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  • Neuroactive steroid  (2)
  • 104-643A; AGE; Albiespollenites spp.; Alnipollenites verus; Appendicidites spp.; Aquilapollenites spp.; Azolla spp.; Basopollis spp.; Caryapollenites simplex; Cedripites; Chenopodipollis spp.; Cicatricosisporites spp.; Comment; Compositoipollenites rhizophorus; Cupuliferoidaepollenites liblarensis; Cyclongranulates; Deltoidospora spp.; DEPTH, sediment/rock; DRILL; Drilling/drill rig; DSDP/ODP/IODP sample designation; Ericipites spp.; Foveosporites spp.; Gleicheniidites spp.; Hydrosporis azollensis; Ilexpollenites spp.; Inaperturopollenites hiatus; Joides Resolution; Laevigatosporites spp.; Leg104; Leotrilites spp.; Lycopodiumsporites spp.; Microfoveolatosporites spp.; Milfordia foveosporites; Momipites coryloides; Monocolpollenites spp.; Norwegian Sea; Nyssapollenites spp.; Ocean Drilling Program; ODP; Osmundacidites spp.; Pandaniidites spp.; Piceapollis spp.; Pinus spp.; Pistillipollenites mcgregorii; Platycaryapollenites platycaryoides; Podocarpidites spp.; Pollen, total; Pollen indeterminata; Polyatriopollenites spp.; Polypodiaceiosporites spp.; Porocolpopollenites vestibulum; Radialisporis spp.; Retitricolpites spp.; Salixpollenites spp.; Sample code/label; Sciadopityspollenites spp.; Sequoiapollenites polyformosus; Stereisporites spp.; Striamonoletes spp.; Subtriporopollenites spp.; Tetracolporopollenites spp.; Tiliaepollenites microreticulatus; Toriosporites spp.; Triatriopollenites subtriangulus; Tricolpites spp.; Tricolporopollenites spp.; Trilites spp.; Triplanosporites spp.; Triporopollenites plektosus; Triporopollenites robustus; Triporopollenites spp.; Trudopollis spp.; Tsuga spp.; Ulmus spp.; Verrucosisporites spp.  (1)
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  • 1
    ISSN: 1432-2072
    Keywords: Key words Anxiolytic ; Anxiety ; Benzodiazepine ; GABAA ; 5-HT1A ; Neuroactive steroid
    Source: Springer Online Journal Archives 1860-2000
    Topics: Medicine
    Notes: Abstract  Rationale: Conflict procedures used to detect anxiolytic-like activity of drugs often rely on maintaining strict schedules of water or food availability. It is ethically and practically desirable to reduce such states of deprivation in animal testing. Objective: The purpose of the present experiment was to develop and pharmacologically characterize a conflict drinking procedure that did not require the use of water-deprived animals. Methods: Rats were tested during daily sessions with alternating unpunished drinking (no tone: lick=sucrose solution) and signaled punished drinking (tone: lick=sucrose+shock) components, and developed individual steady baselines over a brief training period (approximately 3–4 weeks). The drugs tested i.p. were the positive allosteric modulators of γ-amino butyric acidA (GABA)A receptors, diazepam (0.03–30 mg/kg), chlordiazepoxide (0.03–30 mg/kg), lorazepam (0.03–10 mg/kg), zolpidem (0.3–10 mg/kg), pentobarbital (1–30 mg/kg), pregnanolone (1–30 mg/kg), and bretazenil (0.03– 10 mg/kg); the 5-hydroxy tryptamine1A (HT)1A-mediated anxiolytics, buspirone (1–10 mg/kg) and ipsapirone (1–17 mg/kg); and the negative controls d-amphetamine (0.3–3 mg/kg), haloperidol (0.01–0.3 mg/kg), morphine (0.3–17 mg/kg), and imipramine (0.3–30 mg/kg). Results: The experimental procedure was sensitive to increases in punished drinking by the GABAA-positive modulators, consistent with their known or putative anxiolytic activity. Further, the 5-HT1A-mediated anxiolytics increased punished drinking, although to a lesser extent and over a more narrow dose range than did the GABAergic drugs. In contrast, d-amphetamine, haloperidol, morphine, and imipramine failed to increase punished drinking up to doses that decreased unpunished drinking. Conclusions: The present results indicate that water deprivation is not a necessary condition to engender drinking conflict behavior or to obtain pharmacological effects similar to those obtained with other classical conflict procedures.
