Publications of Alexis Ceasrine    :chronological  alphabetical  combined  bibtex listing:

Journal Articles

1. Ceasrine, AM; Green, LA; Bilbo, SD (2022). Protocol to measure endotoxin from opaque tissues in mice using an optimized kinetic limulus amebocyte lysate assay.. Star Protocols, 3(4), 101669. [doi]  [abs]
2. Ceasrine, AM; Devlin, BA; Bolton, JL; Green, LA; Jo, YC; Huynh, C; Patrick, B; Washington, K; Sanchez, CL; Joo, F; Campos-Salazar, AB; Lockshin, ER; Kuhn, C; Murphy, SK; Simmons, LA; Bilbo, SD (2022). Maternal diet disrupts the placenta-brain axis in a sex-specific manner.. Nature Metabolism, 4(12), 1732-1745. [doi]  [abs]
3. Block, CL; Eroglu, O; Mague, SD; Smith, CJ; Ceasrine, AM; Sriworarat, C; Blount, C; Beben, KA; Malacon, KE; Ndubuizu, N; Talbot, A; Gallagher, NM; Chan Jo, Y; Nyangacha, T; Carlson, DE; Dzirasa, K; Eroglu, C; Bilbo, SD (2022). Prenatal environmental stressors impair postnatal microglia function and adult behavior in males.. Cell Reports, 40(5), 111161. [doi]  [abs]
4. Ceasrine, AM; Bilbo, SD (2022). Dietary fat: a potent microglial influencer.. Trends in Endocrinology and Metabolism: Tem, 33(3), 196-205. [doi]  [abs]
5. Ceasrine, AM; Devlin, BA; Bolton, JL; Green, LA; Jo, YC; Huynh, C; Patrick, B; Washington, K; Sanchez, CL; Joo, F; Brayan Campos-Salazar, A; Lockshin, ER; Kuhn, C; Murphy, SK; Simmons, LA; Bilbo, SD (2021). Maternal diet disrupts the placenta-brain axis in a sex-specific manner. [doi]  [abs]
6. Ceasrine, AM; Bilbo, SD (2021). Primetime for microglia: When stress and infection collide.. Neuron, 109(16), 2503-2505. [doi]  [abs]
7. Bordt, EA; Ceasrine, AM; Bilbo, SD (2020). Microglia and sexual differentiation of the developing brain: A focus on ontogeny and intrinsic factors.. Glia, 68(6), 1085-1099. [doi]  [abs]
8. Ceasrine, AM; Ruiz-Otero, N; Lin, EE; Lumelsky, DN; Boehm, ED; Kuruvilla, R (2019). Tamoxifen Improves Glucose Tolerance in a Delivery-, Sex-, and Strain-Dependent Manner in Mice.. Endocrinology, 160(4), 782-790. [doi]  [abs]
9. Ceasrine, AM; Lin, EE; Lumelsky, DN; Iyer, R; Kuruvilla, R (2018). Adrb2 controls glucose homeostasis by developmental regulation of pancreatic islet vasculature.. Elife, 7, e39689. [doi]  [abs]
10. Leung, W; Shaffer, CD; Chen, EJ; Quisenberry, TJ; Ko, K; Braverman, JM; Giarla, TC; Mortimer, NT; Reed, LK; Smith, ST; Robic, S; McCartha, SR; Perry, DR; Prescod, LM; Sheppard, ZA; Saville, KJ; McClish, A; Morlock, EA; Sochor, VR; Stanton, B; Veysey-White, IC; Revie, D; Jimenez, LA; Palomino, JJ; Patao, MD; Patao, SM; Himelblau, ET; Campbell, JD; Hertz, AL; McEvilly, MF; Wagner, AR; Youngblom, J; Bedi, B; Bettincourt, J; Duso, E; Her, M; Hilton, W; House, S; Karimi, M; Kumimoto, K; Lee, R; Lopez, D; Odisho, G; Prasad, R; Robbins, HL; Sandhu, T; Selfridge, T; Tsukashima, K; Yosif, H; Kokan, NP; Britt, L; Zoellner, A; Spana, EP; Chlebina, BT; Chong, I; Friedman, H; Mammo, DA; Ng, CL; Nikam, VS; Schwartz, NU; Xu, TQ; Burg, MG; Batten, SM; Corbeill, LM; Enoch, E; Ensign, JJ; Franks, ME; Haiker, B; Ingles, JA; Kirkland, LD; Lorenz-Guertin, JM; Matthews, J; Mittig, CM; Monsma, N; Olson, KJ; Perez-Aragon, G; Ramic, A; Ramirez, JR; Scheiber, C; Schneider, PA; Schultz, DE; Simon, M; Spencer, E; Wernette, AC; Wykle, ME; Zavala-Arellano, E; McDonald, MJ; Ostby, K; Wendland, P; DiAngelo, JR; Ceasrine, AM; Cox, AH; Docherty, JEB; Gingras, RM; Grieb, SM; Pavia, MJ; Personius, CL; Polak, GL; Beach, DL; Cerritos, HL; Horansky, EA; Sharif, KA; Moran, R; Parrish, S; Bickford, K; Bland, J; Broussard, J; Campbell, K; Deibel, KE; Forka, R; Lemke, MC; Nelson, MB; O'Keeffe, C; Ramey, SM; Schmidt, L; Villegas, P; Jones, CJ; Christ, SL; Mamari, S; Rinaldi, AS; Stity, G; Hark, AT; Scheuerman, M; Silver