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1 | 1 | - citation: '**SW Olesen**, I Holmdahl, IR Ortega-Sanchez, M Biggerstaff,
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2 |
| - JM Jones, ML McMorrow, KE Fleming-Dutra. Projecting maximum potential |
3 |
| - demand for nirsevimab to protect eligible US infants and young children |
4 |
| - against respiratory syncytial virus in the 2024/2025 season. *Vaccine* (2025).' |
| 2 | + JM Jones, ML McMorrow, KE Fleming-Dutra. Projecting maximum potential |
| 3 | + demand for nirsevimab to protect eligible US infants and young children |
| 4 | + against respiratory syncytial virus in the 2024/2025 season. *Vaccine* (2025).' |
5 | 5 | doi: 10.1016/j.vaccine.2025.127109
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6 | 6 | pmid: 40209626
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7 | 7 | - citation: 'NB Masters, I Holmdahl, PB Miller, CK Kumar, CM Herzog, PM
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8 |
| - DeJonge, S Gretsch, SE Oliver, M Patel, DE Sugarman, BB Bruce, BF Borah, **SW |
9 |
| - Olesen**. Real-time use of a dynamic model to measure the impact of public |
10 |
| - health interventions on measles outbreak size and duration --- Chicago, |
11 |
| - Illinois, 2024. *MMWR* (2024).' |
| 8 | + DeJonge, S Gretsch, SE Oliver, M Patel, DE Sugarman, BB Bruce, BF Borah, **SW |
| 9 | + Olesen**. Real-time use of a dynamic model to measure the impact of public |
| 10 | + health interventions on measles outbreak size and duration --- Chicago, |
| 11 | + Illinois, 2024. *MMWR* (2024).' |
12 | 12 | doi: 10.15585/mmwr.mm7319a2
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13 | 13 | - citation: 'Smith TC, Bart SM, Loh SM, Rothman J, Grubaugh ND, Gardner L,
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14 |
| - Morfino RC, Rome BR, Rothstein AP, Li SL, Ernst E, **Olesen SW**, Walker AT, |
15 |
| - Friedman CR, Guagliardo SA. SARS-CoV-2 Sample Positivity in Travellers Can |
16 |
| - Predict Community Prevalence Rates: Data from the Traveller-Based Genomic |
17 |
| - Surveillance Programme. *SSRN* (2024).' |
| 14 | + Morfino RC, Rome BR, Rothstein AP, Li SL, Ernst E, **Olesen SW**, Walker AT, |
| 15 | + Friedman CR, Guagliardo SA. SARS-CoV-2 Sample Positivity in Travellers Can |
| 16 | + Predict Community Prevalence Rates: Data from the Traveller-Based Genomic |
| 17 | + Surveillance Programme. *SSRN* (2024).' |
18 | 18 | doi: 10.2139/ssrn.4720735
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19 | 19 | - citation: 'QQ Yu, **SW Olesen**, C Duvallet, YH Grad. Assessment of sewer
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20 |
| - connectivity in the United States and its implications for equity in |
21 |
| - wastewater-based epidemiology. *PLOS Global Public Health* (2024).' |
| 20 | + connectivity in the United States and its implications for equity in |
| 21 | + wastewater-based epidemiology. *PLOS Global Public Health* (2024).' |
22 | 22 | doi: 10.1371/journal.pgph.0003039
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23 | 23 | - citation: 'RM Klevens, CCW Young, **SW Olesen**, A Osinski, D Church, J Muten, L
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24 |
| - Chou, T Segal, K Cranston. Evaluation of wastewater surveillance for |
25 |
| - SARS-CoV-2 in Massachusetts correctional facilities, 2020-2022. *Frontiers in |
26 |
| - Water* (2023).' |
| 24 | + Chou, T Segal, K Cranston. Evaluation of wastewater surveillance for |
| 25 | + SARS-CoV-2 in Massachusetts correctional facilities, 2020-2022. *Frontiers in |
| 26 | + Water* (2023).' |
27 | 27 | doi: 10.3389/frwa.2023.1083316
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28 | 28 | - citation: '**SW Olesen**, CCW Young, C Duvallet. White paper: The effect of
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29 |
| - septic systems on wastewater-based epidemiology. *Zenodo* (2022).' |
| 29 | + septic systems on wastewater-based epidemiology. *Zenodo* (2022).' |
30 | 30 | doi: 10.5281/zenodo.7130725
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31 | 31 | - citation: 'M Santiago, **SW Olesen**. White paper: Pathogen biomarkers in
