OSCR

A symmetric systemic challenge elicits a right-biased response mediated by vasopressin signaling.

Code ↔ Paper

4 matches between paragraphs of the paper and lines of its authors' code, computed by the harvester (lexical-v1). Click a colored paragraph or line to see its counterpart.

The 4 matches
  1. [1] § MATERIALS AND METHODS › Statistical analysis › Processing of physiological data › Stretching force ↔ force_measurement/report_SF_preprocess.Rmd, lines 21–44 · score 0.70 · stretching force measurements, loess smoothing, hind limbs, 0–10 mm, distance, WL
  2. [2] § MATERIALS AND METHODS › Statistical analysis › Processing of physiological data › Bayesian framework ↔ BayesianPValue.R, lines 1–50 · score 0.67 · Bayesian framework, RStan, interface, brms, emmeans
  3. [3] § MATERIALS AND METHODS › Statistical analysis › Processing of physiological data › Stretching force ↔ force_measurement/task_2/report_SF_AI.Rmd, lines 21–49 · score 0.64 · loess smoothing, stretching force measurements, hind limbs, 0–10 mm, distance, WL
  4. [4] § MATERIALS AND METHODS › Statistical analysis › Processing of physiological data › Bayesian framework ↔ force_measurement/task_1/report_SF_AI.Rmd, lines 95–143 · score 0.53 · student_t, Bayesian regression, brms, SD, chains, Predictors

