test_with_bib.md
... ...
@@ -0,0 +1,240 @@
1
+| Gene | Reference |
2
+|:---------:|:-----------------------------:|
3
+| ABL2 | (Russler-Germain et al. 2023) |
4
+| HIST1H2BD | (Krysiak et al. 2017) |
5
+| CPNE8 | (Hübschmann et al. 2021) |
6
+| HIST1H2AG | (Krysiak et al. 2017) |
7
+| BIRC6 | |
8
+| CXCR4 | (Krysiak et al. 2017) |
9
+| STAT6 | (Yildiz et al. 2015) |
10
+| CARD11 | (Morin et al. 2011) |
11
+| ITPKB | |
12
+| ACTG1 | (Hübschmann et al. 2021) |
13
+| HIST1H2BC | (Krysiak et al. 2017) |
14
+| POU2AF1 | (Krysiak et al. 2017) |
15
+| SESN1 | |
16
+| CILP | (Russler-Germain et al. 2023) |
17
+| MEF2C | |
18
+| PRKDC | (Hübschmann et al. 2021) |
19
+| TP53 | (Morin et al. 2011) |
20
+| KLF2 | |
21
+| MYCBP2 | (Hübschmann et al. 2021) |
22
+| BCL7A | (Krysiak et al. 2017) |
23
+| B2M | (Morin et al. 2011) |
24
+| VMA21 | (Hübschmann et al. 2021) |
25
+| BCL10 | (Russler-Germain et al. 2023) |
26
+| DUSP2 | |
27
+| MAP2K1 | (Louissaint et al. 2016) |
28
+| IGLL5 | (Russler-Germain et al. 2023) |
29
+| ZC3H12A | |
30
+| JUP | (Hübschmann et al. 2021) |
31
+| TMEM30A | (Morin et al. 2011) |
32
+| ATP6V1B2 | (Okosun et al. 2016) |
33
+| SOCS1 | |
34
+| CYP2A6 | (Russler-Germain et al. 2023) |
35
+| HIST1H3B | |
36
+| SRRM2 | (Russler-Germain et al. 2023) |
37
+| HIST1H3G | (Krysiak et al. 2017) |
38
+| HIST1H2AM | (Krysiak et al. 2017) |
39
+| GNA13 | (Morin et al. 2011) |
40
+| HIST1H1B | (Krysiak et al. 2017) |
41
+| PPP4C | (Hübschmann et al. 2021) |
42
+| MYD88 | |
43
+| PTPRD | |
44
+| EEF1A1 | (Hübschmann et al. 2021) |
45
+| CCND3 | (Morin et al. 2011) |
46
+| LAPTM5 | (Hübschmann et al. 2021) |
47
+| TNFAIP3 | |
48
+| HIST1H1C | (Morin et al. 2011) |
49
+| GBP7 | (Russler-Germain et al. 2023) |
50
+| XIRP2 | (Russler-Germain et al. 2023) |
51
+| GRM6 | (Russler-Germain et al. 2023) |
52
+| CREBBP | (Pasqualucci et al. 2011) |
53
+| SGK1 | (Morin et al. 2011) |
54
+| CD79B | |
55
+| ATP6AP1 | (Okosun et al. 2016) |
56
+| HNRNPD | |
57
+| OR8H2 | (Russler-Germain et al. 2023) |
58
+| IRF8 | (Morin et al. 2011) |
59
+| ZNF608 | (Krysiak et al. 2017) |
60
+| SHROOM3 | (Russler-Germain et al. 2023) |
61
+| HVCN1 | (Krysiak et al. 2017) |
62
+| TBL1XR1 | |
63
+| CD83 | (Russler-Germain et al. 2023) |
64
+| DTX1 | |
65
+| KLHL6 | (Morin et al. 2011) |
66
+| EBF1 | |
67
+| CD70 | (Russler-Germain et al. 2023) |
68
+| IRF4 | |
69
+| STAB2 | (Russler-Germain et al. 2023) |
70
+| TNFRSF14 | (Cheung et al. 2010) |
71
+| FAS | |
72
+| BTK | (Krysiak et al. 2017) |
73
+| FOXO1 | (Morin et al. 2011) |
74
+| SMARCA4 | (Krysiak et al. 2017) |
75
+| POU2F2 | (Krysiak et al. 2017) |
76
+| RRAGC | |
77
+| KIR3DL1 | (Russler-Germain et al. 2023) |
78
+| HIST1H1D | (Krysiak et al. 2017) |
79
+| BCL2 | (Morin et al. 2011) |
80
+| EGR1 | (Krysiak et al. 2017) |
81
+| ACTB | |
82
+| PZP | (Russler-Germain et al. 2023) |
83
+| GNAI2 | |
84
+| DHX15 | (Hübschmann et al. 2021) |
85
+| ATP6V1A | (Hübschmann et al. 2021) |
86
