Bioelectromagnetics in morphogenesis
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[1] A. Duprat,et al. Expression of L-type Ca2+ channel during early embryogenesis in Xenopus laevis. , 1995, The International journal of developmental biology.
[2] W. R. Adey,et al. Frequency and power windowing in tissue interactions with weak electromagnetic fields , 1980, Proceedings of the IEEE.
[3] K. Sander,et al. Electrical phenomena and their possible significance in vitellogenic follicles of Drosophila melanogaster , 1984 .
[4] S. M. Ross. Combined DC and ELF magnetic fields can alter cell proliferation. , 1990, Bioelectromagnetics.
[5] R. Stewart,et al. Neurotrophins enhance electric field‐directed growth cone guidance and directed nerve branching , 2000, Developmental dynamics : an official publication of the American Association of Anatomists.
[6] C. McCaig,et al. Calcium channel subtypes and intracellular calcium stores modulate electric field-stimulated and -oriented nerve growth. , 1995, Developmental biology.
[7] W. Loewenstein,et al. Intercellular Communication and the Control of Tissue Growth: Lack of Communication between Cancer Cells , 1966, Nature.
[8] C. McCaig. Nerve branching is induced and oriented by a small applied electric field. , 1990, Journal of cell science.
[9] S. Hagiwara,et al. Electrical properties of egg cell membranes. , 1979, Annual review of biophysics and bioengineering.
[10] G. Burnstock,et al. P2 purinoceptor‐activated inward currents in follicular oocytes of Xenopus laevis. , 1996, The Journal of physiology.
[11] R. Shi,et al. Embryonic neuroepithelial sodium transport, the resulting physiological potential, and cranial development. , 1994, Developmental biology.
[12] V. French,et al. Pattern regulation in epimorphic fields. , 1976, Science.
[13] M. Trillo,et al. A 50 Hz magnetic field blocks melatonin-induced enhancement of junctional transfer in normal C3H/10T1/2 cells. , 1995, Carcinogenesis.
[14] H. S. Burr,et al. Electrometrics of Atypical Growth * , 1952, The Yale journal of biology and medicine.
[15] M. Carino,et al. Acute exposure to a 60 Hz magnetic field affects rats' water-maze performance. , 1998, Bioelectromagnetics.
[16] V. Krutovskikh,et al. Role of blocked gap junctional intercellular communication in non-genotoxic carcinogenesis. , 1995, Toxicology letters.
[17] G. Becker. Reaction of termites to weak alternating magnetic fields , 1976, Naturwissenschaften.
[18] F. Musumeci,et al. Photon emission from normal and tumor human tissues , 1992, Experientia.
[19] H. Yamasaki,et al. Involvement of gap junctions in tumor suppression: analysis of genetically-manipulated mice. , 2001, Mutation research.
[20] M S Markov,et al. Bioeffects of Weak Electromagnetic Fields , 1994, Reviews on environmental health.
[21] J. Brockes. Regeneration and cancer. , 1998, Biochimica et biophysica acta.
[22] C. McCaig,et al. Lectins implicate specific carbohydrate domains in electric field stimulated nerve growth and guidance. , 1996, Journal of neurobiology.
[23] D. Betts,et al. Na/K-ATPase-Mediated86Rb+Uptake and Asymmetrical Trophectoderm Localization of α1 and α3 Na/K-ATPase Isoforms during Bovine Preattachment Development☆ , 1998 .
[24] J. Geysen,et al. Epigenetic control of gene expression: A new unifying hypothesis , 1983 .
[25] J V Forrester,et al. Electric field-directed cell motility involves up-regulated expression and asymmetric redistribution of the epidermal growth factor receptors and is enhanced by fibronectin and laminin. , 1999, Molecular biology of the cell.
[26] A G Marsh,et al. Gene expression and enzyme activities of the sodium pump during sea urchin development: implications for indices of physiological state. , 2000, The Biological bulletin.