Paper

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The authors' code

R Markdown · 466 lines · 12 KB · MIT · 1 match

  1. ---
  2. title: 'SF: Read and preprocess raw stretch force measurements 1 and 3'
  3. author: "Yaromir Kobikov <[email hidden]>"
  4. date: "Date: `r format(Sys.time(), '%d/%m/%Y')`"
  5. output:
  6. word_document: default
  7. html_document:
  8. toc: true
  9. toc_float:
  10. collapsed: false
  11. editor_options:
  12. chunk_output_type: inline
  13. ---
  14. ```{r setup, include=FALSE}
  15. source("../BayesianPValue.R")
  16. ```
  17. > **Stretch‑force experiments with symmetric WD groups.**
  18. > Force–distance curves from both hind limbs were recorded simultaneously after bilateral peptide injection.
  19. > Mechanical work for each limb (WL, WR) was obtained by integrating a loess‑smoothed force curve (span = 0.4, family = "symmetric") over 0–10 mm stretch.
  20. > Asymmetry was quantified as the work difference ΔW = WL − WR and the log‑ratio AI<sub>L/R</sub> = log₂(WL / WR).
  21. ## Read stretch force (SF) data
  22. Read raw sampled forces and match them with rat's descriptions
  23. ```{r config_vars, echo=FALSE}
  24. PATH_DIR_ROOT <- "../data"
  25. PATH_FOLDER_FORCE_MEASUREMENT <- "../data/Force-WD-20240513/"
  26. PATH_SF_DATA_CSV <- paste0(PATH_FOLDER_FORCE_MEASUREMENT, "sf_source_data_20260125.csv")
  27. FILE_NAME = '-ForceValues.xlsx'
  28. PATTERN = paste0('*', FILE_NAME)
  29. DESCRIPTION_FILE_NAME <- "WD_PA 25 12 26_1_v2.xlsx"
  30. SHEET <- "DATA_25 12 25" # for description
  31. TEST_NUM_FILES <- 55
  32. ```
  33. ```{r}
  34. correctDate <- Vectorize(function(date, pattern, sep="-") {
  35. dateSplit <- str_split(date, pattern)[[1]]
  36. return(paste0(dateSplit[1], sep, dateSplit[2], sep, dateSplit[3]))
  37. })
  38. read.StretchForce <- function(RatFile, show=TRUE) {
  39. ratName <- sub(FILE_NAME, "", basename(RatFile), fixed = TRUE)
  40. ratNum <- str_split(ratName, "SDU")[[1]][2]
  41. ratName <- paste0("SDU", "-", ratNum)
  42. sheetNames <- RatFile %>%
  43. excel_sheets() %>%
  44. as_tibble %>%
  45. filter(grepl(pattern = "F([0-9]+)", value))
  46. df <-
  47. map_df(
  48. .x = sheetNames$value,
  49. ~read_excel(path = RatFile, sheet = .x, range = cell_cols("A:C")),
  50. .id = "replication"
  51. ) %>%
  52. mutate(RatID = ratName) %>%
  53. relocate(RatID, .before = replication)
  54. if(show) print(paste0(ratName, " -> ", toString(count(sheetNames)$n), ", ", count(df)$n))
  55. return(df)
  56. }
  57. my.rwData <- function() {
  58. # if(file.exists(PATH_SF_DATA_CSV)) {
  59. # print(paste0("File ", " - ", PATH_SF_DATA_CSV, " - exists"))
  60. # return(read_csv(PATH_SF_DATA_CSV, show_col_types = FALSE))
  61. # }
  62. print("In process...")
  63. sf <-
  64. map_df(
  65. .x = list.files(path = PATH_FOLDER_FORCE_MEASUREMENT, pattern = PATTERN, full.names = TRUE),
  66. ~read.StretchForce(.x)
  67. )
  68. if(length(unique(sf$RatID)) == TEST_NUM_FILES) print(paste0(TEST_NUM_FILES, " - ", "OK"))
  69. # match rat's description with raw force measurements
  70. rats_description <-
  71. file.path(PATH_DIR_ROOT, DESCRIPTION_FILE_NAME) %>%
  72. read_excel(SHEET, .name_repair = "universal", na = c("", "NA", "NULL")) %>%
  73. rename(
  74. BW_pre = BW..pre.,
  75. BW_post = BW..post.
  76. # Measurement.1 = Measurement.1,