    Type of Medium: Electronic Resource
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  • 2
    ISSN: 1432-2072
    Keywords: Key words Allopregnanolone ; Pregnanolone ; Neurosteroid ; Neuroactive steroid ; Motor behavior ; Ethanol interaction ; Benzodiazepine ; Triazolam ; Diazepam
    Source: Springer Online Journal Archives 1860-2000
    Topics: Medicine
    Notes: Abstract Endogenous pregnane steroids, such as allopregnanolone (3α-hydroxy-5α-pregnan-20-one; 3α, 5α-P) and pregnanolone (3α-hydroxy-5β-pregnan-20-one; 3α,5β-P), allosterically modulate GABAA receptor function and exhibit behavioral effects similar to benzodiazepines, though acting at a distinct recognition site. Inasmuch as some positive allosteric modulators of GABAA receptor function exhibit profound interactions with ethanol, the effects of 3α,5α-P and 3α,5β-P were compared to those of two benzodiazepines, triazolam and diazepam, on the motor function of mice and rats when administered either alone or in combination with ethanol. All four test compounds exhibited dose-related impairment of motor function in the horizontal wire task in mice and the rotorod task in rats. Ethanol caused a marked enhancement of triazolam- and diazepam-induced motor impairment. In contrast, ethanol enhanced to a lesser extent the motor impairment induced by both neurosteroids in mice and not at all in rats. All four compounds increased ethanol-induced behavioral sleep time in mice, although the benzodiazepines did so at a much smaller fraction of their ataxic doses as compared to the neurosteroids. As one of the undesired side-effects of therapeutic use of benzodiazepines is their interaction with ethanol, development of neuroactive steroids as drugs may offer therapeutic advantages.
    Type of Medium: Electronic Resource
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  • 3
    Publication Date: 2024-01-09
    Keywords: 104-643A; AGE; Albiespollenites spp.; Alnipollenites verus; Appendicidites spp.; Aquilapollenites spp.; Azolla spp.; Basopollis spp.; Caryapollenites simplex; Cedripites; Chenopodipollis spp.; Cicatricosisporites spp.; Comment; Compositoipollenites rhizophorus; Cupuliferoidaepollenites liblarensis; Cyclongranulates; Deltoidospora spp.; DEPTH, sediment/rock; DRILL; Drilling/drill rig; DSDP/ODP/IODP sample designation; Ericipites spp.; Foveosporites spp.; Gleicheniidites spp.; Hydrosporis azollensis; Ilexpollenites spp.; Inaperturopollenites hiatus; Joides Resolution; Laevigatosporites spp.; Leg104; Leotrilites spp.; Lycopodiumsporites spp.; Microfoveolatosporites spp.; Milfordia foveosporites; Momipites coryloides; Monocolpollenites spp.; Norwegian Sea; Nyssapollenites spp.; Ocean Drilling Program; ODP; Osmundacidites spp.; Pandaniidites spp.; Piceapollis spp.; Pinus spp.; Pistillipollenites mcgregorii; Platycaryapollenites platycaryoides; Podocarpidites spp.; Pollen, total; Pollen indeterminata; Polyatriopollenites spp.; Polypodiaceiosporites spp.; Porocolpopollenites vestibulum; Radialisporis spp.; Retitricolpites spp.; Salixpollenites spp.; Sample code/label; Sciadopityspollenites spp.; Sequoiapollenites polyformosus; Stereisporites spp.; Striamonoletes spp.; Subtriporopollenites spp.; Tetracolporopollenites spp.; Tiliaepollenites microreticulatus; Toriosporites spp.; Triatriopollenites subtriangulus; Tricolpites spp.; Tricolporopollenites spp.; Trilites spp.; Triplanosporites spp.; Triporopollenites plektosus; Triporopollenites robustus; Triporopollenites spp.; Trudopollis spp.; Tsuga spp.; Ulmus spp.; Verrucosisporites spp.
    Type: Dataset
    Format: text/tab-separated-values, 1836 data points
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