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32 |
| - wastewater, stool, and urine: an informal literature survey. (2022).' |
| 32 | + wastewater, stool, and urine: an informal literature survey. (2022).' |
33 | 33 | pdf: /files/papers/ww-pathogen-survey.pdf
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34 | 34 | - citation: 'Bousbaine D, Fisch LI, London M, Bhagchandani P, Rezende de Castro
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35 |
| - TB, Mimee M, **Olesen S**, Reis BS, VanInsberghe D, Bortolatto J, Poyet M, |
36 |
| - Cheloha RW, Sidney J, Ling J, Gupta A, Lu TK, Sette A, Alm EJ, Moon JJ, |
37 |
| - Victora GD, Mucida D, Ploegh HL, Bilate AM. conserved Bacteroidetes antigen |
38 |
| - induces anti-inflammatory intestinal T lymphocytes. *Science* (2022).' |
| 35 | + TB, Mimee M, **Olesen S**, Reis BS, VanInsberghe D, Bortolatto J, Poyet M, |
| 36 | + Cheloha RW, Sidney J, Ling J, Gupta A, Lu TK, Sette A, Alm EJ, Moon JJ, |
| 37 | + Victora GD, Mucida D, Ploegh HL, Bilate AM. conserved Bacteroidetes antigen |
| 38 | + induces anti-inflammatory intestinal T lymphocytes. *Science* (2022).' |
39 | 39 | doi: 10.1126/science.abg5645
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40 | 40 | - citation: '**SW Olesen**. Uses of mathematical modeling to estimate the
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41 |
| - impact of mass drug administration of antibiotics on antimicrobial resistance |
42 |
| - within and between communities. *Infectious Diseases of Poverty* (2022).' |
| 41 | + impact of mass drug administration of antibiotics on antimicrobial resistance |
| 42 | + within and between communities. *Infectious Diseases of Poverty* (2022).' |
43 | 43 | doi: 10.1186/s40249-022-00997-7
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44 | 44 | - citation: '**SW Olesen** and E Trabert. Infectious disease modeling:
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45 |
| - recommendations for public health decision makers. *Disaster Medicine and |
46 |
| - Public Health Preparedness* (2022).' |
| 45 | + recommendations for public health decision makers. *Disaster Medicine and |
| 46 | + Public Health Preparedness* (2022).' |
47 | 47 | doi: 10.1017/dmp.2022.99
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48 |
| -- citation: 'C Duvallet, F Wu, KA McElroy, M Imakaev, N Endo, A Xiao, J Zhang, |
49 |
| - R Floyd-O'Sullivan, MM Powell, S Mendola, ST Wilson, F Cruz, T Melman, CL |
50 |
| - Sathyanarayana, **SW Olesen**, TB Erickson, N Ghaeli, P Chai, EJ Alm, M |
51 |
| - Matus. Nationwide Trends in COVID-19 Cases and SARS-CoV-2 RNA Wastewater |
52 |
| - Concentrations in the United States. *ACS EST Water* (2022).' |
| 48 | +- citation: "C Duvallet, F Wu, KA McElroy, M Imakaev, N Endo, A Xiao, J Zhang, |
| 49 | + R Floyd-O'Sullivan, MM Powell, S Mendola, ST Wilson, F Cruz, T Melman, CL |
| 50 | + Sathyanarayana, **SW Olesen**, TB Erickson, N Ghaeli, P Chai, EJ Alm, M |
| 51 | + Matus. Nationwide Trends in COVID-19 Cases and SARS-CoV-2 RNA Wastewater |
| 52 | + Concentrations in the United States. *ACS EST Water* (2022)." |
53 | 53 | doi: 10.1021/acsestwater.1c00434
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54 | 54 | - citation: '**SW Olesen**, N Endo, C Duvallet. Interpreting Covid-19
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55 |
| - wastewater monitoring data from buildings to support disease mitigation. |
56 |
| - Proceedings: Public Health and Water Conference & Wastewater Disease |
57 |
| - Surveillance Summit. Cincinnati, OH. (March 21-24, 2022).' |
| 55 | + wastewater monitoring data from buildings to support disease mitigation. |
| 56 | + Proceedings: Public Health and Water Conference & Wastewater Disease |
| 57 | + Surveillance Summit. Cincinnati, OH. (March 21-24, 2022).' |
58 | 58 | doi: 10.2175/193864718825158289
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59 | 59 | pdf: /files/papers/2022-wef-olesen.pdf
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60 | 60 | - citation: '**SW Olesen**. Blog: Polio and the early history of wastewater
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61 | 61 | epidemiology. (2021).'