[27] M. Galle. Population Density-dependence of Biophoton Emission from Daphnia , 1992 .
[28] R. Goodman,et al. Exposure of salivary gland cells to low-frequency electromagnetic fields alters polypeptide synthesis. , 1988, Proceedings of the National Academy of Sciences of the United States of America.
[29] R. Shi,et al. Three‐dimensional gradients of voltage during development of the nervous system as invisible coordinates for the establishment of embryonic pattern , 1995, Developmental dynamics : an official publication of the American Association of Anatomists.
[30] M. Grattarola,et al. Automated absorption image cytometry of electromagnetically exposed frog erythrocytes. , 1980, Cytometry.
[31] C. E. Humphrey,et al. Biophysical Approach toward Tumor Regression in Mice , 1959, Science.
[32] M. Schauble,et al. Inhibition of experimental tumor growth in hamsters by small direct currents. , 1977, Archives of pathology & laboratory medicine.
[33] J. Kunkel,et al. The effect of ions, ion channel blockers, and ionophores on uptake of vitellogenin into cockroach follicles. , 1990, Developmental biology.
[34] I. Cameron,et al. Environmental magnetic fields: Influences on early embryogenesis , 1993, Journal of cellular biochemistry.
[35] C. Stern. Ionic currents in development Progress in Clinical and Biological Research, Vol. 210 edited by Richard Nuccitelli, Alan R. Liss, 1986. £46.00 (xxxvii + 375 pages) ISBN 0 8451 5060 X , 1987, Trends in Neurosciences.
[36] I. Brick,et al. ELECTROKINETIC PROPERTIES AND MORPHOLOGIC CHARACTERISTICS OF AMPHIBIAN GASTRULA CELLS , 1974, Annals of the New York Academy of Sciences.
[37] Frank A. Brown,et al. Magnetic induction of a circadian cycle in hamsters , 1978 .
[38] J. J. Greene,et al. Delineation of electric and magnetic field effects of extremely low frequency electromagnetic radiation on transcription. , 1991, Biochemical and biophysical research communications.
[39] M. Poo,et al. Orientation of neurite growth by extracellular electric fields , 1982, The Journal of neuroscience : the official journal of the Society for Neuroscience.
[40] Andrew A. Marino,et al. Electrical potential measurements in human breast cancer and benign lesions. , 1994, Tumour biology : the journal of the International Society for Oncodevelopmental Biology and Medicine.
[41] M. Matzke,et al. Electric fields and the nuclear membrane , 1996, BioEssays : news and reviews in molecular, cellular and developmental biology.
[42] J Schimmelpfeng,et al. Action of 50 Hz magnetic fields on cyclic AMP and intercellular communication in monolayers and spheroids of mammalian cells. , 1995, Bioelectromagnetics.
[43] J. D. Hays. Faunal Extinctions and Reversals of the Earth's Magnetic Field , 1971 .
[44] W. B. Chwirot. New indication of possible role of DNA in ultraweak photon emission from biological systems , 1986 .
[45] F. Northrop,et al. The Electro-Dynamic Theory of Life , 1935, The Quarterly Review of Biology.
[46] P. Grafe,et al. Voltage‐dependent membrane currents of cultured human neurofibromatosis type 2 Schwann cells , 1998, Glia.
[47] M. Messerli,et al. Tip localized Ca2+ pulses are coincident with peak pulsatile growth rates in pollen tubes of Lilium longiflorum. , 1997, Journal of cell science.
[48] R. Borgens. Are limb development and limb regeneration both initiated by an integumentary wounding? A hypothesis. , 1984, Differentiation; research in biological diversity.
[49] M. Poo,et al. Lateral electrophoresis and diffusion of Concanavalin A receptors in the membrane of embryonic muscle cell , 1978, The Journal of cell biology.
[50] J. Kunkel,et al. Models of pattern formation in insect oocytes. , 1991, In vivo.
