Whitehouse, Tony, Whittaker, Paul, Whittington, Ashley, Papineni, Padmasayee, Wijesinghe, Meme, Williams, Martin, Wilson, Lawrence, Cole, Sarah, Winchester, Stephen, Wiselka, Martin, Wolverson, Adam, Wooton, Daniel G., Workman, Andrew, Yates, Bryan, Young, Peter, Beale, Rupert, Bretherick, Andrew D., Clohisey, Sara, Fourman, Max Head, Furniss, James, Gountouna, Elvina, Grimes, Graeme, Haley, Chris, Harrison, David, Hayward, Caroline, Keating, Sean, Klaric, Lucija, Klenerman, Paul, Law, Andy, Meynert, Alison M., Millar, Jonathan, Pairo-Castineira, Erola, Parkinson, Nicholas, Ponting, Chris P., Porteous, David J., Rawlik, Konrad, Richmond, Anne, Rowan, Kathy, Russell, Clark D., Shen, Xia, Shih, Barbara, Tenesa, Albert, Vitart, Veronique, Wang, Bo, Wilson, James F., Wu, Yang, Yang, Jian, Yang, Zhijian, Zechner, Marie, Zhai, Ranran, Zheng, Chenqing, Norman, Lisa, Pius, Riinu, Drake, Thomas M., Fairfield, Cameron J., Knight, Stephen R., Mclean, Kenneth A., Murphy, Derek, Shaw, Catherine A., Dalton, Jo, Girvan, Michelle, Saviciute, Egle, Roberts, Stephanie, Harrison, Janet, Marsh, Laura, Connor, Marie, Halpin, Sophie, Jackson, Clare, Gamble, Carrol, Leeming, Gary, Law, Andrew, Wham, Murray, Hendry, Ross, Scott-Brown, James, Begg, Colin, Hinds, Charles, Wai Ho, Antonia Ying, Horby, Peter W., Knight, Julian, Ling, Lowell, Maslove, David, McAuley, Danny, Montgomery, Hugh, Nichol, Alistair, Openshaw, Peter J. M., Summers, Charlotte, Walsh, Timothy, Armstrong, Lisa, Bates, Hayley, Dooks, Emma, Farquhar, Fiona, Hairsine, Brigid, McParland, C., Packham, Sophie, Alldis, Zoe, Astin-Chamberlain, Raine, Bibi, Fatima, Biddle, Jack, Blow, Sarah, Bolton, Matthew, Borra, Catherine, Bowles, Ruth, Burton, Maudrian, Choudhury, Yasmin, Collier, David, Cox, Amber, Easthope, Amy, Ebano, Patrizia, Fotiadis, Stavros, Gurasashvili, Jana, Halls, Rosslyn, Hartridge, Pippa, Kallon, Delordson, Kassam, Jamila, Lancoma-Malcolm, Ivone, Matharu, Maninderpal, May, Peter, Mitchelmore, Oliver, Newman, Tabitha, Patel, Mital, Pheby, Jane, Pinzuti, Irene, Prime, Zoe, Prysyazhna, Oleksandra, Shiel, Julian, Taylor, Melanie, Tierney, Carey, Wood, Suzanne, Zak, Anne, Zongo, Olivier, Forsey, Miranda, Nicholson, Anne, Riches, Joanne, Vertue, Mark, Wasson, Christopher, Finn, Stephanie, Green, Jackie, Collins, Erin, King, Bernadette, Grauslyte, Lina, Hussain, Musarat, Pogreban, Tatiana, Rosaroso, Lace, Salciute, Erika, Franke, George, Wong, Joanna, George, Aparna, Akeroyd, Louise, Bano, Shereen, Bromley, Matt, Gurr, Lucy, Lawton, Tom, Morgan, James, Sellick, Kirsten, Warren, Deborah, Wilkinson, Brian, McGowan, Janet, Ledgard, Camilla, Stacey, Amelia, Pye, Kate, Bellwood, Ruth, Bentley, Michael, Loosley, Ronda, McGuinness, Heather, Tench, Helen, Wolf-Roberts, Rebecca, Gibson, Sian, Lyle, Amanda, McNeela, Fiona, Radhakrishnan, Jayachandran, Hughes, Alistair, Ali, Asifa, Brady, Megan, Dale, Sam, Dance, Annalisa, Gledhill, Lisa, Greig, Jill, Hanson, Kathryn, Holdroyd, Kelly, Home, Marie, Kelly, Diane, Kitson, Ross, Matapure, Lear, Melia, Deborah, Mellor, Samantha, Nortcliffe, Tonicha, Pinnell, Jez, Robinson, Matthew, Shaw, Lisa, Shaw, Ryan, Thomis, Lesley, Wilson, Alison, Wood, Tracy, Bayo, Lee-Ann, Merwaha, Ekta, Ishaq, Tahira, Hanley, Sarah, Antcliffe, David, Banach, Dorota, Brett, Stephen, Coghlan, Phoebe, Fernandez, Ziortza, Gordon, Anthony, Rojo, Roceld, Arias, Sonia Sousa, Templeton, Maie, Jha, Rajeev, Krishnamurthy, Vinodh, Lim, Lai, Bi, Rehana, Scholefield, Barney, Ashton, Lydia, Williams, Alison, Cheyne, Claire, Saunderson, Anne, Allan, Angela, Anderson, Felicity, Kaye, Callum, Liew, Jade, Medhora, Jasmine, Scott, Teresa, Trumper, Erin, Botello, Adriana, Polgarova, Petra, Stroud, Katerina, Meaney, Eoghan, Jones, Megan, Ng, Anthony, Agrawal, Shruti, Pathan, Nazima, White, Deborah, Daubney, Esther, Elston, Kay, Parker, Robert, Reddy, Amie, Turner-Bone, Ian, Wilding, Laura, Harding, Peter, Jacob, Reni, Jones, Cathy, Denmade, Craig, Croft, Maria, White, Ian, Lim, Li, Griffin, Denise, Muchenje, Nycola, Mupudzi, Mcdonald, Partridge, Richard, Conyngham, Jo-Anna, Thomas, Rachel, Wright, Mary, Corral, Maria Alvarez, Bastion, Victoria, Clarke, Daphene, David, Beena, Kent, Harriet, Lorusso, Rachel, Lubimbi, Gamu, Murdoch, Sophie, Penacerrada, Melchizedek, Thomas, Alastair, Valentine, Jennifer, Vochin, Ana, Wulandari, Retno, Djeugam, Brice, Dawson, Joy, Garrioch, Sweyn, Tolson, Melanie, Aldridge, Jonathan, De Almeida Martins, Laura Gomes, Carungcong, Jaime, Beavis, Sarah, Dale, Katie, Gascoyne, Rachel, Hawes, Joanne, Pritchard, Kelly, Stevenson, Lesley, Whileman, Amanda, Cowley, Anne, Highgate, Judith, Crawley, Rikki, Crew, Abigail, Cunningham, Mishell, Daniels, Allison, Harrison, Laura, Hope, Susan, Inweregbu, Ken, Jones, Sian, Lancaster, Nicola, Matthews, Jamie, Nicholson, Alice, Wray, Gemma, Benham, Leonie, Bradshaw, Zena, Brown, Joanna, Caswell, Melanie, Melling, Sarah, Preston, Stephen, Slawson, Nicola, Stoddard, Emma, Warden, Scott, Combes, Edward, Joefield, Teishel, Monnery, Sonja, Beech, Valerie, Trotman, Sallyanne, Hopkins, Bridget, Scriven, James, Thrasyvoulou, Laura, Willis, Heather, Anderson, Susan, Birch, Janine, Collins, Emma, Hammerton, Kate, O��Leary, Ryan, Abernathy, Caroline, Foster, Louise, Gratrix, Andrew, Martinson, Vicky, Parkinson, Priyai, Stones, Elizabeth, Carbral-Ortega, Llucia, Kapoor, Ritoo, Loader, David, Castle, Karen, Brandwood, Craig, Smith, Lara, Clark, Richard, Birchall, Katie, Kolakaluri, Laurel, Baines, Deborah, Sukumaran, Anila, Mapfunde, Isheunesu, Meredith, Megan, Morris, Lucy, Ryan, Lucy, Clark, Amy, Sampson, Julia, Peters, Cecilia, Dent, Martin, Langley, Margaret, Ashraf, Saima, Wei, Shuying, Andrew, Angela, Chablani, Manish, Kirkby, Amy, Netherton, Kimberley, Bates, Michelle, Dasgin, Jo, Gill, Jaspret, Nilsson, Annette, Apetri, Elena, Basikolo, Cathrine, Blackledge, Bethan, Catlow, Laura, Charles, Bethan, Doonan, Reece, Harris, Jade, Harvey, Alice, Horner, Daniel, Knowles, Karen, Lee, Stephanie, Lomas, Diane, Lyons, Chloe, Marsden, Tracy, McLaughlan, Danielle, McMorrow, Liam, Pendlebury, Jessica, Perez, Jane, Poulaka, Maria, Proudfoot, Nicola, Slaughter, Melanie, Slevin, Kathryn, Thomas, Vicky, Walker, Danielle, Michael, Angiy, Collis, Matthew, Clark, Martyn, Coulding, Martina, Jude, Edward, McCormick, Jacqueline, Mercer, Oliver, Potla, Darsh, Rehman, Hafiz, Savill, Heather, Turner, Victoria, Davey, Miriam, Golden, David, Seaman, Rebecca, Hunt, Jodie, Dearden, Joy, Dobson, Emma, Mulcahy, Michelle, Munt, Sheila, O��Connor, Grainne, Philbin, Jennifer, Rishton, Chloe, Tully, Redmond, Winnard, Sarah, Cagova, Lenka, Fofano, Adama, Garner, Lucie, Holcombe, Helen, Mepham, Sue, Mitchell, Alice