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62 | 62 | pdf: /files/paper/biobot-polio.pdf
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63 | 63 | - citation: '**SW Olesen**, S Kanjilal, SM Kissler, DS Sun, YH Grad.
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64 |
| - Racial/ethnic disparities in antibiotic use and healthcare utilization, |
| 64 | + Racial/ethnic disparities in antibiotic use and healthcare utilization, |
65 | 65 | 2016/2018. *medRxiv* (2021).'
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66 | 66 | doi: 10.1101/2021.12.09.21266965
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67 | 67 | - citation: 'N Sharara, N Endo, C Duvallet, N Ghaeli, M Matus, J Heussner, **SW
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68 |
| - Olesen**, EJ Alm, PR Chai, TB Erickson. Wastewater network infrastructure in |
69 |
| - public health: Applications and learnings from the COVID-19 pandemic. *PLOS |
70 |
| - Global Public Health* (2021).' |
| 68 | + Olesen**, EJ Alm, PR Chai, TB Erickson. Wastewater network infrastructure in |
| 69 | + public health: Applications and learnings from the COVID-19 pandemic. *PLOS |
| 70 | + Global Public Health* (2021).' |
71 | 71 | doi: 10.1371/journal.pgph.0000061
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72 | 72 | pmid: 34927170
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73 | 73 | pmcid: PMC8682811
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74 | 74 | - citation: '**SW Olesen**. Interpreting building-level Covid-19 wastewater
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75 |
| - monitoring data. *figshare* (2021).' |
| 75 | + monitoring data. *figshare* (2021).' |
76 | 76 | doi: 10.6084/m9.figshare.16587068
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77 | 77 | pdf: https://biobot.io/wp-content/uploads/2021/09/Interpreting_building-level_Covid-19_wastewater_monitoring_data.pdf
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78 | 78 | - citation: '**SW Olesen**, M Imakaev, C Duvallet. Making waves: Defining the
|
79 |
| - lead time of wastewater-based epidemiology for COVID-19. *Water Research* |
80 |
| - (2021).' |
| 79 | + lead time of wastewater-based epidemiology for COVID-19. *Water Research* |
| 80 | + (2021).' |
81 | 81 | pmid: 34304074
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82 | 82 | pmc: PMC8282235
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83 | 83 | doi: 10.1016/j.watres.2021.117433
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84 | 84 | - citation: 'DS Sun, SM Kissler, S Kanjilal, **SW Olesen**, M Lipsitch, YH
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85 |
| - Grad. Analysis of multiple bacterial species and antibiotic classes reveals |
86 |
| - large variation in the association between seasonal antibiotic use and |
87 |
| - resistance *PLOS Biology* (2022).' |
| 85 | + Grad. Analysis of multiple bacterial species and antibiotic classes reveals |
| 86 | + large variation in the association between seasonal antibiotic use and |
| 87 | + resistance *PLOS Biology* (2022).' |
88 | 88 | doi: 10.1371/journal.pbio.3001579
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89 | 89 | - citation: 'SM Kissler, JR Fauver, C Mack, **SW Olesen**, C Tai, KY Shiue, CC
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90 |
| - Kalinich, S Jednak, IM Ott, CBF Vogels, J Wohlgemuth, J Weisberger, J |
91 |
| - DiFiori, DJ Anderson, J Mancell, DD Ho, ND Grubaugh, YG Grad. Viral dynamics |
92 |
| - of acute SARS-CoV-2 infection and applications to diagnostic and public |
93 |
| - health strategies. *PLOS Biology* (2021).' |
| 90 | + Kalinich, S Jednak, IM Ott, CBF Vogels, J Wohlgemuth, J Weisberger, J |
| 91 | + DiFiori, DJ Anderson, J Mancell, DD Ho, ND Grubaugh, YG Grad. Viral dynamics |
| 92 | + of acute SARS-CoV-2 infection and applications to diagnostic and public |
| 93 | + health strategies. *PLOS Biology* (2021).' |
94 | 94 | doi: 10.1371/journal.pbio.3001333
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95 | 95 | pmid: 34252080
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96 | 96 | pmcid: PMC8297933
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97 | 97 | - citation: 'J Chen, A Zaman, B Ramakrishna, **SW Olesen**. Stool banking for
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98 |
| - fecal microbiota transplantation: methods and operations at a large stool |
99 |
| - bank. *Front Cell Infect Microbiol* (2021).' |
| 98 | + fecal microbiota transplantation: methods and operations at a large stool |
| 99 | + bank. *Front Cell Infect Microbiol* (2021).' |
100 | 100 | doi: 10.3389/fcimb.2021.622949
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101 | 101 | - citation: 'M Santiago, **SW Olesen**. 16S rRNA sequencing of samples from
|
102 |
| - universal stool bank donors. *BMC Research Notes* (2021).' |
| 102 | + universal stool bank donors. *BMC Research Notes* (2021).' |
103 | 103 | doi: 10.1186/s13104-021-05520-z
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104 | 104 | - citation: 'A Zaman, T Qazi, P Pai, P Peters, S Nicolaysen, **SW Olesen**.