+| PDS5B | (Hübschmann et al. 2021) |
87
+| BCL6 | |
88
+| HIST1H2BM | (Krysiak et al. 2017) |
89
+| PIM1 | |
90
+| MEF2B | (Morin et al. 2011) |
91
+| EZH2 | (Morin et al. 2010) |
92
+| MAGEC1 | (Russler-Germain et al. 2023) |
93
+| KMT2D | (Morin et al. 2011) |
94
+| ARID1A | (Krysiak et al. 2017) |
95
+| MAP7D1 | (Russler-Germain et al. 2023) |
96
+| DDX3X | |
97
+| MGEA5 | (Hübschmann et al. 2021) |
98
+| MKI67 | (Russler-Germain et al. 2023) |
99
+| HIST1H3I | (Krysiak et al. 2017) |
100
+| CCDC42BPB | (Hübschmann et al. 2021) |
101
+| HIST1H1E | (Krysiak et al. 2017) |
102
+| TMSB4X | |
103
+| TPP1 | (Hübschmann et al. 2021) |
104
+| HLA-B | |
105
+| PCLO | |
106
+| FZR1 | (Hübschmann et al. 2021) |
107
+| S1PR2 | |
108
+| BTG1 | |
109
+| BTG2 | (Morin et al. 2011) |
110
+| HIST1H2BG | (Krysiak et al. 2017) |
111
+| LTB | |
112
+| EP300 | (Pasqualucci et al. 2011) |
113
+| CTSS | (Bararia et al. 2020) |
114
+| HIST1H2AC | (Krysiak et al. 2017) |
115
+| NFKBIA | (Russler-Germain et al. 2023) |
116
+| P2RY8 | |
117
+| RBM6 | (Hübschmann et al. 2021) |
118
+| MYC | |
119
+
120
+<div id="refs" class="references csl-bib-body hanging-indent">
121
+
122
+<div id="ref-barariaCathepsinAlterationsInduce2020c" class="csl-entry">
123
+
124
+Bararia, Deepak, Johannes A. Hildebrand, Sebastian Stolz, Sarah Haebe,
125
+Stefan Alig, Christopher P. Trevisani, Francisco Osorio-Barrios, et al.
126
+2020. “Cathepsin S Alterations Induce a Tumor-Promoting Immune
127
+Microenvironment in Follicular Lymphoma.” *Cell Reports* 31 (5): 107522.
128
+<https://doi.org/10.1016/j.celrep.2020.107522>.
129
+
130
+</div>
131
+
132
+<div id="ref-cheungAcquiredTNFRSF14Mutations2010a" class="csl-entry">
133
+
134
+Cheung, K.-John J., Nathalie A. Johnson, Joslynn G. Affleck, Tesa
135
+Severson, Christian Steidl, Susana Ben-Neriah, Jacqueline Schein, et al.
136
+2010. “Acquired TNFRSF14 Mutations in Follicular Lymphoma Are Associated
137
+with Worse Prognosis.” *Cancer Research* 70 (22): 9166–74.
138
+<https://doi.org/10.1158/0008-5472.CAN-10-2460>.
139
+
140
+</div>
141
+
142
+<div id="ref-hubschmannMutationalMechanismsShaping2021b"
143
+class="csl-entry">
144
+
145
+Hübschmann, Daniel, Kortine Kleinheinz, Rabea Wagener, Stephan H.
146
+Bernhart, Cristina López, Umut H. Toprak, Stephanie Sungalee, et al.
147
+2021. “Mutational Mechanisms Shaping the Coding and Noncoding Genome of
148
+Germinal Center Derived <span class="nocase">B-cell</span> Lymphomas.”
149
+*Leukemia* 35 (7): 2002–16.
150
+<https://doi.org/10.1038/s41375-021-01251-z>.
151
+
152
+</div>
153
+
154
+<div id="ref-krysiakRecurrentSomaticMutations2017b" class="csl-entry">
155
+
156
+Krysiak, Kilannin, Felicia Gomez, Brian S. White, Matthew Matlock,
157
+Christopher A. Miller, Lee Trani, Catrina C. Fronick, et al. 2017.
158
+“Recurrent Somatic Mutations Affecting <span
159
+class="nocase">B-cell</span> Receptor Signaling Pathway Genes in
160
+Follicular Lymphoma.” *Blood* 129 (4): 473–83.