Michael, Mwaura, Lucy, Praman, K., Vuylsteke, Alain, Zamikula, Julie, Bercades, Georgia, Brealey, David, Hass, Ingrid, MacCallum, Niall, Martir, Gladys, Raith, Eamon, Reyes, Anna, Smyth, Deborah, Taylor, Abigail, Hughes, Rachel Anne, Thomas, Helen, Rees, Alun, Duskova, Michaela, Phipps, Janet, Brooks, Suzanne, Edwards, Michelle, Alexander, Peter, Allen, Schvearn, Bradley-Potts, Joanne, Brantwood, Craig, Egan, Jasmine, Felton, Timothy, Padden, Grace, Ward, Luke, Moss, Stuart, Glasgow, Susannah, Beesley, Kate, Board, Sarah, Kubisz-Pudelko, Agnieszka, Lewis, Alison, Perry, Jess, Pippard, Lucy, Wood, Di, Buckley, Clare, Brown, Alison, Gregory, Jane, O��Connell, Susan, Smith, Tim, Belagodu, Zakaula, Fuller, Bridget, Gherman, Anca, Olufuwa, Olumide, Paramsothy, Remi, Stuart, Carmel, Oakley, Naomi, Kamundi, Charlotte, Tyl, David, Collins, Katy, Silva, Pedro, Taylor, June, King, Laura, Coates, Charlotte, Crowley, Maria, Wakefield, Phillipa, Beadle, Jane, Johnson, Laura, Sargeant, Janet, Anderson, Madeleine, Jardine, Catherine, Williams, Dewi, Parris, Victoria, Quaid, Sheena, Watson, Ekaterina, Melville, Julie, Naisbitt, Jay, Joseph, Rosane, Lazo, Maria, Walton, Olivia, Neal, Alan, Hill, Michaela, Kannan, Thogulava, Wild, Laura, Allan, Elizabeth, Darlington, Kate, Davies, Ffyon, Easton, Jack, Kumar, Sumit, Lean, Richard, Menzies, Daniel, Pugh, Richard, Qiu, Xinyi, Davies, Llinos, Williams, Hannah, Scanlon, Jeremy, Davies, Gwyneth, Mackay, Callum, Lewis, Joannne, Rees, Stephanie, Coetzee, Samantha, Gales, Alistair, Raj, Meena, Sell, Craig, Langton, Helen, Watters, Malcolm, Novis, Catherine, Arbane, Gill, Bociek, Aneta, Campos, Sara, Grau, Neus, Jones, Tim Owen, Lim, Rosario, Marotti, Martina, Whitton, Christopher, Barron, Anthony, Collins, Ciara, Kaul, Sundeep, Passmore, Heather, Prendergast, Claire, Reed, Anna, Rogers, Paula, Shokkar, Rajvinder, Woodruff, Meriel, Middleton, Hayley, Polgar, Oliver, Nolan, Claire, Thwaites, Vicky, Mahay, Kanta, Sri-Chandana, Chunda, Scherewode, Joslan, Stephenson, Lorraine, Marsh, Sarah, Bancroft, Hollie, Bellamy, Mary, Carmody, Margaret, Daglish, Jacqueline, Moore, Faye, Rhodes, Joanne, Sangombe, Mirriam, Kadiri, Salma, Ayers, Amanda, Harrison, Wendy, North, Julie, Cavazza, Anna, Cockrell, Maeve, Corcoran, Eleanor, Depante, Maria, Finney, Clare, Jerome, Ellen, McPhail, Mark, Nayak, Monalisa, Noble, Harriet, O��Reilly, Kevin, Pappa, Evita, Saha, Rohit, Saha, Sian, Smith, John, Knighton, Abigail, Gill, Mandy, Paul, Paul, Ratnam, Valli, Shelton, Sarah, Wynter, Inez, Baptista, David, Crowe, Rebecca, Fernandes, Rita, Herdman-Grant, Rosaleen, Joseph, Anna, Loveridge, Adam, McKenley, India, Morino, Eriko, Naranjo, Andres, Simms, Richard, Sollesta, Kathryn, Swain, Andrew, Venkatesh, Harish, Khera, Jacyntha, Fox, Jonathan, Barber, Russell, Hewitt, Claire, Hilldrith, Annette, Jackson-Lawrence, Karen, Shepardson, Sarah, Wills, Maryanne, Butler, Susan, Tavares, Silvia, Cunningham, Amy, Hindale, Julia, Arif, Sarwat, George, Linsha, Twiss, Sophie, Wright, David, Holland, Maureen, Keenan, Natalie, Lyons, Marc, Wassall, Helen, Marsh, Chris, Mahenthran, Mervin, Carter, Emma, Kong, Thomas, Adanini, Oluronke, Bhatia, Nikhil, Msiska, Maines, Mew, Louise, Mwaura, Esther, Williams, Felicity, Wren, Lynn, Sutherland, Sara-Beth, Battle, Ceri, Brinkworth, Elaine, Harford, Rachel, Murphy, Carl, Newey, Luke, Rees, Tabitha, Williams, Marie, Arnold, Sophie, Hardy, John, Houlden, Henry, Moncur, Eleanor, Tariq, Ambreen, Tucci, Arianna, Convery, Karen, Fottrell-Gould, Deirdre, Hudig, Lisa, Keshet-Price, Jocelyn, Randell, Georgina, Stammers, Katie, Abdelrazik, Marwa, Bakthavatsalam, Dhanalakshmi, Elhassan, Munzir, Ganesan, Arunkumar, Haldeos, Anne, Moreno-Cuesta, Jeronimo, Purohit, Dharam, Vincent, Rachel, Xavier, Kugan, Rohit, Kumar, Alasdair, Frater, Saleem, Malik, David, Carter, Jenkins, Samuel, Lamond, Zoe, Wall, Alanna, Reynolds, Jessica, Campbell, Helen, Thompsom, Maria, Dodds, Steve, Duffy, Stacey, Butcher, Deborah, O��Sullivan, Susie, Butterworth-Cowin, Nicola, Deacon, Bethan, Hibbert, Meg, Pothecary, Carla, Tetla, Dariusz, Woodford, Christopher, Durga, Latha, Kennard-Holden, Gareth, De Gordoa, Laura Ortiz-Ruiz, Peasgood, Emily, Phillips, Claire, Skinner, Denise, Gaylard, Jane, Mullan, Dee, Newman, Julie, Davies, Ellie, Roche, Lisa, Sathe, Sonia, Brimfield, Lutece, Daly, Zoe, Pogson, David, Rose, Steve, Collins, Amy, Khaliq, Waqas, Gude, Estefania