|
105 |
| - Carriage rates of multidrug-resistant organisms among prospective stool donors. |
106 |
| - *The Lancet Infectious Diseases* (2021).' |
| 105 | + Carriage rates of multidrug-resistant organisms among prospective stool donors. |
| 106 | + *The Lancet Infectious Diseases* (2021).' |
107 | 107 | doi: 10.1016/S1473-3099(21)00091-8
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108 | 108 | - citation: '**SW Olesen**. Fecal microbiota transplantation "donor effects"
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109 |
| - are not clinically relevant for *Clostridioides difficile* infection. |
110 |
| - *Gastroenterology* (2020).' |
| 109 | + are not clinically relevant for *Clostridioides difficile* infection. |
| 110 | + *Gastroenterology* (2020).' |
111 | 111 | doi: 10.1053/j.gastro.2020.12.057
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112 | 112 | pmid: 33387515
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113 | 113 | - citation: 'D Bousbaine, P Bhagchandani, M London, M Mimee, **SW Olesen**, M
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114 |
| - Poyet, RW Cheloha, J Sidney, J Ling, A Gupta, TK Lu, A Sette, EJ Alm, D |
115 |
| - Mucida, AM Bilate, HL Ploegh. Antigen-specific induction of CD4+CD8αα+ |
116 |
| - intraepithelial T lymphocytes by *Bacteroidetes* species. *bioRxiv* |
117 |
| - (submitted elsewhere).' |
| 114 | + Poyet, RW Cheloha, J Sidney, J Ling, A Gupta, TK Lu, A Sette, EJ Alm, D |
| 115 | + Mucida, AM Bilate, HL Ploegh. Antigen-specific induction of CD4+CD8αα+ |
| 116 | + intraepithelial T lymphocytes by *Bacteroidetes* species. *bioRxiv* |
| 117 | + (submitted elsewhere).' |
118 | 118 | doi: 10.1101/2020.08.05.236513
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119 | 119 | - citation: '**SW Olesen**. Power calculations for detecting differences in
|
120 |
| - efficacy of fecal microbiota donors. *Contemporary Clinical Trials |
121 |
| - Communications* (2020).' |
| 120 | + efficacy of fecal microbiota donors. *Contemporary Clinical Trials |
| 121 | + Communications* (2020).' |
122 | 122 | doi: 10.1016/j.conctc.2020.100674
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123 | 123 | pmid: 33241161
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124 | 124 | pmc: PMC7672275
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125 | 125 | - citation: '**SW Olesen**, A Zaman, M Osman, B Ramakrishna. Modelling donor
|
126 |
| - screening strategies to reduce the risk of SARS-CoV-2 via fecal microbiota |
127 |
| - transplantation. *Open Forum Infect Dis* (2020).' |
| 126 | + screening strategies to reduce the risk of SARS-CoV-2 via fecal microbiota |
| 127 | + transplantation. *Open Forum Infect Dis* (2020).' |
128 | 128 | doi: 10.1093/ofid/ofaa499
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129 | 129 | pmid: 33235890
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130 | 130 | pmc: PMC7665722
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131 | 131 | - citation: '**SW Olesen**, M Lipsitch, YH Grad. The role of "spillover"
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132 |
| - in antibiotic resistance. *PNAS* (2020).' |
| 132 | + in antibiotic resistance. *PNAS* (2020).' |
133 | 133 | doi: 10.1073/pnas.2013694117
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134 | 134 | pmid: 33139558
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135 | 135 | pmc: PMC7682407
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136 | 136 | - citation: 'L Mamoon, **SW Olesen**. Fecal microbiota transplants annually
|
137 |
| - and their positive clinical impact. *Clin Transl Gastroenterol* (2020).' |
| 137 | + and their positive clinical impact. *Clin Transl Gastroenterol* (2020).' |
138 | 138 | doi: 10.14309/ctg.0000000000000247
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139 | 139 | pmid: 33259159
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140 | 140 | pmc: PMC7594930