  77. # Measurement.3 = Measurement.3
  78. ) %>%
  79. select(
  80. RatID,
  81. Measurement1,
  82. Measurement3,
  83. BW_pre, BW_post,
  84. MP.1.1, MP.1.2, MP.1.3,
  85. MP.3.1, MP.3.2, MP.3.3
  86. ) %>%
  87. rename_with(
  88. ~ sub("^MP\\.(\\d+)\\.(\\d+)$", "PA\\1.\\2", .x),
  89. .cols = matches("^MP\\.(1|3)\\.(1|2|3)$")
  90. ) %>%
  91. mutate(RatID = factor(RatID),
  92. Trt1 = factor(Measurement1, c("24H WD", "Control 1")),
  93. Trt3 = factor(Measurement3, c("Sp", "Control 1", "Control 2", "Control 3", "SSR", "Conivaptan"))
  94. ) %>%
  95. filter(
  96. (!is.na(Trt1) & Trt1 != "") |
  97. (!is.na(Trt3) & Trt3 != "")
  98. )
  99. print(rats_description, n=100)
  100. #
  101. # print(rats_description %>%
  102. # count(Measurement3, sort = TRUE) %>%
  103. # filter(grepl("Coniv", Measurement3, ignore.case = TRUE)))
  104. sf <-
  105. merge(sf, rats_description, by = "RatID", all.x = TRUE, all.y = TRUE, sort = FALSE) %>%
  106. select(-`s"Time"`) %>%
  107. mutate(rep_i = as.integer(replication)) %>%
  108. # Decide which reps correspond to 24H and 2_3H based on rep count per RatID
  109. group_by(RatID) %>%
  110. mutate(
  111. n_rep = n_distinct(rep_i),
  112. # 24H always uses MP1.1-1.3 => reps 1:3 (if present)
  113. use_24H = rep_i %in% 1:3,
  114. # 2_3H uses MP3.1-3.3, but its rep positions depend on n_rep
  115. use_2_3H = case_when(
  116. n_rep %in% c(3, 6, 12) ~ FALSE, # no MP3.1-3.3
  117. n_rep %in% c(9, 14, 15) ~ rep_i %in% 7:9, # MP3.1-3.3
  118. n_rep >= 30 ~ rep_i %in% 13:15, # MP3.1-3.3
  119. # fallback for "other" counts (e.g., 18, 36, 37...):
  120. # if those reps exist, use them
  121. TRUE ~ case_when(
  122. all(13:15 %in% unique(rep_i)) ~ rep_i %in% 13:15,
  123. all(7:9 %in% unique(rep_i)) ~ rep_i %in% 7:9,
  124. TRUE ~ FALSE
  125. )
  126. ),
  127. Period = case_when(
  128. use_24H ~ "24H",
  129. use_2_3H ~ "2_3H",
  130. TRUE ~ NA_character_
  131. ),
  132. Period = factor(Period, levels = c("24H", "2_3H")),
  133. Trt = case_when(
  134. use_24H ~ Trt1,
  135. use_2_3H ~ Trt3,
  136. TRUE ~ NA
  137. )
  138. ) %>%
  139. ungroup() %>%
  140. # keep only selected reps
  141. filter(!is.na(Period)) %>%
  142. pivot_longer(
  143. cols = c("Left", "Right"),
  144. names_to = "Side",
  145. values_to = "SF"
  146. ) %>%
  147. mutate(SF = SF * (-1)) %>%
  148. # keep only rows where treatment exists for that period
  149. filter(!is.na(Trt), Trt != "")
  150. write_csv(x = sf, PATH_SF_DATA_CSV)
  151. return(sf)
  152. }
  153. ```
  154. ```{r input, results='hide'}
  155. myspan <- 0.4
  156. myname0 <- paste0("SF loess(symmetric span=", myspan, ")")
  157. data <- my.rwData()
  158. sf <-
  159. data %>%
  160. rename(repN = replication) %>%
  161. mutate(
  162. RatID = factor(RatID),
  163. # MS = factor(MS, c("Left", "Right"), c("L", "R")),
  164. # Later = factor(OperationSide == MS, c(FALSE, TRUE), c("Contra", "Ipsi")),
  165. # Trt = paste0(Trt, ".", OperationSide),
  166. Trt = factor(Trt),
  167. repN = factor(as.integer(repN))
  168. )
  169. # sf[!complete.cases(sf), c("RatID", "Trt", "repN", "SF")] # Any unmatched rats? Any unmeasured forces?
  170. ```
  171. The group sizes are (distinct rats only, same rats with different stimulation locations are counted as duplicates)
  172. ```{r dataset_n, echo=FALSE}
  173. d.sum <- sf %>%
