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261 Artikel wurden gefunden.

Die folgenden Begriffe wurden einbezogen: "pineal gland", Pinealdrüse, Zirbeldrüse, Epiphyse, "epiphysis cerebri", "pineal body", 松果体, 松果腺

• 1994, Grota LJ, Reiter RJ, Keng P, Michaelson S
  [Details] Electric field exposure alters serum melatonin but not pineal melatonin synthesis in male rats [med./bio.]
  Bioelectromagnetics 15 (5): 427-437
• 2013, Halgamuge MN
  Critical time delay of the pineal melatonin rhythm in humans due to weak electromagnetic exposure [tech./dosim.]
  Indian J Biochem Biophys 50 (4): 259-265
• 2013, Halgamuge MN
  [Details] Pineal melatonin level disruption in humans due to electromagnetic fields and ICNIRP limits [Review]
  Radiat Prot Dosimetry 154 (4): 405-416
• 1999, Hansen VW, Bitz AK, Streckert JR
  RF Exposure of Biological Systems in Radial Waveguides [tech./dosim.]
  IEEE Trans Electromagn Compat 41 (4): 487-493
• 1978, Harvalik ZV
  Anatomical localization of human detection of weak electromagnetic radiation: experiments with dowsers [med./bio.]
  Physiol Chem Phys 10 (6): 525-534
• 2005, Hata K, Yamaguchi H, Tsurita G, Watanabe S, Wake K, Taki M, Ueno S, Nagawa H
  [Details] Short term exposure to 1439 MHz pulsed TDMA field does not alter melatonin synthesis in rats [med./bio.]
  Bioelectromagnetics 26 (1): 49-53
• 1992, Hatch M
  The epidemiology of electric and magnetic field exposures in the power frequency range and reproductive outcomes [Review]
  Paediatr Perinat Epidemiol 6 (2): 198-214
• 2008, Henshaw DL, Ward JP, Matthews JC
  Can disturbances in the atmospheric electric field created by powerline corona ions disrupt melatonin production in the pineal gland? [tech./dosim.]
  J Pineal Res 45 (4): 341-350
• 2005, Henshaw DL, Reiter RJ
  [Details] Do magnetic fields cause increased risk of childhood leukemia via melatonin disruption? [Review]
  Bioelectromagnetics 26 Suppl 7: S86-S97
• 1995, Holmberg B
  Magnetic fields and cancer: animal and cellular evidence--an overview [Review]
  Environ Health Perspect 103: 63-67
• 1994, Hughes JT
  Electromagnetic fields and brain tumours: a commentary [Review]
  Teratog Carcinog Mutagen 14 (5): 213-217
• 2008, Iashmanov VA, Koshelevskii VK
  [The influence of geomagnetic field variations on the pineal gland circadian activity] [fremdsprachig]
  Adv Gerontol 21 (3): 382-385
• 1994, Jacobson JI
  Pineal-hypothalamic tract mediation of picotesla magnetic fields in the treatment of neurological disorders [Review]
  Panminerva Med 36 (4): 201-205
• 1992, Jacobson JI
  Effect of weak magnetic fields on biological systems [Kommentar]
  Int J Neurosci 67 (1-4): 125-126
• 2010, Jahandideh S, Abdolmaleki P
  Prediction of melatonin excretion patterns in the rat exposed to ELF magnetic fields based on support vector machine and linear discriminant analysis [tech./dosim.]
  Micron 41 (7): 882-885
• 2010, Jahandideh S, Abdolmaleki P, Movahedi MM
  Comparing performances of logistic regression and neural networks for predicting melatonin excretion patterns in the rat exposed to ELF magnetic fields [tech./dosim.]
  Bioelectromagnetics 31 (2): 164-171
• 2000, Jajte J, Zmyslony M
  [The role of melatonin in the molecular mechanism of weak, static and extremely low frequency (50 Hz) magnetic fields (ELF)] [fremdsprachig]
  Med Pr 51 (1): 51-57
• 2022, Jammoul M, Lawand N
  Melatonin: a Potential Shield against Electromagnetic Waves [Review]
  Curr Neuropharmacol 20 (3): 648-660
• 1994, Jankovic BD, Nikolic P, Cupic V, Hladni K
  Potentiation of immune responsiveness in aging by static magnetic fields applied to the brain. Role of the pineal gland [med./bio.]