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141 | 141 | - citation: 'C Zellmer, MRA Sater, MH Huntley, M Osman, **SW Olesen**, B
|
142 |
| - Ramakrishna. Shiga toxin-producing *E. coli* transmission via fecal |
143 |
| - microbiota transplant. *Clin Infect Dis* (2020).' |
| 142 | + Ramakrishna. Shiga toxin-producing *E. coli* transmission via fecal |
| 143 | + microbiota transplant. *Clin Infect Dis* (2020).' |
144 | 144 | doi: 10.1093/cid/ciaa1486
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145 | 145 | pmid: 33159210
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146 | 146 | - citation: '**SW Olesen**, Y Gerardin. Re-evaluating the evidence for fecal
|
147 |
| - microbiota transplantation "super-donors" in inflammatory bowel disease. |
148 |
| - *Journal of Crohn''s and Colitis* (2020).' |
| 147 | + microbiota transplantation "super-donors" in inflammatory bowel disease. |
| 148 | + *Journal of Crohn''s and Colitis* (2020).' |
149 | 149 | doi: 10.1093/ecco-jcc/jjaa170
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150 | 150 | pdf: /files/papers/jjaa170.pdf
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151 | 151 | pmid: 32808030
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152 | 152 | - citation: 'AM Tsou, **SW Olesen** (co-first), EJ Alm, SB Snapper. 16S rRNA sequencing
|
153 |
| - analysis: the devil is in the details. *Gut Microbes* (2020).' |
| 153 | + analysis: the devil is in the details. *Gut Microbes* (2020).' |
154 | 154 | doi: 10.1080/19490976.2020.1747336
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155 | 155 | pmid: 32329652
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156 | 156 | pmc: PMC7524321
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157 | 157 | - citation: '**SW Olesen**, P Panchal, J Chen, S Budree, M Osman. Global
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158 |
| - disparities and underserved populations in fecal microbiota transplantation |
159 |
| - research. *Lancet Gastro Hepatol* (2020).' |
| 158 | + disparities and underserved populations in fecal microbiota transplantation |
| 159 | + research. *Lancet Gastro Hepatol* (2020).' |
160 | 160 | pdf: /files/papers/lancet-gastro-2020.pdf
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161 | 161 | doi: 10.1016/S2468-1253(19)30452-2
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162 | 162 | pmid: 32061326
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163 | 163 | - citation: 'S Ryu, BJ Cowling, P Wu, **SW Olesen**, C Fraser, DS Sun, M Lipsitch, YH
|
164 |
| - Grad. Case-based surveillance of antimicrobial resistance with full susceptibility |
165 |
| - profiles. *JAC Antimicrob Resist* (2019).' |
| 164 | + Grad. Case-based surveillance of antimicrobial resistance with full susceptibility |
| 165 | + profiles. *JAC Antimicrob Resist* (2019).' |
166 | 166 | doi: 10.1093/jacamr/dlz070
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167 | 167 | pmid: 32280945
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168 | 168 | pmc: PMC7134534
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169 | 169 | - citation: 'BJ Sutherland, **SW Olesen**, H Kusumaatmaja, JWR Morgan, DJ
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170 |
| - Wales. Morphological analysis of chiral rod clusters from a coarse-grained |
171 |
| - single-site chiral potential. *Soft Matter* (2019).' |
| 170 | + Wales. Morphological analysis of chiral rod clusters from a coarse-grained |
| 171 | + single-site chiral potential. *Soft Matter* (2019).' |
172 | 172 | doi: 10.1039/C9SM01343A
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173 | 173 | pmid: 31589219
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174 | 174 | - citation: 'E Goldstein, **SW Olesen**, Z Karaca, CA Steiner, C Viboud, M Lipsitch.
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