Summary of Study ST000120
This data is available at the NIH Common Fund's National Metabolomics Data Repository (NMDR) website, the Metabolomics Workbench, https://www.metabolomicsworkbench.org, where it has been assigned Project ID PR000107. The data can be accessed directly via it's Project DOI: 10.21228/M8MK57 This work is supported by NIH grant, U2C- DK119886.
See: https://www.metabolomicsworkbench.org/about/howtocite.php
Study ID | ST000120 |
Study Title | Disruption of Zinc homeostasis can impair maternal glucocorticoid metabolism: consequences on the developing fetus |
Study Type | steroid panel in pregnant rats |
Study Summary | Steroids play a broad and vital role in regulation of gene expression, secondary sexual characteristics, maturation, reproduction, and neurological functions; but an imbalance in steroid metabolism is also linked to development and progression of many diseases including autism. Prenatal stress of different nature has been demonstrated to affect both the mother and the offspring. Adverse nutritional conditions during gestation can impair the maternal hypothalamic-pituitary-adrenal axis (HPA) and expose the fetus to high levels of glucocorticoids (GC). Evenwhen GC are required for normal brain development; an increased exposure of the fetus to GC as a consequence of prenatal stress can affect fetal hypothalamic-pituitary-gonad axis (HPG) development, impair neurogenesis, and have a long term impact on the offsprings mental health. Decreased zinc availability can occur during pregnancy as a consequence of different conditions (nutritional deficiency, infections, diabetes, alcohol consumption, and exposure to certain toxicants). Importantly, several of these gestational conditions have been linked to autism. In fact, alterations in maternal zinc homeostasis upon exposure to select environmental stressors (e.g. the phthalate plasticizer bis-2-ethylhexyl phthalate (DEHP)) that have become increasingly common since the industrial revolution may underlie the recent rise in the incidence of autism.Alterations in maternal zinc homeostasis could expose the fetus to high GC concentrations secondary to a high maternal GC production and/or to a decreased capacity of the placenta to metabolize GC to inactive metabolites. The overall goal of this proposal is to investigate if alterations in zinc homeostasis during gestation triggered by either a marginal zinc nutrition or exposure to an environmental pollutant (the phthalate plasticizer bis-2-ethylhexyl phthalate (DEHP)) can impair maternal and fetal endocrine signaling leading to impaired fetal brain development. |
Institute | University of California, Davis |
Department | Nutrition |
Laboratory | Gaikwad Lab |
Last Name | Kucera |
First Name | Heidi |
hrkucera@ucdavis.edu | |
Submit Date | 2014-09-30 |
Num Groups | 4 |
Total Subjects | 270 tissue/fluid samples |
Raw Data Available | No |
Analysis Type Detail | LC-MS |
Release Date | 2014-09-30 |
Release Version | 1 |
Select appropriate tab below to view additional metadata details:
Project:
Project ID: | PR000107 |
Project DOI: | doi: 10.21228/M8MK57 |
Project Title: | Disruption of Zinc homeostasis can impair maternal glucocorticoid metabolism: consequences on the developing fetus |
Project Type: | Pilot and Feasibility Projects |
Project Summary: | Steroids play a broad and vital role in regulation of gene expression, secondary sexual characteristics, maturation, reproduction, and neurological functions; but an imbalance in steroid metabolism is also linked to development and progression of many diseases including autism. Prenatal stress of different nature has been demonstrated to affect both the mother and the offspring. Adverse nutritional conditions during gestation can impair the maternal hypothalamic-pituitary-adrenal axis (HPA) and expose the fetus to high levels of glucocorticoids (GC). Evenwhen GC are required for normal brain development; an increased exposure of the fetus to GC as a consequence of prenatal stress can affect fetal hypothalamic-pituitary-gonad axis (HPG) development, impair neurogenesis, and have a long term impact on the offsprings mental health. Decreased zinc availability can occur during pregnancy as a consequence of different conditions (nutritional deficiency, infections, diabetes, alcohol consumption, and exposure to certain toxicants). Importantly, several of these gestational conditions have been linked to autism. In fact, alterations in maternal zinc homeostasis upon exposure to select environmental stressors (e.g. the phthalate plasticizer bis-2-ethylhexyl phthalate (DEHP)) that have become increasingly common since the industrial revolution may underlie the recent rise in the incidence of autism.Alterations in maternal zinc homeostasis could expose the fetus to high GC concentrations secondary to a high maternal GC production and/or to a decreased capacity of the placenta to metabolize GC to inactive metabolites. The overall goal of this proposal is to investigate if alterations in zinc homeostasis during gestation triggered by either a marginal zinc nutrition or exposure to an environmental pollutant (the phthalate plasticizer bis-2-ethylhexyl phthalate (DEHP)) can impair maternal and fetal endocrine signaling leading to impaired fetal brain development. |