Treus, Allen, Louise, Beranova, Eva, Crisp, Nikki, Deery, Joanne, Hazelton, Tracy, Knight, Alicia, Price, Carly, Tilbey, Sorrell, Turki, Salah, Turney, Sharon, Giles, Julian, Booth, Simon, Bell, Gillian, English, Katy, Katary, Amro, Wilcox, Louise, Campbell, Rachael, Clarke, Noreen, Whiteside, Jonathan, Mascarenhas, Mairi, Donaldson, Avril, Matheson, Joanna, Barrett, Fiona, O��Hara, Marianne, O��Keefe, Laura, Bradley, Clare, Collier, Dawn, Walker, Rachel, Maynard, Victoria, Patel, Tahera, Smith, Matthew, Kazi, Aayesha, Hartley, Janice, Dykes, Joseph, Hijazi, Muhammad, Keith, Sarah, Khan, Meherunnisa, Ryan-Smith, Janet, Springle, Philippa, Thomas, Jacqueline, Truman, Nick, Saad, Samuel, Coleman, Dabheoc, Fine, Christopher, Matt, Roseanna, Gay, Bethan, Dalziel, Jack, Ali, Syamlan, Goodchild, Drew, Harling, Rhiannan, Bhatterjee, Ravi, Goddard, Wendy, Davison, Chloe, Duberly, Stephen, Hargreaves, Jeanette, Bolton, Rachel, Verlander, Mark, Williams, Alexandra, Blackman, Helen, Creagh-Brown, Ben, Donlon, Sinead, Michalak-Glinska, Natalia, Mtuwa, Sheila, Pristopan, Veronika, Salberg, Armorel, Smith, Eleanor, Stone, Sarah, Piercy, Charles, Verula, Jerik, Burda, Dorota, Montaser, Rugia, Harden, Lesley, Mayangao, Irving, Marriott, Cheryl, Bradley, Paul, Harris, Celia, Cooper, Joshua, Finch, Cheryl, Liderth, Sarah, Quinn, Alison, Waddington, Natalia, Fidler, Katy, Tagliavini, Emma, Donnelly, Kevin, Abel, Lynn, Brett, Michael, Digby, Brian, Gemmell, Lisa, Hornsby, James, MacGoey, Patrick, O��Neil, Pauline, Price, Richard, Rodden, Natalie, Rooney, Kevin, Sundaram, Radha, Thomson, Nicola, Flanagan, Rebecca, Hughes, Gareth, Latham, Scott, McKenna, Emma, Anderson, Jennifer, Hull, Robert, Rhead, Kat, Branney, Debbie, Frankham, Jordan, Pitts, Sally, White, Nigel, Cristiano, Daniele, Dormand, Natalie, Farzad, Zohreh, Gummadi, Mahitha, Liyanage, Kamal, Patel, Brijesh V., Salmi, Sara, Sloane, Geraldine, Varghese, Mathew, Zborowski, Anelise C., Bean, Sarah, Burt, Karen, Spivey, Michael, Eastgate-Jackson, Christine, Filipe, Helder, Martin, Daniel, Maharajh, Amitaa, Garcia, Sara Mingo, De Neef, Mark, Lynch, Ceri, Howe, Gwenllian Sera, Singh, Jayaprakash, Turner, Keri, Ellis, Hannah, Stroud, Natalie, Cherian, Shiney, Cutler, Sean, Heron, Anne Emma, Roynon-Reed, Anna, Williams, Gemma, Richards, Owen, Cheema, Yusuf, Ahmad, Norfaizan, Barker, Joann, Bauchmuller, Kris, Bird, Sarah, Cawthron, Kay, Harrington, Kate, Jackson, Yvonne, Kibutu, Faith, Lenagh, Becky, Masuko, Shamiso, Raithatha, Ajay, Wiles, Matthew, Willson, Jayne, Newell, Helen, Lye, Alison, Nwafor, Lorenza, Jarman, Claire, Rowland-Jones, Sarah, Foote, David, Cole, Joby, Thompson, Roger, Watson, James, Hesseldon, Lisa, Macharia, Irene, Chetam, Luke, Smith, Jacqui, Ford, Amber, Anderson, Samantha, Birchall, Kathryn, Housley, Kay, Walker, Sara, Milner, Leanne, Hanratty, Helena, Trower, Helen, Phillips, Patrick, Oxspring, Simon, Donne, Ben, Bevan, Emily, Martin, Jane, Trodd, Dawn, Watson, Geoff, Brown, Caroline Wrey, Bunni, Lara, Jennings, Claire, Latif, Monica, Marshall, Rebecca, Subramanian, Gayathri, Bandla, Nageswar, Gellamucho, Minnie, Davies, Michelle, Thompson, Christopher, Trim, Fiona, Eapen, Beena, Ahmed, Cecilia, Baines, Balvinder, Clamp, Sarah, Colley, Julie, Haq, Risna, Hayes, Anne, Hulme, Jonathan, Hussain, Samia, Joseph, Sibet, Kumar, Rita, Maqsood, Zahira, Purewal, Manjit, Chandler, Ben, Elliott, Kerry, Mallinson, Janine, Turnbull, Alison, Dent, Kathy, Horsley, Elizabeth, Akhtar, Muhmmad Nauman, Pearson, Sandra, Potoczna, Dorota, Spencer, Sue, Blakemore, Hayley, Borislavova, Borislava, Faulkner, Beverley, Gendall, Emma, Goff, Elizabeth, Hayes, Kati, Thomas, Matt, Worner, Ruth, Smith, Kerry, Stephens, Deanna, Delgado, Carlos Castro, Dawson, Deborah, Ding, Lijun, Durrant, Georgia, Ezeobu, Obiageri, Farnell-Ward, Sarah, Harrison, Abiola, Kanu, Rebecca, Leaver, Susannah, Maccacari, Elena, Manna, Soumendu, Saluzzio, Romina Pepermans, Queiroz, Joana, Samakomva, Tinashe, Sicat, Christine, Texeira, Joana, Da Gloria, Edna Fernandes, Lisboa, Ana, Rawlins, John, Mathew, Jisha, Kinch, Ashley, Hurt, William James, Shah, Nirav, Clark, Victoria, Thanasi, Maria, Yun, Nikki, Patel, Kamal, Crickmore, Vikki, Debreceni, Gabor, Wilkins, Joy, Nicol, Liz, Burn, Iona, Hambrook, Geraldine, Manso, Katarina, Penn, Ruth, Shanmugasundaram, Pradeep, Tebbutt, Julie, Thornton, Danielle, Rostron, Anthony, Roy, Alistair, Woods, Lindsey, Cornell, Sarah, Wakinshaw, Fiona, Rogerson, Kimberley, Jarmain, Jordan, Anderson, Peter, Archer, Katie, Austin, Karen, Davis, Caroline, Durie, Alison, Kelsall, Olivia, Thrush, Jessica, Vigurs, Charlie, Wood, Hannah-Louise, Tranter, Helen, Harrison, Alison, Cowley, Nicholas, McAlindon, Michael, Digby, Stephen, Low, Emma, Morgan, Aled, Cother, Naiara, Rankin, Tobias, Clayton, Sarah, McCurdy, Alex, Allibone, Suzanne, Mary-Genetu, Roman, Patel, Amit, Mac, Ainhi, Murphy, Anthony, Mahjoob, Parisa, Nazari, Roonak, Worsley, Lucy, Fagan, Andrew, Mohamed Ali, Inthakab Ali, Beaumont, Karen, Blunt, Mark, Coton, Zoe, Curgenven, Hollie, Elsaadany, Mohamed, Fernandes, Kay, Ally, Sameena Mohamed, Rangarajan, Harini, Sarathy, Varun, Selvanayagam, Sivarupan, Vedage, Dave, White, Matthew, Fernandez-Roman, Jaime, Hamilton, David O., Johnson, Emily, Johnston, Brian, Martinez, Maria Lopez, Mulla, Suleman, Shaw, David, Waite, Alicia A. C., Waugh, Victoria, Welters, Ingeborg D., Williams, Karen, Bemand, Thomas, Black, Ethel, Rosa, Arnold Dela, Howle, Ryan, Jhanji, Shaman, Baikady, Ravishankar Rao, Tatham, Kate Colette, Thomas, Benjamin, Halkes, Matthew, Mercer, Pauline, Thornton, Lorraine, West, Joe, Baird, Tracy, Ruddy, Jim, Reece-Anthony, Rosie, Birt, Mark, Cowton, Amanda, Kay, Andrea, Kent, Melanie, Potts, Kathryn, Wilkinson, Ami, Naylor, Suzanne, Brown, Ellen, Clark, Michele, Purvis, Sarah, Cole, Jade, Davies, Rhys, Duffin, Donna, Hill, Helen, Player, Ben, Thomas, Emma, Williams, Angharad, Beith, Claire