Key, SC; McRae, BD; Haberman, AS; Asinof, S; Carrington, H; Drumm, K; Embry, T; McGuire, R; Miller-Foreman, D; Rosen, S; Safa, N; Schultz, D; Segal, M; Shevin, Y; Svoronos, P; Vuong, T; Skuse, G; Paetkau, DW; Bridgman, RK; Brown, CM; Carroll, AR; Gifford, FM; Gillespie, JB; Herman, SE; Holtcamp, KL; Host, MA; Hussey, G; Kramer, DM; Lawrence, JQ; Martin, MM; Niemiec, EN; O'Reilly, AP; Pahl, OA; Quintana, G; Rettie, EAS; Richardson, TL; Rodriguez, AE; Rodriguez, MO; Schiraldi, L; Smith, JJ; Sugrue, KF; Suriano, LJ; Takach, KE; Vasquez, AM; Velez, X; Villafuerte, EJ; Vives, LT; Zellmer, VR; Hauke, J; Hauser, CR; Barker, K; Cannon, L; Parsamian, P; Parsons, S; Wichman, Z; Bazinet, CW; Johnson, DE; Bangura, A; Black, JA; Chevee, V; Einsteen, SA; Hilton, SK; Kollmer, M; Nadendla, R; Stamm, J; Fafara-Thompson, AE; Gygi, AM; Ogawa, EE; Van Camp, M; Kocsisova, Z; Leatherman, JL; Modahl, CM; Rubin, MR; Apiz-Saab, SS; Arias-Mejias, SM; Carrion-Ortiz, CF; Claudio-Vazquez, PN; Espada-Green, DM; Feliciano-Camacho, M; Gonzalez-Bonilla, KM; Taboas-Arroyo, M; Vargas-Franco, D; Montañez-Gonzalez, R; Perez-Otero, J; Rivera-Burgos, M; Rivera-Rosario, FJ; Eisler, HL; Alexander, J; Begley, SK; Gabbard, D; Allen, RJ; Aung, WY; Barshop, WD; Boozalis, A; Chu, VP; Davis, JS; Duggal, RN; Franklin, R; Gavinski, K; Gebreyesus, H; Gong, HZ; Greenstein, RA; Guo, AD; Hanson, C; Homa, KE; Hsu, SC; Huang, Y; Huo, L; Jacobs, S; Jia, S; Jung, KL; Wai-Chee Kong, S; Kroll, MR; Lee, BM; Lee, PF; Levine, KM; Li, AS; Liu, C; Liu, MM; Lousararian, AP; Lowery, PB; Mallya, AP; Marcus, JE; Ng, PC; Nguyen, HP; Patel, R; Precht, H; Rastogi, S; Sarezky, JM; Schefkind, A; Schultz, MB; Shen, D; Skorupa, T; Spies, NC; Stancu, G; Vivian Tsang, HM; Turski, AL; Venkat, R; Waldman, LE; Wang, K; Wang, T; Wei, JW; Wu, DY; Xiong, DD; Yu, J; Zhou, K; McNeil, GP; Fernandez, RW; Menzies, PG; Gu, T; Buhler, J; Mardis, ER; Elgin, SCR (2017). Retrotransposons Are the Major Contributors to the Expansion of the Drosophila ananassae Muller F Element.. G3 (Bethesda, Md.), 7(8), 2439-2460. [doi]  [abs]
11. Houtz, J; Borden, P; Ceasrine, A; Minichiello, L; Kuruvilla, R (2016). Neurotrophin Signaling Is Required for Glucose-Induced Insulin Secretion.. Developmental Cell, 39(3), 329-345. [doi]  [abs]
12. Wang, G; Rajpurohit, SK; Delaspre, F; Walker, SL; White, DT; Ceasrine, A; Kuruvilla, R; Li, R-J; Shim, JS; Liu, JO; Parsons, MJ; Mumm, JS (2015). First quantitative high-throughput screen in zebrafish identifies novel pathways for increasing pancreatic β-cell mass.. Elife, 4. [doi]  [abs]
13. Otis, JP; Zeituni, EM; Thierer, JH; Anderson, JL; Brown, AC; Boehm, ED; Cerchione, DM; Ceasrine, AM; Avraham-Davidi, I; Tempelhof, H; Yaniv, K; Farber, SA (2015). Zebrafish as a model for apolipoprotein biology: comprehensive expression analysis and a role for ApoA-IV in regulating food intake.. Disease Models & Mechanisms, 8(3), 295-309. [doi]  [abs]