Institute: | University of California, Davis |
Department: | Nutrition |
Laboratory: | Gaikwad Lab |
Last Name: | Gaikwad |
First Name: | Nilesh |
Email: | nwgaikwad@ucdavis.edu |
Phone: | 530-752-2906 |
Funding Source: | NIH 1U24DK097154 ; PI Fiehn, Oliver ; UC Davis WEST COAST CENTRAL COMPREHENSIVE METABOLOMICS RESOURCE CORE (WC3MRC) |
Subject:
Subject ID: | SU000139 |
Subject Type: | Animal |
Subject Species: | Rattus norvegicus |
Taxonomy ID: | 10116 |
Genotype Strain: | Sprague-Dawley Rats |
Age Or Age Range: | adult |
Weight Or Weight Range: | 200-225 g |
Gender: | Female |
Species Group: | Mammal |
Factors:
Subject type: Animal; Subject species: Rattus norvegicus (Factor headings shown in green)
mb_sample_id | local_sample_id | Tissue/Fluid | Treatment |
---|---|---|---|
SA006234 | 39 control Adrenal Dam | Adrenal gland | Control |
SA006235 | 40 control Adrenal Dam | Adrenal gland | Control |
SA006236 | 1 control Adrenal Dam | Adrenal gland | Control |
SA006237 | 28 control Adrenal Dam | Adrenal gland | Control |
SA006238 | 27 control Adrenal Dam | Adrenal gland | Control |
SA006239 | 3 control Adrenal Dam | Adrenal gland | Control |
SA006240 | 8 control Adrenal Dam | Adrenal gland | Control |
SA006241 | 9 control Adrenal Dam | Adrenal gland | Control |
SA006242 | 12 control Adrenal Dam | Adrenal gland | Control |
SA006243 | 18 C+D Adrenal Dam | Adrenal gland | Control + DEHP |
SA006244 | 26 C+D Adrenal Dam | Adrenal gland | Control + DEHP |
SA006245 | 42 C+D Adrenal Dam | Adrenal gland | Control + DEHP |
SA006246 | 31 C+D Adrenal Dam | Adrenal gland | Control + DEHP |
SA006247 | 36 C+D Adrenal Dam | Adrenal gland | Control + DEHP |
SA006248 | 29 C+D Adrenal Dam | Adrenal gland | Control + DEHP |
SA006249 | 10 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006250 | 11 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006251 | 5 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006252 | 41 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006253 | 32 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006254 | 19 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006255 | 14 MZD Adrenal Dam | Adrenal gland | Marginal Zinc deficient |
SA006256 | 25 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006257 | 37 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006258 | 23 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006259 | 33 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006260 | 16 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006261 | 2 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006262 | 4 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006263 | 22 MZ+D Adrenal Dam | Adrenal gland | Marginal Zinc deficient + DEHP |
SA006264 | 1 control AF | Amniotic fluid | Control |
SA006265 | 28 control AF | Amniotic fluid | Control |
SA006266 | 40 control AF | Amniotic fluid | Control |
SA006267 | 3 control AF | Amniotic fluid | Control |
SA006268 | 27 control AF | Amniotic fluid | Control |
SA006269 | 39 control AF | Amniotic fluid | Control |
SA006270 | 12 control AF | Amniotic fluid | Control |
SA006271 | 9 control AF | Amniotic fluid | Control |
SA006272 | 8 control AF | Amniotic fluid | Control |
SA006273 | 26 C+D AF | Amniotic fluid | Control + DEHP |
SA006274 | 31 C+D AF | Amniotic fluid | Control + DEHP |
SA006275 | 36 C+D AF | Amniotic fluid | Control + DEHP |
SA006276 | 18 C+D AF | Amniotic fluid | Control + DEHP |
SA006277 | 42 C+D AF | Amniotic fluid | Control + DEHP |
SA006278 | 29 C+D AF | Amniotic fluid | Control + DEHP |
SA006279 | 32 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006280 | 5 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006281 | 41 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006282 | 11 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006283 | 10 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006284 | 14 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006285 | 19 MZD AF | Amniotic fluid | Marginal Zinc deficient |
SA006286 | 33 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006287 | 37 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006288 | 25 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006289 | 4 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006290 | 16 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006291 | 22 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006292 | 23 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006293 | 2 MZ+D AF | Amniotic fluid | Marginal Zinc deficient + DEHP |