[51] H. Chiang,et al. ELF magnetic field inhibits gap junctional intercellular communication and induces hyperphosphorylation of connexin43 in NIH3T3 cells , 2001, Bioelectromagnetics.
[52] R. Gillies,et al. A Plasma Membrane V‐type H+‐ATPase May Contribute to Elevated Intracellular pH (pHin) in Some Human Tumor Cells a , 1992, Annals of the New York Academy of Sciences.
[53] R. Becker,et al. Electrical stimulation of RNA and protein synthesis in the frog erythrocyte. , 1973, Experimental cell research.
[54] M. Levin,et al. KATP channel activity is required for hatching in Xenopus embryos , 2002, Developmental dynamics : an official publication of the American Association of Anatomists.
[55] K. Rathore,et al. The responses of pollen to applied electrical fields. , 1989, Developmental biology.
[56] M. Poo,et al. Electrophoretic movement and localization of acetylcholine receptors in the embryonic muscle cell membrane , 1978, Nature.
[57] G. Moment. On the relation between growths in length, the formation of new segments, and electric potential in an earthworm. , 1949, The Journal of experimental zoology.
[58] H. S. Burr,et al. Steady State Potential Differences in the Early Development of Amblystoma * , 1941, The Yale journal of biology and medicine.
[59] R. Becker,et al. A method for producing cellular dedifferentiation by means of very small electrical currents. , 1967, Transactions of the New York Academy of Sciences.
[60] M. Lazdunski,et al. Single-channel properties and regulation of pinacidil/glibenclamide-sensitive K+ channels in follicular cells from Xenopus oocyte , 1993, Pflügers Archiv.
[61] K. Hotary,et al. Endogenous electrical currents and voltage gradients in Xenopus embryos and the consequences of their disruption. , 1994, Developmental biology.
[62] C. Stern. Do ionic currents play a role in the control of development? , 1986, BioEssays : news and reviews in molecular, cellular and developmental biology.
[63] R. Becker,et al. Direct current potentials in hypnoanalgesia. , 1962, Archives of general psychiatry.
[64] G. Albrecht‐Buehler. The iris diaphragm model of centriole and basal body formation. , 1990, Cell motility and the cytoskeleton.
[65] Burr Hs. Changes in the Field Properties of Mice with Transplanted Tumors. , 1941 .
[66] L. Jaffe,et al. The role of ionic currents in establishing developmental pattern. , 1981, Philosophical transactions of the Royal Society of London. Series B, Biological sciences.
[67] S. Britland,et al. Embryonic Xenopus neurites integrate and respond to simultaneous electrical and adhesive guidance cues. , 1996, Experimental cell research.
[68] A. Sheppard,et al. Biological Effects of Electric and Magnetic Fields of Extremely Low Frequency , 1977 .
[69] J. W. Vanable,et al. Bioelectricity and Regeneration , 1979 .
[70] C. McCaig,et al. The effects of lyotropic anions on electric field‐induced guidance of cultured frog nerves. , 1995, The Journal of physiology.
[71] H. Burr,et al. Bio-Electric Properties of Cancer-Resistant and Cancer-Susceptible Mice , 1938 .
[72] H. Lai,et al. Acute exposure to a 60 Hz magnetic field increases DNA strand breaks in rat brain cells. , 1997, Bioelectromagnetics.
[73] Ibm Deutschland,et al. Coherent Excitations in Biological Systems , 2011, Proceedings in Life Sciences.
[74] H. Burr. Field Properties of the Developing Frog's Egg. , 1941, Proceedings of the National Academy of Sciences of the United States of America.
[75] C. Cone,et al. Control of somatic cell mitosis by simulated changes in the transmembrane potential level. , 1971, Oncology.
[76] C. Damsky,et al. Differentiation of an epithelium: factors affecting the polarized distribution of Na+,K(+)-ATPase in mouse trophectoderm. , 1990, Developmental biology.