Marie, Black, Karen, Clements, Suzanne, Morrison, Alan, Strachan, Dominic, Taylor, Margaret, Clarkson, Michelle, D��Sylva, Stuart, Norman, Kathryn, Coventry, Tina, Fowler, Susan, McGregor, Amanda, Brady, Ailbhe, Chan, Rebekah, McIvor, Shane, Prady, Helena, Whittle, Helen, Mathew, Bijoy, Clapham, Melanie, Harper, Rosemary, Poultney, Una, Rice, Polly, Mutch, Rachel, Baird, Yolanda, Butler, Aaron, Chadbourn, Indra, Folkes, Linda, Fox, Heather, Gardner, Amy, Gomez, Raquel, Hobden, Gillian, King, Kirsten, Margarson, Michael, Martindale, Tim, Meadows, Emma, Raynard, Dana, Thirlwall, Yvette, Helm, David, Margalef, Jordi, Greer, Sandra, Shuker, Karen, Smuts, Sara, Duffield, Joseph, Smith, Oliver, Mallon, Lewis, Claire, Watkins, Birkinshaw, Isobel, Carter, Joseph, Howard, Kate, Ingham, Joanne, Joy, Rosie, Pearson, Harriet, Roche, Samantha, Scott, Zoe, Knights, Ellen, Price, Alicia, Thomas, Alice, Thorpe, Chris, Abraheem, Azmerelda, Bamford, Peter, Cawley, Kathryn, Dunmore, Charlie, Faulkner, Maria, Girach, Rumanah, Jeffrey, Helen, Jones, Rhianna, London, Emily, Nagra, Imrun, Nasir, Farah, Sainsbury, Hannah, Smedley, Clare, Khade, Reena, Sundar, Ashok, Tsinaslanidis, George, Behan, Teresa, Burnett, Caroline, Hatton, Jonathan, Heeney, Elaine, Mitra, Atideb, Newton, Maria, Pollard, Rachel, Stead, Rachael, Birch, Jenny, Bough, Laura, Goodsell, Josie, Tutton, Rebecca, Williams, Patricia, Williams, Sarah, Winter-Goodwin, Barbara, Auld, Fiona, Donnachie, Joanne, Edmond, Ian, Prentice, Lynn, Runciman, Nikole, Salutous, Dario, Symon, Lesley, Todd, Anne, Turner, Patricia, Short, Abigail, Sweeney, Laura, Murdoch, Euan, Senaratne, Dhaneesha, Burns, Karen, Higham, Andrew, Anderson, Taya, Hawcutt, Dan, O��Malley, Laura, Rad, Laura, Rogers, Naomi, Saunderson, Paula, Allison, Kathryn Sian, Afolabi, Deborah, Whitbread, Jennifer, Jones, Dawn, Dore, Rachael, Lankester, Liana, Nikitas, Nikitas, Wells, Colin, Stowe, Bethan, Spencer, Kayleigh, Cathcart, Susanne, Duffy, Katharine, Puxty, Alex, Puxty, Kathryn, Turner, Lynne, Ireland, Jane, Semple, Gary, Barry, Peter, Hilltout, Paula, Evitts, Jayne, Tyler, Amanda, Waldron, Joanne, Irvine, Val, Shelley, Benjamin, Akinkugbe, Olugbenga, Bamford, Alasdair, Beech, Emily, Belfield, Holly, Bell, Michael, Davies, Charlene, Jones, Gareth A. L., McHugh, Tara, Meghari, Hamza, O��Neill, Lauran, Peters, Mark J., Ray, Samiran, Tomas, Ana Luisa, Gorman, Claire, Gupta, Abhinav, Timlick, Elizabeth, Brady, Rebecca, Bonner, Stephen, Hugill, Keith, Jones, Jessica, Liggett, Steven, Bashyal, Archana, Davidson, Neil, Hutton, Paula, McKechnie, Stuart, Wilson, Jean, Flint, Neil, Rekha, Patel, Hales, Dawn, Cruz, Carina, Gopal, Shameer, Harris, Nichola, Lake, Victoria, Metherell, Stella, Radford, Elizabeth, Clement, Ian, Patel, Bijal, Gulati, A., Hays, Carole, Webster, K., Hudson, Anne, Webster, Andrea, Stephenson, Elaine, McCormack, Louise, Slater, Victoria, Nixon, Rachel, Hanson, Helen, Fearby, Maggie, Kelly, Sinead, Bridgett, Victoria, Robinson, Philip, Almaden-Boyle, Christine, Austin, Pauline, Cabrelli, Louise, Cole, Stephen, Casey, Matt, Chapman, Susan, Whyte, Clare, Brayne, Adam, Fisher, Emma, Hunt, Jane, Jackson, Peter, Kaye, Duncan, Love, Nicholas, Parkin, Juliet, Tuckey, Victoria, Van Koutrik, Lynne, Carter, Sasha, Andrew, Benedict, Findlay, Louise, Adams, Katie, Bruce, Michelle, Connolly, Karen, Duncan, Tracy, T.-Michael, Helen, Lindergard, Gabriella, Hey, Samuel, Fox, Claire, Alfonso, Jordan, Durrans, Laura Jayne, Guerin, Jacinta, Hruska, Martin, Eltayeb, Ayaa, Lamb, Thomas, Hodgkiss, Tracey, Cooper, Lisa, Rothwell, Joanne, Dennis, Catherine, McGregor, Alastair, Srikaran, Sinduya, Sukha, Anisha, Davies, Kim, O��Brien, Linda, Omar, Zohra, Perkins, Emma, Lewis, Tracy, Sutherland, Isobel, Brooke, Hollie, Buckley, Sarah, Suarez, Jose Cebrian, Charlesworth, Ruth, Hansson, Karen, Norris, John, Poole, Alice, Rose, Alastair, Sandhu, Rajdeep, Sloan, Brendan, Smithson, Elizabeth, Thirumaran, Muthu, Wagstaff, Veronica, Metcalfe, Alexandra, Camsooksai, Julie, Humphrey, Charlotte, Jenkins, Sarah, Wadams, Beverley, DeAth, Yasmin, Adams, Colene, Agasou, Anita, Arden, Tracie, Bowes, Amy, Boyle, Pauline, Beekes, Mandy, Button, Heather, Capps, Nigel, Carnahan, Mandy, Carter, Anne, Childs, Danielle, Donaldson, Denise, Hard, Kelly, Hurford, Fran, Hussain, Yasmin, Javaid, Ayesha, Jones, James, Jose, Sanal, Leigh, Michael, Martin, Terry, Millward, Helen, Motherwell, Nichola, Rikunenko, Rachel, Stickley, Jo, Summers, Julie, Ting, Louise, Tivenan, Helen, Tonks, Louise, Wilcox, Rebecca, Bokhari, Maria, Lucas, Rachael, McCormick, Wendy, Ritzema, Jenny, Sanderson, Amanda, Wild, Helen, Baxter, Nicola, Henderson, Steven, Kennedy-Hay, Sophie, McParland, Christopher, Rooney, Laura, Sim, Malcolm, McCreath, Gordan, Brunton, Mark, Caterson, Jess, Coles, Holly, Frise, Matthew, Rai, Sabi Gurung, Jacques, Nicola, Keating, Liza, Tilney, Emma, Bartley, Shauna, Bhuie, Parminder, Downes, Charlotte, Holding, Kathleen, Riches, Katie, Hilton, Mary, Hayman, Mel, Subramanian, Deepak, Daniel, Priya, Zitter, Letizia, Benyon, Sarah, Marriott, Suzie, Park, Linda, Keenan, Samantha, Gordon, Elizabeth, Quinn, Helen, Baines, Kizzy, Andrew, Gillian, Barclay, Lucy, Callaghan, Marie, Clark, Sarah, Hope, Dave, Marshall, Lucy, McCulloch, Corrienne, Briton, Kate, Singleton, Jo, Birch, Sophie, Simpson, Kerry, Craig, Jayne, Demetriou, Carrie, Eckbad, Charlotte, Hierons, Sarah, Howie, Lucy, Mitchard, Sarah, Ramos, Lidia, Serrano-Ruiz, Alfredo, White, Katie, Kelly, Fiona, Amin, Vishal, Anastasescu, Elena, Anumakonda, Vikram, Karthik, Komala, Kausar, Rizwana, Reid, Karen, Smith, Jacqueline, Imeson-Wood, Janet, Bellini, Arianna, Bryant, Jade, Mayer, Anton, Pickard, Amy, Roe, Nicholas, Sowter, Jason, Howlett, Alex, Criste, Kristine, Cusack, Rebecca, Golder, Kim, Golding, Hannah, Jones, Oliver, Leggett, Samantha, Male, Michelle, Marani, Martyna, Prager, Kirsty, Williams, Toran, Roberts, Belinda, Salmon, Karen, Gondo, Prisca, Hadebe, B., Kayani, Abdul, Masunda, Bridgett, Ahmed, Ashar, Morris, Anna, Jakkula, Srinivas, Long, Kate, Whiteley, Simon, Wilby, Elizabeth, Ogg, Bethan, Moultrie, Sam, Odam, M., Bewley, Jeremy, Garland, Zoe, Grimmer, Lisa, Gumbrill, Bethany, Johnson, Rebekah, Sweet, Katie, Webster, Denise, Efford, Georgia, Bennett, Sara, Goodwin, Emma, Jackson, Matthew, Kent, Alissa, Tibke, Clare, Woodyatt, Wiesia, Zaki, Ahmed, Daniel, Amelia, Finn, Joanne, Saha, Rajnish, Bremmer, Pamela, Allan, J., Geary, T., Houston, Gordon, Meikle, A., O��Brien, P., Bell, Dina, Boyle, Rosalind, Douglas, Katie, Glass, Lynn, Lee, Emma, Lennon, Liz, Rattray, Austin, Charnock, Rob, McFarland, Denise, Cosgrove, Denise, Attwood, Ben, Parsons, Penny, Carmody, Siobhain, Oblak, Metod, Popescu, Monica, Thankachen, Mini, Baruah, Rosie, Morris, Sheila, Ferguson, Susie, Shepherd, Amy, Altabaibeh, Abdelhakim, Alvaro, Ana, Gilbert, Kayleigh, Ma, Louise, Mostoles, Loreta, Parmar, Chetan, Simpson, Kathryn, Jetha, Champa, Booker, Lauren, Pratley, Anezka, Cosier, Tracey, Millen, Gemma, Schumacher, Natasha, Weston, Heather, Rand, James, Alex, Beatrice, Bach, Benjamin, Barclay, Wendy