  174. arrange(Trt, Period) %>%
  175. group_by(Trt, Period) %>%
  176. summarise(rats = length(unique(RatID))) %>%
  177. pivot_wider(names_from=c(Trt), values_from = rats)
  178. d.sum %>%
  179. flextable %>%
  180. fontsize(part = "header", size = 9) %>%
  181. autofit
  182. ```
  183. ## SF, 0-2 sec: Visual inspection of smoothing
  184. <!-- Filter 0-2 sec measurements, taking extra 0.5s for better smoothing. -->
  185. ```{r SF_combo_dta}
  186. mydta <- sf %>%
  187. filter(!is.na(SF)) %>%
  188. droplevels(.) %>%
  189. mutate(figName = paste0(RatID, ", ", Trt, ", replicate ", repN)) %>%
  190. select(figName, Period, Time, Side, Trt, SF) %>%
  191. # filter(figName == "SDU-115, 3h.BNI.L, replicate 12") %>%
  192. group_by(figName)
  193. ```
  194. Stretch force figure combining Contra, Ipsi and their difference.
  195. ```{r example_12_rep, echo=FALSE, fig.width=12, fig.height=8}
  196. myspan <- 0.4
  197. name_fig <- "SDU-005, 24H WD, replicate 1"
  198. name_plt <- paste0("raw ", name_fig)
  199. plt[[name_plt]] <-
  200. mydta %>%
  201. filter( figName == name_fig) %>%
  202. # pivot_wider(names_from = Later, values_from = SF) %>%
  203. # mutate(
  204. # "Contra - Ipsi" = Contra - Ipsi
  205. # ) %>%
  206. # pivot_longer(c("Contra", "Ipsi", "Contra - Ipsi"), names_to = "Limbs", values_to = "SF") %>%
  207. ggplot(aes(x = Time, y = SF, group = Side, col = Side)) +
  208. geom_line() +
  209. geom_smooth(
  210. formula = y ~ x,
  211. aes(col = paste0("loess ", myspan)),
  212. method ="loess",
  213. span = myspan,
  214. se = FALSE,
  215. method.args = list(family="symmetric")
  216. ) +
  217. labs(
  218. title = paste0(myname0, ", ", name_fig),
  219. x = "Time (sec)",
  220. y = "Stretching force (mg)"
  221. )
  222. print(plt[[name_plt]])
  223. ```
  224. ```{r}
  225. doc <- read_pptx()
  226. for(nm in names(plt)) {
  227. doc <- doc %>%
  228. add_slide(
  229. layout = "Title and Content",
  230. master = "Office Theme"
  231. ) %>%
  232. ph_with(
  233. value = rvg::dml(ggobj = plt[[nm]]),
  234. location = ph_location_type(
  235. type = "body"
  236. #, width=S_width,
  237. # height=S_height
  238. ),
  239. bg = "transparent"
  240. ) %>%
  241. ph_with(
  242. value = nm,
  243. location = ph_location_type(type = "title")
  244. )
  245. }
  246. doc %>% print(target = paste0("SF loess(symmetric span0.4)", ".pptx"))
  247. ```
  248. Visually check the smoothing by loess(), varying the "span" to see if alternatives are better than our choice.
  249. ```{r check_loess, include=FALSE}
  250. myspan.test <- 0.4
  251. junk <- mydta %>%
  252. group_map( ~{
  253. theName <- paste(.y)
  254. ggplot(data=.x, aes(y = SF, x = Time, group = Side, col = Side)) +
  255. geom_line() +
  256. geom_smooth(formula = y ~ x, aes(col = paste0(myspan.test + 0.1)), method="loess", span = myspan.test + 0.1, se=FALSE, method.args=list(family="symmetric")) +
  257. geom_smooth(formula = y ~ x, aes(col = paste0(myspan.test - 0.1)), method="loess", span = myspan.test - 0.1, se=FALSE, method.args=list(family="symmetric")) +
  258. geom_smooth(formula = y ~ x, aes(col = paste0(myspan.test)), method="loess", span=myspan.test, se=FALSE, method.args=list(family="symmetric")) +
  259. # theme(legend.position = "none") +
  260. labs(title=paste(myname0, theName), x="Time (sec)", y="Stretching force (mg)")