  Ann N Y Acad Sci 719: 410-418
• 1993, Jankovic BD, Jovanova-Nesic K, Nikolic V, Nikolic P
  Brain-applied magnetic fields and immune response: role of the pineal gland [med./bio.]
  Int J Neurosci 70 (1-2): 127-134
• 1998, Ji RR, Schlaepfer TE, Aizenman CD, Epstein CM, Qiu D, Huang JC, Rupp F
  Repetitive transcranial magnetic stimulation activates specific regions in rat brain [med. Anw.]
  PNAS 95 (26): 15635-15640
• 1998, John TM, Liu GY, Brown GM
  60 Hz magnetic field exposure and urinary 6-sulphatoxymelatonin levels in the rat [med./bio.]
  Bioelectromagnetics 19 (3): 172-180
• 2006, Jovanova-Nesic K, Eric-Jovicic M, Spector NH
  Magnetic stimulation of the brain increase Na+, K+-ATPase activity decreased by injection of AlCl3 into nucleus basalis magnocellularis of rats [med./bio.]
  Int J Neurosci 116 (6): 681-695
• 1999, Jove M, Torrente M, Gilabert R, Espinar A, Cobos P, Piera V
  Effects of static electromagnetic fields on chick embryo pineal gland development [med./bio.]
  Cells Tissues Organs 165 (2): 74-80
• 2011, Juutilainen J, Hoyto A, Kumlin T, Naarala J
  [Details] Review of possible modulation-dependent biological effects of radiofrequency fields [Review]
  Bioelectromagnetics 32 (7): 511-534
• 2006, Juutilainen J, Kumlin T
  Occupational magnetic field exposure and melatonin: interaction with light-at-night [Review]
  Bioelectromagnetics 27 (5): 423-426
• 2000, Juutilainen J, Stevens RG, Anderson LE, Hansen NH, Kilpelainen M, Kumlin T, Laitinen JT, Sobel E, Wilson BW
  Nocturnal 6-hydroxymelatonin sulfate excretion in female workers exposed to magnetic fields [med./bio.]
  J Pineal Res 28 (2): 97-104
• 2018, Kang J, Li MX
  Effects of Habenular Stimulation Frequencies on Obstructive Sleep Apnea Induced by Stimulation of Insular Cortex [med. Anw.]
  Can Respir J 2018: 9060678
• 2000, Karasek M, Czernicki J, Woldanska-Okonska M, Zylinska K, Swietoslawski J
  Chronic exposure to 25-80-microT, 200-Hz magnetic field does not influence serum melatonin concentrations in patients with low back pain [med./bio.]
  J Pineal Res 29 (2): 81-85
• 1998, Karasek M, Woldanska-Okonska M, Czernicki J, Zylinska K, Swietoslawski J
  Chronic exposure to 2.9 mT, 40 Hz magnetic field reduces melatonin concentrations in humans [med./bio.]
  J Pineal Res 25 (4): 240-244
• 1995, Kato M
  [Biological influences of electromagnetic fields] [fremdsprachig]
  Hokkaido Igaku Zasshi 70 (4): 551-560
• 1994, Kato M, Honma K, Shigemitsu T, Shiga Y
  Recovery of nocturnal melatonin concentration takes place within one week following cessation of 50 Hz circularly polarized magnetic field exposure for six weeks [med./bio.]
  Bioelectromagnetics 15 (5): 489-492
• 1994, Kato M, Honma K, Shigemitsu T, Shiga Y
  Horizontal or vertical 50-Hz, 1-microT magnetic fields have no effect on pineal gland or plasma melatonin concentration of albino rats [med./bio.]
  Neurosci Lett 168 (1-2): 205-208
• 1994, Kato M, Honma K, Shigemitsu T, Shiga Y
  Circularly polarized 50-Hz magnetic field exposure reduces pineal gland and blood melatonin concentrations of Long-Evans rats [med./bio.]