S., Bogaert, Debby, Chand, Meera, Cooke, Graham S., Docherty, Annemarie B., Dunning, Jake, Da Silva Filipe, Ana, Fletcher, Tom, Green, Christoper A., Harrison, Ewen M., Hiscox, Julian A., Ijaz, Samreen, Khoo, Saye, Lim, Wei Shen, Mentzer, Alexander J., Merson, Laura, Noursadeghi, Mahdad, Moore, Shona C., Palmarini, Massimo, Paxton, William A., Pollakis, Georgios, Price, Nicholas, Rambaut, Andrew, Robertson, David L., Sancho-Shimizu, Vanessa, Scott, Janet T., De Silva, Thushan, Sigfrid, Louise, Solomon, Tom, Sriskandan, Shiranee, Stuart, David, Tedder, Richard S., Thomson, Emma C., Roger Thompson, A. A., Thwaites, Ryan S., Turtle, Lance C. W., Gupta, Rishi K., Palmieri, Carlo, Swann, Olivia V., Zambon, Maria, Dumas, Marc-Emmanuel, Griffin, Julian L., Takats, Zoltan, Chechi, Kanta, Andrikopoulos, Petros, Osagie, Anthonia, Olanipekun, Michael, Liggi, Sonia, Lewis, Matthew R., Correia, Gon��alo Dos Santos, Sands, Caroline J., Takis, Panteleimon, Maslen, Lynn, Greenhalf, William, Shaw, Victoria, McDonald, Sarah E., Keating, Se��n, Ahmed, Katie A., Armstrong, Jane A., Ashworth, Milton, Asiimwe, Innocent G., Bakshi, Siddharth, Barlow, Samantha L., Booth, Laura, Brennan, Benjamin, Bullock, Katie, Catterall, Benjamin W. A., Clark, Jordan J., Clarke, Emily A., Cooper, Louise, Cox, Helen, Davis, Christopher, Dincarslan, Oslem, Dunn, Chris, Dyer, Philip, Elliott, Angela, Evans, Anthony, Finch, Lorna, Fisher, Lewis W. S., Foster, Terry, Garcia-Dorival, Isabel, Gunning, Philip, Hartley, Catherine, Jensen, Rebecca L., Jones, Christopher B., Jones, Trevor R., Khandaker, Shadia, King, Katharine, Kiy, Robyn T., Koukorava, Chrysa, Lake, Annette, Lant, Suzannah, Latawiec, Diane, Lavelle-Langham, Lara, Lefteri, Daniella, Lett, Lauren, Livoti, Lucia A., Mancini, Maria, McDonald, Sarah, McEvoy, Laurence, McLauchlan, John, Metelmann, Soeren, Miah, Nahida S., Middleton, Joanna, Mitchell, Joyce, Murphy, Ellen G., Penrice-Randal, Rebekah, Pilgrim, Jack, Prince, Tessa, Reynolds, Will, Ridley, P. Matthew, Sales, Debby, Shaw, Victoria E., Shears, Rebecca K., Small, Benjamin, Subramaniam, Krishanthi S., Szemiel, Agnieska, Taggart, Aislynn, Tanianis-Hughes, Jolanta, Thomas, Jordan, Trochu, Erwan, Van Tonder, Libby, Wilcock, Eve, Zhang, J. Eunice, Flaherty, Lisa, Maziere, Nicole, Cass, Emily, Carracedo, Alejandra Doce, Carlucci, Nicola, Holmes, Anthony, Massey, Hannah, Murphy, Lee, Wrobel, Nicola, McCafferty, Sarah, Morrice, Kirstie, MacLean, Alan, Armstrong, Ruth, Boz, Ceilia, Brown, Adam, Coutts, Audrey, Cullum, Louise, Day, Nicky, Donnelly, Lorna, Duncan, Esther, Fawkes, Angie, Finernan, Paul, Gilchrist, Tammy, Golightly, Ailsa, Hafezi, Katarzyna, Law, Dawn, Law, Rachel, Law, Sarah, Macgillivray, Louise, Maclean, Alan, Mal, Hanning, Mcmaster, Ellie, Meikle, Jen, Oosthuyzen, Wilna, Paterson, Trevor, Stenhouse, Andrew, Swets, Maaike, Szoor-McElhinney, Helen, Taneski, Filip, Wackett, Tony, Ward, Mairi, Weaver, Jane, Coyle, Judy, Gallagher, Bernadette, Lidstone-Scott, Rebecca, Hamilton, Debbie, Schon, Katherine, Furlong, Anita, Biggs, Heather, Griffiths, Fiona, Andrews, Eleanor, Brickell, Kathy, Smyth, Michelle, Murphy, Lorna, Carson, Gail, Hardwick, Hayley, and Donohue, Chloe
Subjects: 631/208, 692/699/255/2514, 631/208/205/2138, 45/43, article, 631/326/596/4130, 3. Good health
Abstract: The genetic make-up of an individual contributes to the susceptibility and response to viral infection. Although environmental, clinical and social factors have a role in the chance of exposure to SARS-CoV-2 and the severity of COVID-191, 2, host genetics may also be important. Identifying host-specific genetic factors may reveal biological mechanisms of therapeutic relevance and clarify causal relationships of modifiable environmental risk factors for SARS-CoV-2 infection and outcomes. We formed a global network of researchers to investigate the role of human genetics in SARS-CoV-2 infection and COVID-19 severity. Here we describe the results of three genome-wide association meta-analyses that consist of up to 49,562 patients with COVID-19 from 46 studies across 19 countries. We report 13 genome-wide significant loci that are associated with SARS-CoV-2 infection or severe manifestations of COVID-19. Several of these loci correspond to previously documented associations to lung or autoimmune and inflammatory diseases3��7. They also represent potentially actionable mechanisms in response to infection. Mendelian randomization analyses support a causal role for smoking and body-mass index for severe COVID-19 although not for type II diabetes. The identification of novel host genetic factors associated with COVID-19 was made possible by the community of human genetics researchers coming together to prioritize the sharing of data, results, resources and analytical frameworks. This working model of international collaboration underscores what is possible for future genetic discoveries in emerging pandemics, or indeed for any complex human disease.