  261. } ) %>%
  262. setNames(unique(sort(mydta$figName)))
  263. mydta %>% n_groups()
  264. ```
  265. ```{r write_pptx_check_loess, echo=FALSE, fig.width=12, fig.height=8}
  266. for(nm in unique(mydta$figName)) {
  267. print(junk[[nm]])
  268. }
  269. doc <- read_pptx()
  270. for(nm in unique(mydta$figName)) {
  271. doc <- doc %>%
  272. add_slide(
  273. layout = "Title and Content",
  274. master = "Office Theme"
  275. ) %>%
  276. ph_with(
  277. value = rvg::dml(ggobj = junk[[nm]]),
  278. location = ph_location_type(
  279. type = "body"
  280. #, width=S_width,
  281. # height=S_height
  282. ),
  283. bg = "transparent"
  284. ) %>%
  285. ph_with(
  286. value = nm,
  287. location = ph_location_type(type = "title")
  288. )
  289. }
  290. doc %>% print(target = paste0(myname0, "_0.4_.pptx"))
  291. ```
  292. Define smoother for all Time points.
  293. ```{r smoother_W_AI}
  294. # 0-1 0.4-1 1-2 0-2 0.4-2
  295. smoother_W <- function(dta, ...) {
  296. # dtaF <- dta %>% filter(Time < 10.5, !is.na(SF))
  297. dtaF <- dta %>% filter(!is.na(SF))
  298. if(nrow(dtaF) < 1 | ncol(dtaF) < 2) {
  299. print(dta)
  300. return(data.frame())
  301. }
  302. my.sm <- loess(SF~Time, data=dtaF, family="symmetric", span=myspan)
  303. i_0_1 <- integrate(function(x) predict(my.sm, newdata=x), 0, 1)
  304. i_0_4_1 <- integrate(function(x) predict(my.sm, newdata=x), 0.4, 1)
  305. i_1_2 <- integrate(function(x) predict(my.sm, newdata=x), 1, 2)
  306. i_0_2 <- integrate(function(x) predict(my.sm, newdata=x), 0, 2)
  307. i_0_4_2 <- integrate(function(x) predict(my.sm, newdata=x), 0.4, 2)
  308. data.frame(
  309. dT = c(
  310. "T_0_1",
  311. "T_0.4_1",
  312. "T_1_2",
  313. "T_0_2",
  314. "T_0.4_2"
  315. ),
  316. W = c(
  317. i_0_1$value,
  318. i_0_4_1$value,
  319. i_1_2$value,
  320. i_0_2$value,
  321. i_0_4_2$value
  322. )
  323. )
  324. }
  325. ```
  326. Remove unneded columns from SF dataset
  327. ```{r clean_SF}
  328. sf_ai_dw <-
  329. sf %>%
  330. # filter(RatID == "TBI-250", Trt %in% c("UBI.R")) %>%
  331. select(Trt, Period, RatID, repN, Side, Time, SF) %>%
  332. ungroup %>%
  333. arrange(Trt, RatID, repN, Side, Time)
  334. ```
  335. Compute work (W) as integrals (0-1 sec, 0.4-1 sec, ...) of smoothed force measurements. dW = W_Left - W_Right
  336. ```{r compute_W_LR}
  337. sf_LR_dW <- sf_ai_dw %>%
  338. group_by(Trt, Period, RatID, repN) %>%
  339. pivot_wider(names_from = Side, values_from = SF) %>%
  340. # spread(MS, SF) %>%
  341. mutate( SF = Left - Right ) %>%
  342. group_modify(smoother_W) %>%
  343. ungroup %>%
  344. droplevels(.)
  345. ```
  346. Compute AI = log2(Left/Right) using integrals (0-1 sec, 0.4-1 sec, ...) of smoothed force measurements.
  347. ```{r compute_AI_LR}
  348. sf_LR_AI <- sf_ai_dw %>%
  349. group_by(Trt, Period, RatID, repN, Side) %>%
  350. group_modify(smoother_W) %>%
  351. ungroup %>%
  352. group_by(RatID, Trt, repN, dT) %>%
  353. pivot_wider(names_from = Side, values_from = W) %>%
  354. # spread(MS, W) %>%
  355. mutate( AI = log2( Left / Right ) ) %>%
  356. ungroup %>%
  357. droplevels(.)
  358. ```
  359. Save preprocessed SF
  360. ```{r smooth}
  361. myname <- paste0("SF Sp 0-1 0.4-1 1-2 0-2 0.4-2 loess(symmetric span", myspan, ")")
  362. save(sf_LR_dW, sf_LR_AI, sf, file=paste0(myname, "_rats.RData"))
  363. ```