[77] S. Reuss,et al. Geomagnetic field detection in rodents. , 1988, Life sciences.
[78] J. Olcese,et al. The neurobiology of magnetic field detection in rodents , 1990, Progress in Neurobiology.
[79] W. Loewenstein,et al. INTERCELLULAR COMMUNICATION AND TISSUE GROWTH : III. Thyroid Cancer , 1968 .
[80] H. M. Webb,et al. SEASONAL VARIATIONS IN O2-CONSUMPTION OF UCA PUGNAX , 1961 .
[81] L. Bianchi,et al. Soluble or bound laminin elicit in human neuroblastoma cells short- or long-term potentiation of a K+ inwardly rectifying current: relevance to neuritogenesis. , 1996, Cell adhesion and communication.
[82] M. W. Williams,et al. Cellular Communication in Clone 9 Cells Exposed to Magnetic Fields , 2000, Radiation research.
[83] S. Webb,et al. Imaging patterns of calcium transients during neural induction in Xenopus laevis embryos. , 2000, Journal of cell science.
[84] J. Kunkel,et al. Covariance of ion flux measurements allows new interpretation of Xenopus laevis oocyte physiology. , 2001, The Journal of experimental zoology.
[85] H. Brewer. Some preliminary studies of the effects of a static magnetic field on the life cycle of the Lebistes reticulatus (guppy). , 1979, Biophysical journal.
[86] N. Watkins,et al. Geomagnetic Polarity Change and Faunal Extinction in the Southern Ocean , 1967, Science.
[87] C. McCaig. Dynamic aspects of amphibian neurite growth and the effects of an applied electric field. , 1986, The Journal of physiology.
[88] T. I. Quickenden,et al. THE SPECTRAL DISTRIBUTION OF THE LUMINESCENCE EMITTED DURING GROWTH OF THE YEAST SACCHAROMYCES CEREVISIAE AND ITS RELATIONSHIP TO MITOGENETIC RADIATION , 1976, Photochemistry and photobiology.
[89] J. R. Thomas,et al. Low-intensity magnetic fields alter operant behavior in rats. , 1986, Bioelectromagnetics.
[90] R. Gillies,et al. Vacuolar-type H(+)-ATPases are functionally expressed in plasma membranes of human tumor cells. , 1993, The American journal of physiology.
[91] M. Messerli,et al. Periodic increases in elongation rate precede increases in cytosolic Ca2+ during pollen tube growth. , 2000, Developmental biology.
[92] G. Albrecht-Buehler,et al. The orientation of centrioles in migrating 3T3 cells. , 1979, Experimental cell research.
[93] W. Nagl,et al. A physical (electromagnetic) model of differentiation. 2. Applications and examples. , 1983, Cytobios.
[94] R. Borgens,et al. Weak applied voltages interfere with amphibian morphogenesis and pattern , 1994 .
[95] V. Krutovskikh,et al. Role of connexin (gap junction) genes in cell growth control and carcinogenesis. , 1999, Comptes rendus de l'Academie des sciences. Serie III, Sciences de la vie.
[96] K. Sander,et al. The extracellular electrical current pattern and its variability in vitellogenic Drosophila follicles. , 1986, Journal of cell science.
[97] P. Good,et al. Polyadenylation of Na(+)-K(+)-ATPase beta 1-subunit during early development of Xenopus laevis. , 1994, The American journal of physiology.
[98] F S Northrop,et al. Evidence for the Existence of an Electro-Dynamic Field in Living Organisms. , 1939, Proceedings of the National Academy of Sciences of the United States of America.
[99] M. Levin,et al. Applied DC magnetic fields cause alterations in the time of cell divisions and developmental abnormalities in early sea urchin embryos. , 1997, Bioelectromagnetics.
[100] M. W. Williams,et al. Power frequency magnetic field exposure and gap junctional communication in Clone 9 cells. , 2000, Bioelectrochemistry.