30. Numerical analysis of composite slab behavior. An alternative to full scale testing

Author: Crisinel, M., Daniels, B., and Ren, P.
Subjects: 275/ICOM

31. Non linear analysis of composite members. A new version of the program Compcal: theory, userguide and comparisons

Author: Ren, P. and Crisinel, M.
Subjects: 280/ICOM

32. Comparison between theoretical model Compcal and test results

Author: Ren, P., Couchman, G. H., and Crisinel, M.
Subjects: 286/ICOM

33. Analyse des poutres et dalles mixtes au moyen d'un modèle numérique et comparaison avec des résultats d'essais

Author: Ren, P., Couchman, G., and Crisinel, M.
Subjects: 291/ICOM

34. Practical design method for semi-rigid composite connections

Author: Crisinel, M., Ren, P., and Carretero, A.
Subjects: 343/ICOM

35. The lymphatic territories of the upper limb

Author: Hiroo Suami, Taylor, G. I., and Wei-Ren, P.

36. Sequence pattern controlled by structural evolution of Jiannan buried-hill in Huanghua depression

Author: Huang, C. -Y, Wang, H., Zhou, L. -H, Liao, Y. -T, Ren, P. -G, and SI CHEN

37. Physical Review Letters

Author: Gonzalez-Arraga L.A., Lado J.L., Guinea F., San-Jose P., Gonzalez-Arraga Luis A. 1 Lado J.?L. 2 Guinea Francisco 1,3 San-Jose Pablo 4 1 IMDEA Nanociencia , Calle de Faraday, 9, Cantoblanco, 28049 Madrid, Spain QuantaLab, 2 International Iberian Nanotechnology Laboratory (INL) , Avenida Mestre Jose Veiga, 4715-330 Braga, Portugal School of Physics and Astronomy, 3 University of Manchester , Oxford Road, Manchester M13 9PL, United Kingdom 4 Instituto de Ciencia de Materiales de Madrid (ICMM-CSIC) , Cantoblanco, 28049 Madrid, Spain 5 September 2017 8 September 2017 119 10 107201 27 March 2017 6 July 2017 © 2017 American Physical Society 2017 American Physical Society Twisted graphene bilayers develop highly localized states around A A -stacked regions for small twist angles. We show that interaction effects may induce either an antiferromagnetic or a ferromagnetic (FM) polarization of said regions, depending on the electrical bias between layers. Remarkably, FM-polarized A A regions under bias develop spiral magnetic ordering, with a relative 120° misalignment between neighboring regions due to a frustrated antiferromagnetic exchange. This remarkable spiral magnetism emerges naturally without the need of spin-orbit coupling, and competes with the more conventional lattice-antiferromagnetic instability, which interestingly develops at smaller bias under weaker interactions than in monolayer graphene, due to Fermi velocity suppression. This rich and electrically controllable magnetism could turn twisted bilayer graphene into an ideal system to study frustrated magnetism in two dimensions. Marie-Curie-ITN 607904-SPINOGRAPH Ministerio de Economía y Competitividad http://dx.doi.org/10.13039/501100003329 Ministry of Economy and Competitiveness MINECO http://sws.geonames.org/2510769/ FIS2015-65706-P Ramon y Cajal RYC-2013-14645 Magnetism in 2D electronic systems is known to present a very different phenomenology from its three-dimensional counterpart due to the reduced dimensionality and the increased importance of fluctuations. Striking examples are the impossibility of establishing long range magnetic order in a 2D system without magnetic anisotropy [1] or the emergence of unique finite-temperature phase transitions that are controlled by the proliferation of topological magnetic defects [2] . In the presence of magnetic frustration, in, e.g., Kagome [3,4] or triangular lattices [5–8] , 2D magnetism may also lead to the formation of remarkable quantum spin-liquid phases [3,9,10] . The properties of these states remain under active investigation, and have recently been shown to develop exotic properties, such as fractionalized excitations [11] , long-range quantum entanglement of their ground state [12,13] , topologically protected transport channels [14] , or even high- T C superconductivity upon doping [4,15,16] . The importance of 2D magnetism extends also beyond fundamental physics into applied fields. One notable example is data storage technologies. Recent advances in this field are putting great pressure on the magnetic memory industry to develop solutions that may remain competitive in speed and data densities against new emerging platforms. Magnetic 2D materials are thus in demand as a possible way forward [17] . Of particular interest for applications in general are 2D crystals and van der Waals heterostructures. These materials have already demonstrated a great potential for a wide variety of applications, most notably nanoelectronics and optoelectronics [18–20] . Some of them have been shown to exhibit considerable tunability through doping, gating, stacking, and strain. Unfortunately, very few 2D crystals have been found to exhibit intrinsic magnetism [21,22] , let alone magnetic frustration and potential spin-liquid phases. In this work we predict that twisted graphene bilayers could be a notable exception, realizing a peculiar magnetism on an effective triangular superlattice, and with exchange interactions that may be tuned by an external electric bias. We show that, at a mean-field level, spontaneous magnetization of two different types may develop for small enough twist angles ? ? 2 ° as a consequence of the moiré pattern in the system. This effect is a consequence of the high local density of states generated close to neutrality at moiré regions with A A stacking, triggering a Stoner instability when electrons interact. The local order is localized at A A regions but may be either antiferromagnetic (AFM) or ferromagnetic (FM). The two magnetic orders can be switched electrically by applying a voltage bias between layers. Interestingly, the relative ordering between different A A regions in the FM ground state is predicted to be spiral, despite the system possessing negligible spin-orbit coupling. This type of magnetism combines a set of unique features: electric tunability, magnetic frustration, the interplay of two switchable magnetic phases with zero net magnetization, spatial localization of magnetic moments, and an adjustable period of the magnetic superlattice. Finally, we show that our mean-field treatment allows us to cast the system into an effective spin Hamiltonian that could be tackled beyond the mean-field level to evaluate the effects of spin fluctuations. The type of frustrated spin Hamiltonian obtained suggests that twisted graphene bilayers should be a prime playground for studies of spin-liquid phases. We discuss some of these possibilities in our concluding remarks. Description of the system.— Twisted graphene bilayers are characterized by a relative rotation angle ? between the two layers [23] . The rotation produces a modulation of the relative stacking at each point, following a moiré pattern of period L M ? a 0 / ? at small ? , where a 0 = 0.24 ? ? nm is graphene’s lattice constant [24] . The stacking smoothly interpolates between three basic types, A A (perfect local alignment of the two lattices), and A B or B A (Bernal stackings related by point inversion) [25] . The stacking modulation leads to a spatially varying coupling between layers. This results in a remarkable electronic reconstruction [26,27] , particularly at small angles ? ? 1 ° – 2 ° [28,29] , for which the interlayer coupling ? 