report_SF_preprocess.Rmd at commit e5adf0d, under MIT · at the source

Overview

Authors: Hiroyuki Watanabe1,2, Yaromir Kobikov1, Sara Yusuf Mohamed2, Karen Rich2, Daniil Sarkisyan3, Olga Nosova1, Alfhild Grönbladh1, Mathias Hallberg1, Jens Schouenborg4, Georgy Bakalkin1, Mengliang Zhang2
  1. Department of Pharmaceutical Biosciences Uppsala University Uppsala Sweden
  2. Department of Molecular Medicine University of Southern Denmark Odense M Denmark
  3. Department of Immunology, Genetics and Pathology and Science for Life Laboratory Uppsala University Uppsala Sweden
  4. Neuronano Research Center, Department of Experimental Medical Science Lund University Lund Sweden
Journal: Journal of neuroendocrinology, volume 38, issue 9, article e70257
Dates: received 13 April 2026; accepted 26 August 2026; published online 6 September 2026; in print September 2026
Type: Research article · Language: English
License: CC BY
Identifiers: DOI 10.1111/jne.70257 · PMID 42702826 · PMCID PMC13547646 · OpenAlex W7133516019
Open access: hybrid, a free copy (OpenAlex)
Status: code verified
Categories: rat (organism), cellular / molecular (subfield)
Methods: Statistics
Keywords: functional asymmetry, left–right balance, symmetric systemic challenge, vasopressin, water deprivation
MeSH: Arginine Vasopressin*, Functional Laterality*, Signal Transduction*, Vasopressins*, Water Deprivation*, Animals, Antidiuretic Hormone Receptor Antagonists, Dehydration, Hindlimb, Hypothalamus, Male, Posture, Rats, Rats, Sprague-Dawley, Receptors, Vasopressin (* major topic)
Topic: Hemispheric Asymmetry in Neuroscience (Cognitive Neuroscience, Neuroscience), according to OpenAlex
Funding: Vetenskapsrådet (VR) (2022‐01182); Novo Nordisk Fonden (NNF20OC0065099)
Citations: not cited yet (Europe PMC); 72 references in the paper

Abstract

Bilaterian animals exhibit functional asymmetry—population‐level, directional left–right differences in physiology and behavior, including responses to spatially symmetric environmental challenges. Whether such symmetry‐to‐asymmetry conversion can be driven at the systems level by neurohormonal regulators remains unclear. Here we tested whether a spatially symmetric neuroendocrine challenge—water deprivation (WD)—can elicit a directional left–right physiological response in rats using hindlimb postural asymmetry (HL‐PA), a binary readout that quantifies left‐ versus right‐sided hindlimb flexion. Twenty‐four hours of WD induced robust HL‐PA with right hindlimb flexion, revealed under anesthesia. The asymmetry persisted after complete thoracic spinal cord transection, suggesting that humoral signaling, rather than descending neural commands, maintains the postural bias. Dehydration activated the hypothalamic arginine vasopressin (AVP) system. Furthermore, a V1B antagonist (SSR‐149415) and a V1A/V2 antagonist (conivaptan) abolished and partially attenuated WD‐induced HL‐PA, respectively, supporting an AVP‐dependent mechanism that likely operates at least two anatomical sites. AVP signaling may involve pituitary V1B‐dependent endocrine output and spinal V1A actions; consistent with the latter, expression of AVP V1A receptors is right‐biased in lumbar spinal cord. Together, these findings identify WD as a symmetric systemic challenge capable of unmasking a directional peripheral bias and implicate vasopressin signaling in left–right physiological regulation. More broadly, they suggest that symmetric homeostatic challenges engage neuroendocrine mechanisms that shift the balance between left‐ and right‐sided physiological functions.

Reproduced under the paper's license (CC BY), from the paper cited above.

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YaromirKo/biostatistics-wd

License: MIT
State: the link answers, verified on 26 September 2026
Evidence: files inventoried
Commit: e5adf0d53cbc24f9a6c30099b0874064dcdb87ea, 31 August 2026
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Size: 86 files, 23 scripts
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Found in: “DATA AVAILABILITY STATEMENT”
Holds: README, license file, 22 notebooks
Not found: CITATION.cff, environment file, tests, continuous integration, documentation
Tools: tidyverse (2 files), brms (1 file), cowplot (1 file), emmeans (1 file), patchwork (1 file), Stan (1 file)
Availability: 1 check, the latest on 26 September 2026: the link answers
  • 26 September 2026: the link answers
25 files

The paper's code and data availability statement is in the Data section.