[101] J. Kunkel. Dorsoventral currents are associated with vitellogenesis in cockroach ovarioles. , 1986, Progress in clinical and biological research.
[102] C D Cone,et al. THE ROLE OF THE SURFACE ELECTRICAL TRANSMEMBRANE POTENTIAL IN NORMAL AND MALIGNANT MITOGENESIS , 1974, Annals of the New York Academy of Sciences.
[103] R. Borgens,et al. A steady efflux of ionic current predicts hind limb development in the axolotl. , 1983, The Journal of experimental zoology.
[104] A. Duprat,et al. L-type calcium channel activation controls the in vivo transduction of the neuralizing signal in the amphibian embryos , 1997, Mechanisms of Development.
[105] R. Nuccitelli. Ionic currents in morphogenesis , 1988, Experientia.
[106] B. Funnell,et al. Relationship of Palæomagnetic Reversals and Micropalæontology in Two Late Cænozoic Cores from the Pacific Ocean , 1964, Nature.
[107] R. Becker,et al. Geomagnetic Parameters and Psychiatric Hospital Admissions , 1963, Nature.
[108] J. Feijó,et al. Growing Pollen Tubes Possess a Constitutive Alkaline Band in the Clear Zone and a Growth-dependent Acidic Tip , 1999, The Journal of cell biology.
[109] T. Litovitz,et al. Superimposing spatially coherent electromagnetic noise inhibits field-induced abnormalities in developing chick embryos. , 1994, Bioelectromagnetics.
[110] Schauble Mk,et al. Inhibition of experimental tumor growth in hamsters by small direct currents. , 1977 .
[111] E. Graf,et al. Precambrian ELF and Abiogenesis , 1974 .
[112] B. Dworniczak,et al. The Ion Channel Polycystin-2 Is Required for Left-Right Axis Determination in Mice , 2002, Current Biology.
[113] M. Weisenseel,et al. Ionic Currents as Control Mechanism in Cytomorphogenesis , 1981 .
[114] K. Ossenkopp,et al. Behavioural, Physiological, and Histological Changes in Rats Exposed during Various Developmental Stages to ELF Magnetic Fields , 1974 .
[115] C. McCaig. Nerve growth in the absence of growth cone filopodia and the effects of a small applied electric field. , 1989, Journal of cell science.
[116] C D McCaig,et al. Electrical fields, nerve growth and nerve regeneration , 1991, Experimental physiology.
[117] R B Borgens,et al. Behavioral recovery induced by applied electric fields after spinal cord hemisection in guinea pig. , 1987, Science.
[118] J. W. Vanable,et al. Role of subdermal current shunts in the failure of frogs to regenerate. , 1979, The Journal of experimental zoology.
[119] R. Wyman,et al. Reevaluation of electrophoresis in the Drosophila egg chamber. , 1993, Developmental biology.
[120] Y. de Ribaupierre,et al. Extracellular Electrical Currents in the Chick Blastoderm. , 1989, The Biological bulletin.
[121] R. Borgens,et al. Anatomy of axolotl flank integument during limb bud development with special reference to a transcutaneous current predicting limb formation. , 1987, The Journal of experimental zoology.
[122] A. Loof. The meroistic insect ovary as a miniature electrophoresis chamber , 1983 .
[123] R. B. Pinter,et al. An identifiable molluscan neuron responds to changes in earth-strength magnetic fields. , 1991, The Journal of experimental biology.
[124] E. J. Lund. Experimental control of organic polarity by the electric current. I. Effects of the electric current on regenerating internodes of Obelia commissuralis , 1921 .
[125] T. Tsong,et al. Deciphering the language of cells. , 1989, Trends in biochemical sciences.
[126] J. F. Simpson. EVOLUTIONARY PULSATIONS AND GEOMAGNETIC POLARITY , 1966 .
[127] M. Lazdunski,et al. Opening of glibenclamide-sensitive K+ channels in follicular cells promotes Xenopus oocyte maturation. , 1992, Proceedings of the National Academy of Sciences of the United States of America.