  Neurosci Lett 166 (1): 59-62
• 1993, Kato M, Honma K, Shigemitsu T, Shiga Y
  Effects of exposure to a circularly polarized 50-Hz magnetic field on plasma and pineal melatonin levels in rats [med./bio.]
  Bioelectromagnetics 14 (2): 97-106
• 1987, Kavaliers M, Ossenkopp KP
  Magnetic fields and stress: day-night differences [med./bio.]
  Prog Neuropsychopharmacol Biol Psychiatry 11 (2-3): 279-286
• 1984, Kavaliers M, Ossenkopp KP, Hirst M
  Magnetic fields abolish the enhanced nocturnal analgesic response to morphine in mice [med./bio.]
  Physiol Behav 32 (2): 261-264
• 1994, Kay RW
  Geomagnetic storms: association with incidence of depression as measured by hospital admission [epidem.]
  Br J Psychiatry 164 (3): 403-409
• 2012, Kerman M, Senol N
  [Details] Oxidative stress in hippocampus induced by 900 MHz electromagnetic field emitting mobile phone: protection by melatonin [med./bio.]
  Biomed Res 23 (1): 147-151
• 2012, Kesari KK, Kumar S, Behari J
  [Details] Pathophysiology of microwave radiation: effect on rat brain [med./bio.]
  Appl Biochem Biotechnol 166 (2): 379-388
• 2011, Kesari KK, Kumar S, Behari J
  [Details] 900-MHz microwave radiation promotes oxidation in rat brain [med./bio.]
  Electromagn Biol Med 30 (4): 219-234
• 1987, Khoory R
  Compensation of the natural magnetic field does not alter N-acetyltransferase activity and melatonin content of rat pineal gland [med./bio.]
  Neurosci Lett 76 (2): 215-220
• 2015, Kim HS, Paik MJ, Lee YH, Lee YS, Choi HD, Pack JK, Kim N, Ahn YH
  Eight hours of nocturnal 915 MHz radiofrequency identification (RFID) exposure reduces urinary levels of melatonin and its metabolite via pineal arylalkylamine N-acetyltransferase activity in male rats [med./bio.]
  Int J Radiat Biol 91 (11): 898-907
• 2006, Koylu H, Mollaoglu H, Ozguner F, Naziroglu M, Delibas N
  [Details] Melatonin modulates 900 Mhz microwave-induced lipid peroxidation changes in rat brain [med./bio.]
  Toxicol Ind Health 22 (5): 211-216
• 2016, Koziorowska A, Pasiud E, Fila M, Romerowicz-Misielak M
  [Details] The impact of electromagnetic field at a frequency of 50 Hz and a magnetic induction of 2.5 mT on viability of pineal cells in vitro [med./bio.]
  J Biol Regul Homeost Agents 30 (4): 1067-1072
• 1996, Kroeker G, Parkinson D, Vriend J, Peeling J
  Neurochemical effects of static magnetic field exposure [med./bio.]
  Surg Neurol 45 (1): 62-66
• 2005, Kumlin T, Heikkinen P, Laitinen JT, Juutilainen J
  [Details] Exposure to a 50-Hz Magnetic Field Induces a Circadian Rhythm in 6-hydroxymelatonin Sulfate Excretion in Mice [med./bio.]
  J Radiat Res 46 (3): 313-318
• 1997, Lai H, Singh NP
  [Details] Melatonin and N-tert-butyl-alpha-phenylnitrone block 60-Hz magnetic field-induced DNA single and double strand breaks in rat brain cells [med./bio.]
  J Pineal Res 22 (3): 152-162
• 1996, Lambrozo J, Touitou Y, Dab W
  [Details] Exploring the EMF-Melatonin Connection: A Review of the Possible Effects of 50/60-Hz Electric and Magnetic Fields on Melatonin Secretion [Review]
  Int J Occup Environ Health 2 (1): 37-47
• 1996, Lang SB, Marino AA, Berkovic G, Fowler M, Abreo KD
  Piezoelectricity in the human pineal gland [Grundlagen]
  Bioelectrochem Bioenerg 41 (2): 191-195