1 ? 0.3 ? ? eV exceeds the moiré energy scale ? M = ? v F ? K [here, ? K = 4 ? / ( 3 L M ) is the rotation-induced wave vector shift between the Dirac points in the two layers, and v F ? 10 6 ? ? m / s is the monolayer Fermi velocity]. It was shown [24,29–33] that in such a regime the Fermi velocity of the bilayer becomes strongly suppressed, and the local density of states close to neutrality becomes dominated by quasilocalized states in the A A regions [28] . The confinement of these states is further enhanced by an interlayer bias V b , which effectively depletes the A B and B A regions due to the opening of a local gap [34,35] . At sufficiently small angles this was also shown to result in the formation of a network of helical valley currents flowing along the boundaries of depleted A B and B A regions [36] . The quasilocalized A A states form a weakly coupled triangular superlattice of period L M , analogous to a network of quantum dots. Each A A 'dot' has space for eight degenerate electrons, due to the sublattice, layer, and spin degrees of freedom. A plot of their spatial distribution under zero and large bias V b = 300 ? ? meV is shown in Figs. 1(a) and 1(b) , respectively. These A A states form an almost flat band at zero energy [37] , see Figs. 1(c) and 1(d) , which gives rise to a zero-energy peak in the DOS. The small but finite width of this zero-energy A A resonance represents the residual coupling between adjacent A A dots due to their finite overlap. A comparison of Figs. 1(a) and 1(b) shows that a finite interlayer bias leads to a suppression of said overlap and a depletion of the intervening A B and B A regions, as described above. The electronic structure presented here was computed using the tight-binding approach described in the Supplemental Material [38] , which includes a scaling approximation that allows the accurate and efficient computation of the low-energy band structure in low-angle twisted bilayers [compare the solid and dashed curves in Figs 1(c) and 1(d) ]. Our scaling approach makes the problem much more tractable computationally, which is a considerable advantage when dealing with the interaction effects, discussed below. 1 10.1103/PhysRevLett.119.107201.f1 FIG. 1. Zero-energy local density of states in real space (a),(b), band structure (c),(d), and density of states (e),(f) for a ? = 1.5 ° twisted graphene bilayer. The left column has no interlayer bias, and the right column has a bias V b = 300 ? ? meV . This enhances the localization of the A A quasibound states, red in (a) and (b). The said states arise from almost flat subbands at zero energy, which show up as large DOS peaks in (e) and (f). The solid (dashed) lines in (c) and (d) correspond to a scaled (unscaled) tight-binding model, see the main text. Moiré-induced magnetism.— It is known that in the presence of sufficiently strong electronic interactions, a honeycomb tight-binding lattice may develop a variety of ground states with spontaneously broken symmetry [42–46] . The simplest one is the lattice antiferromagnetic phase in the honeycomb Hubbard model. The Hubbard model is a simple description relevant to monolayer graphene with strongly screened interactions (the screening may arise intrinsically at high doping or, e.g., due to a metallic environment). Above a critical value of the Hubbard coupling, U > U c ( 0 ) ? 5.7 ? ? eV (value within the mean-field), the system favors a ground state in which the two sublattices are spin polarized antiferromagnetically. This is known as lattice-AFM (or Néel) order. In the absence of adsorbates [47] , edges [48] , vacancies [49] , or magnetic flux [50] isolated graphene monolayers, with their vanishing density of states at low energies, are known experimentally not to suffer any interaction-induced magnetic instability. In contrast, Bernal ( ? = 0 ) bilayer graphene and A B C trilayer graphene have been suggested [51–54] to develop magnetic order, due to their finite low-energy density of states, although some controversy remains [55–60] . Twisted graphene bilayers at small angles exhibit an even stronger enhancement of the low-energy density of states associated with A A confinement and the formation of quasiflat bands. It is thus natural to expect some form of interaction-induced instability in this system with realistic interactions, despite the lack of magnetism in the monolayer [61] . By analyzing the Hubbard model in twisted bilayers we now explore this possibility, and describe the different magnetic orders that emerge in the U , V b parameter space. We consider the Hubbard model in a low angle ? ? 1.5 ° twisted bilayer for a moderate [62] value of U = 3.7 , quite below the monolayer lattice-AFM critical interaction U c ( 0 ) . We use a self-consistent mean-field approximation to compute the system’s ground state, and use the same parameters of Fig. 1 . Self-consistency involves the iterative computation of charge and spin density on the moiré supercell, integrated over Bloch momenta, see the Supplemental Material [38] for details. Since U is repulsive we neglect superconducting symmetry breaking, and concentrate on arbitrary normal solutions instead [63] . In Fig. 2 we show the resulting real-space distribution of the ground-state spin polarization M ( r ? ) of the converged solution. The top and bottom rows correspond, respectively, to the lattice-FM and lattice-AFM components M A + M B and M A - M B , where the polarization density is defined as M ? = ? ? ? n ? ? ? ( r ? ) - n ? ? ? ( r ? ) ? . Here, ? = A , B are the two sublattices and ? = ± are the two layers. 2 10.1103/PhysRevLett.119.107201.f2 FIG. 2. Spatial distribution of the magnetic moment in the ground state of an interacting twisted bilayer with Hubbard U = 3.7 ? ? eV . In the first row (a),(b) we show the ferromagnetic component of the two sublattices, M A + M B , in units of electrons per (monolayer) unit cell, both for zero interlayer bias V b = 0 (a) and V b = 200 ? ? meV (b). Analogous plots of the lattice-AFM component M A - M B are shown in (c) and (d). The scale in all color bars is expressed in units of one electron spins per supercell. Panels (e) and (f) show the variation of the total electronic energy per supercell as a function of the angle ? M between polarizations of adjacent A A regions, indicating parallel alignment of the lattice-AFM order (e), and a spiral misalignment of 120° for the lattice-FM case (f). We obtain two distinct solutions for the magnetization, depending on the interlayer bias V b . At small interlayer bias and for the chosen U = 3.7 ? ? eV we see that the ferromagnetic polarization [Fig. 2(a) ] is small and collinear, and spatially integrates to zero. Thus, the unbiased bilayer remains nonferromagnetic in the small V b case. However, the lattice-AFM component of the polarization, Fig. 2(c) , is large and integrates to a nonzero value of around 0.5 electron spins per unit cell. This is the analogue of the monolayer lattice-AFM phase, with two important differences. On the one hand, we find that the lattice-AFM density is strongly concentrated at the A A regions instead of being spatially uniform like in the monolayer. On the other hand the lattice-AFM ground state is found to arise already for U ? 