[128] W. Scott,et al. Endogenous electric current is associated with normal development of the vertebrate limb , 2001, Developmental dynamics : an official publication of the American Association of Anatomists.
[129] M. Hiraoka,et al. Induction of c-fos gene expression by exposure to a static magnetic field in HeLaS3 cells. , 1992, Cancer research.
[130] S. McLaughlin,et al. The role of electro-osmosis in the electric-field-induced movement of charged macromolecules on the surfaces of cells. , 1981, Biophysical journal.
[131] W. Moody,et al. Changes in voltage-dependent ion currents during meiosis and first mitosis in eggs of an ascidian. , 1992, Developmental biology.
[132] V. Palma,et al. Calcium mediates dorsoventral patterning of mesoderm in Xenopus , 2001, Current Biology.
[133] A. Loof,et al. Potassium and chloride dependence of the membrane potential of vitellogenic follicles of Sarcophaga bullata (Diptera) , 1989 .
[134] R B Borgens,et al. An oscillating extracellular voltage gradient reduces the density and influences the orientation of astrocytes in injured mammalian spinal cord , 2001, Journal of neurocytology.
[135] G. Kidder,et al. Immunofluorescence assessment of the timing of appearance and cellular distribution of Na/K-ATPase during mouse embryogenesis. , 1988, Developmental biology.
[136] W. E. Koch,et al. Examination of the development of chicken embryos following exposure to magnetic fields. , 1993, Comparative biochemistry and physiology. Comparative physiology.
[137] L M Loew,et al. Voltage-sensitive dyes: measurement of membrane potentials induced by DC and AC electric fields. , 1992, Bioelectromagnetics.
[138] W. Wonderlin,et al. Mitogenic signal transduction in human breast cancer cells. , 1995, General pharmacology.
[139] A. Hotz-Wagenblatt,et al. Gap junctional communication and neoplastic transformation. , 1993, Critical reviews in oncogenesis.
[140] A. T. Barker,et al. Measurement of electrical currents emerging during the regeneration of amputated finger tips in children , 1980 .
[141] P. K. Bajpai,et al. Ultraweak photon emission in germinating seeds: a signal of biological order. , 1991, Journal of bioluminescence and chemiluminescence.
[142] Z. Madeja,et al. Immediate and long-term galvanotactic responses of Amoeba proteus to dc electric fields. , 2000, Cell motility and the cytoskeleton.
[143] C. R. Howlett,et al. Effect of a static magnetic field on fracture healing in a rabbit radius. Preliminary results. , 1987, Clinical orthopaedics and related research.
[144] J. W. Vanable,et al. Reduction of sodium dependent stump currents disturbs urodele limb regeneration. , 1979, The Journal of experimental zoology.
[145] J P Wikswo,et al. A distributed quasi-static ionic current source in the 3-4 day old chicken embryo. , 1993, Physics in medicine and biology.
[146] S. Berking,et al. Ca2+-ions and pattern control in Hydra. , 2002, The International journal of developmental biology.
[147] M. Nagai,et al. Pulsating Electromagnetic Field Stimulates mRNA Expression of Bone Morphogenetic Protein-2 and -4 , 1994, Journal of dental research.
[148] M. Takamori. An autoimmune channelopathy associated with cancer: Lambert-Eaton myasthenic syndrome. , 1999, Internal medicine.
[149] W. R. Adey,et al. Migration of cell surface concanavalin A receptors in pulsed electric fields. , 1984, Biophysical journal.
[150] R. Borgens. What is the role of naturally produced electric current in vertebrate regeneration and healing. , 1982, International review of cytology.
[151] F. Barnes,et al. Some engineering models for interactions of electric and magnetic fields with biological systems. , 1992, Bioelectromagnetics.
[152] R. Nuccitelli,et al. On electrical currents in development. , 1986, BioEssays : news and reviews in molecular, cellular and developmental biology.