161
+<https://doi.org/10.1182/blood-2016-07-729954>.
162
+
163
+</div>
164
+
165
+<div id="ref-louissaintPediatrictypeNodalFollicular2016a"
166
+class="csl-entry">
167
+
168
+Louissaint, Abner, Kristian T. Schafernak, Julia T. Geyer, Alexandra E.
169
+Kovach, Mahmoud Ghandi, Dita Gratzinger, Christine G. Roth, et al. 2016.
170
+“Pediatric-Type Nodal Follicular Lymphoma: A Biologically Distinct
171
+Lymphoma with Frequent MAPK Pathway Mutations.” *Blood* 128 (8):
172
+1093–1100. <https://doi.org/10.1182/blood-2015-12-682591>.
173
+
174
+</div>
175
+
176
+<div id="ref-morinSomaticMutationsAltering2010a" class="csl-entry">
177
+
178
+Morin, Ryan D., Nathalie A. Johnson, Tesa M. Severson, Andrew J.
179
+Mungall, Jianghong An, Rodrigo Goya, Jessica E. Paul, et al. 2010.
180
+“Somatic Mutations Altering EZH2 (Tyr641) in Follicular and Diffuse
181
+Large <span class="nocase">B-cell</span> Lymphomas of Germinal-Center
182
+Origin.” *Nature Genetics* 42 (2): 181–85.
183
+<https://doi.org/10.1038/ng.518>.
184
+
185
+</div>
186
+
187
+<div id="ref-morinFrequentMutationHistonemodifying2011"
188
+class="csl-entry">
189
+
190
+Morin, Ryan D., Maria Mendez-Lago, Andrew J. Mungall, Rodrigo Goya,
191
+Karen L. Mungall, Richard D. Corbett, Nathalie A. Johnson, et al. 2011.
192
+“Frequent Mutation of Histone-Modifying Genes in Non-Hodgkin Lymphoma.”
193
+*Nature* 476 (7360): 298–303. <https://doi.org/10.1038/nature10351>.
194
+
195
+</div>
196
+
197
+<div id="ref-okosunRecurrentMTORC1activatingRRAGC2016a"
198
+class="csl-entry">
199
+
200
+Okosun, Jessica, Rachel L. Wolfson, Jun Wang, Shamzah Araf, Lucy
201
+Wilkins, Brian M. Castellano, Leire Escudero-Ibarz, et al. 2016.
202
+“Recurrent <span class="nocase">mTORC1-activating RRAGC</span> Mutations
203
+in Follicular Lymphoma.” *Nature Genetics* 48 (2): 183–88.
204
+<https://doi.org/10.1038/ng.3473>.
205
+
206
+</div>
207
+
208
+<div id="ref-pasqualucciInactivatingMutationsAcetyltransferase2011a"
209
+class="csl-entry">
210
+
211
+Pasqualucci, Laura, David Dominguez-Sola, Annalisa Chiarenza, Giulia
212
+Fabbri, Adina Grunn, Vladimir Trifonov, Lawryn H. Kasper, et al. 2011.
213
+“Inactivating Mutations of Acetyltransferase Genes in <span
214
+class="nocase">B-cell</span> Lymphoma.” *Nature* 471 (7337): 189–95.
215
+<https://doi.org/10.1038/nature09730>.
216
+
217
+</div>
218
+
219
+<div id="ref-russler-germainMutationsAssociatedProgression2023b"
220
+class="csl-entry">
221
+
222
+Russler-Germain, David A., Kilannin Krysiak, Cody A. Ramirez, Matthew
223
+Mosior, Marcus P. Watkins, Felicia Gomez, Zachary L. Skidmore, et al.
224
+2023. “Mutations Associated with Progression in Follicular Lymphoma
225
+Predict Inferior Outcomes at Diagnosis: Alliance A151303.” *Blood
226
+Advances* 7: 5524–39.
227
+<https://doi.org/10.1182/bloodadvances.2023010779>.
228
+
229
+</div>
230
+
231
+<div id="ref-yildizActivatingSTAT6Mutations2015c" class="csl-entry">
232
+
233
+Yildiz, Mehmet, Hongxiu Li, Denzil Bernard, Nisar A. Amin, Peter
234
+Ouillette, Siân Jones, Kamlai Saiya-Cork, et al. 2015. “Activating STAT6
235
+Mutations in Follicular Lymphoma.” *Blood* 125 (4): 668–79.
236
+<https://doi.org/10.1182/blood-2014-06-582650>.
237
+
238
+</div>
239
+
240
+</div>