2 ? ? eV , i.e., for much weaker interactions than in the monolayer. The reason for the reduction of U c can be traced to the suppression of the Fermi velocity v F at small twist angles [29,32] , which controls the critical U for the lattice-AFM instability. The dependence of U c and v F as a function of angle ? is shown in Fig. 3(a) . This result already points to strong magnetic instabilities of twisted graphene bilayers as the angle falls below the 1°–2° threshold. 3 10.1103/PhysRevLett.119.107201.f3 FIG. 3. (a) Critical value U c of the Hubbard U beyond which the twisted bilayer develops lattice-AFM order at the mean-field level. The red dots show U c as a function of the twist angle ? , and the dashed line shows the corresponding Fermi velocity at the Dirac point, normalized to the monolayer value v F 0 . At high twist angles both U c and v F converge to the monolayer values, while they become strongly suppressed at smaller angles. (b) Phase diagram for the ground state magnetic order in a ? = 1.5 ° twisted bilayer as a function of Hubbard U and interlayer bias V b . The blue and red regions denote the spatial integral of the lattice-AFM and spiral-FM polarizations, respectively, while the yellow region is nonmagnetic. Under a large electric bias between layers, the ground state magnetization for the same U is dramatically different, see Figs. 2(b) and 2(d) . In this case, the lattice-AFM polarization, Fig. 2(d) , is strongly suppressed and integrates to zero spatially, while the lattice-FM component, Fig. 2(b) , becomes large around the A A regions, and integrates to a finite value of approximately four electron spins per moiré supercell. The A A regions are thus found to become ferromagnetic under sufficient interlayer bias. This type of magnetic order is the result of the increased confinement of A A states at high V b , and can be interpreted as an instance of flat-band ferromagnetism driven by the Stoner mechanism. The lattice-AFM and lattice-FM states are also different when comparing the relative orientations of neighboring A A regions. By computing the total energy per supercell in each case as a function of the polarization angle ? M between adjacent regions [Figs. 2(e) and 2(f) ], we find that the energy is minimized for ? M = 0 ° in the lattice-AFM case (parallel alignment), but for ? M = 12 0 ° in the lattice-FM case (spiralling polarization). The equilibrium polarization is depicted by white arrows in Figs. 2(c) and 2(b) . The depth of the energy minimum, ranging from ? 2 – 100 ? ? K in our simulations, represents the effective exchange coupling of neighboring A A regions, which is ferromagnetic for lattice-AFM states and antiferromagnetic for lattice-FM states (see the Supplemental Material [38] for the next-nearest neighbor exchange). In the lattice-FM phase, which from now on we denote the spiral-FM phase, the spiral order arises as a result of the triangular symmetry of A A regions that frustrates a globally antiferromagnetic A A alignment. The same spiral order has been described in studies of the Hubbard model in the triangular lattice. It is a rather remarkable magnetic state, as the polarization at different points becomes noncollinear [7,64,65] despite the complete absence of spin-orbit coupling in the system. To better understand the onset of the spiral magnetism, we have computed the integrated FM and AFM polarization across the U , V b plane. We find first-order phase transitions separating the two types of ground states. The result is shown in Fig. 3 . The regions in red and blue denote, respectively, a finite spatial integral of the ferro M A + M B and lattice-AFM M A - M B polarizations. It is apparent that an electric interlayer bias of around 120 meV is able to switch between the lattice-AFM and spiral-FM orders for values of U between 2 and 3 eV. The precise thresholds for such electric switching of magnetic order depend on the specific twist angle and on other details not considered in this work (longer-range interactions, spontaneous deformations, or interlayer screening), although our simulations suggest they are likely within reach of current experiments for sufficiently small ? . Our mean-field analysis neglects thermal and quantum spin fluctuations around the mean-field solution. Thermal spin excitations in the magnetically isotropic case under study (from gapless Goldstone modes) are expected to destroy long-range spiral order, which then survives only locally, in keeping with the Mermin-Wagner theorem [1] . Breaking the magnetic isotropy (by allowing for a hard magnetic axis due to, e.g., spin-orbit coupling or coupling to a suitable magnetic substrate) gaps the Goldstone modes and stabilizes the mean-field solution. Otherwise, even at zero temperature, quantum spin fluctuations are known to produce spin-liquid-like ground states [5–8] . An efficient way to explore such nontrivial effects in this moiré system is to cast our mean-field results into an effective spin Hamiltonian on the triangular A A moiré pattern, which could be tackled using more sophisticated approaches (e.g., matrix-product states). The procedure is described in the Supplemental Material [38] . Conclusion.— For a long time unmodified graphene was thought to be relatively uninteresting from the point of view of magnetism. Twisted graphene bilayers, however, could prove to be a surprisingly rich playground for nontrivial magnetic phases. We have shown that two different types of mean-field magnetic solutions arise in twisted graphene bilayers at small angles. The two types of magnetic order, lattice antiferromagnetism and spiral ferromagnetism, are both concentrated at A A -stacked regions. The spiral-FM phase is favored over the lattice-AFM phase when applying a sufficient electric bias between layers. This phase constitutes a form of electrically controllable, noncollinear, and spatially nonuniform magnetism in a material with a negligible spin-orbit coupling. This possibility is of fundamental interest, as it realizes electrically tunable 2D magnetism on a triangular superlattice, a suitable platform to explore spin-liquid phases. Indeed, it is known that next-nearest neighbor interactions in a magnetic triangular lattice should transform spiral order into a spin-liquid phase [5–8] , as long as the system remains magnetically isotropic. Moreover, in the spin-liquid state, electronic doping can give rise to high T C superconductivity [66,67] . The possibility of modifying the electronic filling of our emergent frustrated triangular lattice by means of an electric gate offers a unique platform to realize this possibility, avoiding the detrimental effects of chemical doping in conventional compounds [68] . 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We acknowledge financial support from the Marie-Curie-Initial Training Networks (ITN) program through Grant No. 607904-SPINOGRAPH, and the Spanish Ministry of Economy and Competitiveness through Grants No. FIS2015-65706-P (MINECO/FEDER) and No. RYC-2013-14645 (Ramon y Cajal program). L.?A.?G.-A. is grateful for the hospitality of the Applied Physics Department in the University of Alicante and to N. Garcia for useful discussions. We specially thank J. Fernandez Rossier for his help settling the environment and the initial idea for this work.
Published: 2017

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