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Data availability statement

The data that support the findings of this study are available on request from the corresponding author. Data supporting the findings of this study and all codes used for analysis are available within the article, its Supporting Information and on https://github.com/YaromirKo/biostatistics-wd.

Reproduced under the paper's license (CC BY), from the paper cited above.

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Recorded: type, language, journal, volume, issue, pages, dates, 11 authors, 5 keywords, 15 MeSH terms, 2 funders, 66 references.

Cite

This paper

Watanabe, H., Kobikov, Y., Mohamed, S. Y., Rich, K., Sarkisyan, D., Nosova, O., Grönbladh, A., Hallberg, M., Schouenborg, J., Bakalkin, G., & Zhang, M. (2026). A symmetric systemic challenge elicits a right-biased response mediated by vasopressin signaling. Journal of neuroendocrinology, 38(9), e70257. https://doi.org/10.1111/jne.70257

BibTeX

@article{watanabe2026symmetric,
author = {Watanabe, Hiroyuki and Kobikov, Yaromir and Mohamed, Sara Yusuf and Rich, Karen and Sarkisyan, Daniil and Nosova, Olga and Grönbladh, Alfhild and Hallberg, Mathias and Schouenborg, Jens and Bakalkin, Georgy and Zhang, Mengliang},
title = {{A symmetric systemic challenge elicits a right-biased response mediated by vasopressin signaling}},
journal = {Journal of neuroendocrinology},
year = {2026},
month = sep,
volume = {38},
number = {9},
pages = {e70257},
publisher = {Wiley},
issn = {0953-8194},
doi = {10.1111/jne.70257},
url = {https://doi.org/10.1111/jne.70257},
pmid = {42702826},
pmcid = {PMC13547646}
}

RIS

TY - JOUR
AU - Watanabe, Hiroyuki
AU - Kobikov, Yaromir
AU - Mohamed, Sara Yusuf
AU - Rich, Karen
AU - Sarkisyan, Daniil
AU - Nosova, Olga
AU - Grönbladh, Alfhild
AU - Hallberg, Mathias
AU - Schouenborg, Jens
AU - Bakalkin, Georgy
AU - Zhang, Mengliang
TI - A symmetric systemic challenge elicits a right-biased response mediated by vasopressin signaling
T2 - Journal of neuroendocrinology
J2 - J Neuroendocrinol
PY - 2026
DA - 2026/09/01
VL - 38
IS - 9
SP - e70257
SN - 0953-8194
PB - Wiley
DO - 10.1111/jne.70257
UR - https://doi.org/10.1111/jne.70257
LA - en
ER -

CSL-JSON

{
"id": "10.1111/jne.70257",
"type": "article-journal",
"title": "A symmetric systemic challenge elicits a right-biased response mediated by vasopressin signaling",
"container-title": "Journal of neuroendocrinology",
"author": [
{
"family": "Watanabe",
"given": "Hiroyuki"
},
{
"family": "Kobikov",
"given": "Yaromir"
},
{
"family": "Mohamed",
"given": "Sara Yusuf"
},
{
"family": "Rich",
"given": "Karen"
},
{
"family": "Sarkisyan",
"given": "Daniil"
},
{
"family": "Nosova",
"given": "Olga"
},
{
"family": "Grönbladh",
"given": "Alfhild"
},
{
"family": "Hallberg",
"given": "Mathias"
},
{
"family": "Schouenborg",
"given": "Jens"
},
{
"family": "Bakalkin",
"given": "Georgy"
},
{
"family": "Zhang",
"given": "Mengliang"
}
],
"container-title-short": "J Neuroendocrinol",
"volume": "38",
"issue": "9",
"page": "e70257",
"DOI": "10.1111/jne.70257",
"PMID": "42702826",
"PMCID": "PMC13547646",
"ISSN": "0953-8194",
"publisher": "Wiley",
"URL": "https://doi.org/10.1111/jne.70257",
"language": "en",
"issued": {
"date-parts": [
[
2026,
9,
1
]
]
}
}

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