SA006324 | 27 control Brain Female | Fetal Female brain | Control |
SA006325 | 40 control Brain Female | Fetal Female brain | Control |
SA006326 | 39 control Brain Female | Fetal Female brain | Control |
SA006327 | 1 control Brain Female | Fetal Female brain | Control |
SA006328 | 12 control Brain Female | Fetal Female brain | Control |
SA006329 | 8 control Brain Female | Fetal Female brain | Control |
SA006330 | 28 control Brain Female | Fetal Female brain | Control |
SA006331 | 9 control Brain Female | Fetal Female brain | Control |
SA006332 | 3 control Brain Female | Fetal Female brain | Control |
SA006333 | 26 C+D Brain Female | Fetal Female brain | Control + DEHP |
SA006334 | 42 C+D Brain Female | Fetal Female brain | Control + DEHP |
SA006335 | 36 C+D Brain Female | Fetal Female brain | Control + DEHP |
SA006336 | 29 C+D Brain Female | Fetal Female brain | Control + DEHP |
SA006337 | 31 C+D Brain Female | Fetal Female brain | Control + DEHP |
SA006338 | 18 C+D Brain Female | Fetal Female brain | Control + DEHP |
SA006339 | 19 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006340 | 41 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006341 | 5 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006342 | 14 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006343 | 32 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006344 | 10 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006345 | 11 MZD Brain Female | Fetal Female brain | Marginal Zinc deficient |
SA006346 | 25 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006347 | 33 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006348 | 37 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006349 | 23 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006350 | 2 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006351 | 4 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006352 | 16 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006353 | 22 MZ+D Brain Female | Fetal Female brain | Marginal Zinc deficient + DEHP |
SA006294 | 39 control Liver F | Fetal Female Liver | Control |
SA006295 | 40 control Liver F | Fetal Female Liver | Control |
SA006296 | 3 control Liver F | Fetal Female Liver | Control |
SA006297 | 28 control Liver F | Fetal Female Liver | Control |
SA006298 | 1 control Liver F | Fetal Female Liver | Control |
SA006299 | 8 control Liver F | Fetal Female Liver | Control |
SA006300 | 9 control Liver F | Fetal Female Liver | Control |
SA006301 | 27 control Liver F | Fetal Female Liver | Control |
SA006302 | 12 control Liver F | Fetal Female Liver | Control |
SA006303 | 29 C+D Liver F | Fetal Female Liver | Control + DEHP |
Collection:
Collection ID: | CO000123 |
Collection Summary: | - |
Sample Type: | Adrenal gland |
Treatment:
Treatment ID: | TR000141 |
Sample Preparation:
Sampleprep ID: | SP000136 |
Sampleprep Summary: | Methanol: Water Extraction |
Sampleprep Protocol Filename: | NIH_WCMC_Oteiza_Method_GaikwadLab__SteroidAnalysis_2013-14.pdf |
Processing Method: | Homogenization and Solvent Removal w/ Speed Vac |
Processing Storage Conditions: | On Ice |
Extraction Method: | 1:1 Methanol: Water |
Extract Concentration Dilution: | 100mg or 1ml per 4ml 1:1 MeOH:H2O |
Extract Storage: | -80C |
Sample Resuspension: | 150ul CH3OH/H2O |
Organ: | Sprague-Dawley Maternal: Adrenal, liver, placenta, amniotic fluid Sprague-Dawley Fetal: Male and female brain, male and female liver |
Combined analysis:
Analysis ID | AN000202 |
---|---|
Analysis type | MS |
Chromatography type | Reversed phase |
Chromatography system | Waters Acquity |
Column | Waters Acquity HSS T3 (150 x 2.1mm,1.8um) |
MS Type | ESI |
MS instrument type | Triple quadrupole |
MS instrument name | Waters Xevo-TQ |
Ion Mode | POSITIVE |
Units | pmole/g |
Chromatography:
Chromatography ID: | CH000134 |
Chromatography Summary: | Targeted UPLC-MS/MS |
Instrument Name: | Waters Acquity |
Column Name: | Waters Acquity HSS T3 (150 x 2.1mm,1.8um) |
Flow Gradient: | 0-2 min 100% A (Water 0.1% formic acid) 0% B (CH3CN 0.1 % formic acid), 2-4 min 80% A, 4-9mins 45% A, 9-11 mins 20% A, 11-12 mins 100% A |
Flow Rate: | 0.15 ml/min |
Sample Injection: | 10ul |
Solvent A: | 100% water; 0.1% formic acid |
Solvent B: | 100% acetonitrile; 0.1% formic acid |
Analytical Time: | 12 mins |
Chromatography Type: | Reversed phase |
MS:
MS ID: | MS000165 |
Analysis ID: | AN000202 |
Instrument Name: | Waters Xevo-TQ |
Instrument Type: | Triple quadrupole |
MS Type: | ESI |
MS Comments: | ESI MS and MS/MS |
Ion Mode: | POSITIVE |
Capillary Voltage: | 3.0 kV |
Collision Gas: | N2 |
Ionization: | Electrospray Ionization |
Source Temperature: | 150C |
Desolvation Gas Flow: | 600 L/h |
Desolvation Temperature: | 350C |
Acquisition Parameters File: | CS_WCMC_Oteiza |
Processing Parameters File: | CS_WCMC_Oteiza |