[153] J M Delgado,et al. Pulse shape of magnetic fields influences chick embryogenesis. , 1983, Journal of anatomy.
[154] M. Levin,et al. Early embryonic expression of ion channels and pumps in chick and Xenopus development , 2002, Developmental dynamics : an official publication of the American Association of Anatomists.
[155] C. McCaig. Studies on the mechanism of embryonic frog nerve orientation in a small applied electric field. , 1989, Journal of cell science.
[156] R B Borgens,et al. An imposed oscillating electrical field improves the recovery of function in neurologically complete paraplegic dogs. , 1999, Journal of neurotrauma.
[157] H. A. Pohl. Natural AC Electric Fields in and About Cells , 1984 .
[158] D. Yamaguchi,et al. Inhibition of gap junction intercellular communication by extremely low‐frequency electromagnetic fields in osteoblast‐like models is dependent on cell differentiation , 2002, Journal of cellular physiology.
[159] A. Kermarrec. Sensibilité a un champ magnétique artificiel et réaction d'évitement chezAcromyrmex octospinosus (Reich) (Formicidae, Attini) , 1981, Insectes Sociaux.
[160] C. McCaig,et al. Electric field-directed growth and branching of cultured frog nerves: effects of aminoglycosides and polycations. , 1995, Journal of neurobiology.
[161] C. Stern. Electric fields in vertebrate repair by R. B. Borgens, K. R. Robinson, J. W. Vanable, Jr and M. E. McGinnis, Alan R. Liss, 1989. US$69.50 (310 pages) ISBN 0 8451 4274 7 , 1989, Trends in Neurosciences.
[162] J. Scaiano,et al. Exploratory laser flash photolysis study of free radical reactions and magnetic field effects in melatonin chemistry , 1995, Journal of pineal research.
[163] D B Harrington,et al. EFFECTS OF SMALL AMOUNTS OF ELECTRIC CURRENT AT THE CELLULAR LEVEL * , 1974, Annals of the New York Academy of Sciences.
[164] R. Becker,et al. Electrical stimulation of partial limb regeneration in mammals. , 1972, Bulletin of the New York Academy of Medicine.
[165] M. Grattarola,et al. Interactions Between Weak Electromagnetic Fields And Biosystems: A Summary of Nine Years of Research , 1985 .
[166] G. Albrecht-Buehler,et al. Does the geometric design of centrioles imply their function? , 1981, Cell motility.
[167] M. Barnothy. Reduction of Radiation Mortality through Magnetic Pre-treatment , 1963, Nature.
[168] R O Becker,et al. THE BASIC BIOLOGICAL DATA TRANSMISSION AND CONTROL SYSTEM INFLUENCED BY ELECTRICAL FORCES * , 1974, Annals of the New York Academy of Sciences.
[169] L. Jaffe,et al. Large electrical currents traverse developing Ceropia follicles. , 1979, Proceedings of the National Academy of Sciences of the United States of America.
[170] M. Mercola,et al. Asymmetries in H+/K+-ATPase and Cell Membrane Potentials Comprise a Very Early Step in Left-Right Patterning , 2002, Cell.
[171] T. Tenforde. Electroreception and magnetoreception in simple and complex organisms. , 1989, Bioelectromagnetics.
[172] A. Giarola,et al. EFFECTS OF ELECTROMAGNETIC FIELDS ON FECUNDITY IN THE CHICKEN , 1975, Annals of the New York Academy of Sciences.
[173] G. Albrecht‐Buehler. 3 – Function and Formation of Centrioles and Basal Bodies1 , 1992 .
[174] S. Ihara,et al. Abnormal proliferative response of the carotid artery of spontaneously hypertensive rats after angioplasty may be related to the depolarized state of its smooth muscle cells. , 2000, Brazilian journal of medical and biological research = Revista brasileira de pesquisas medicas e biologicas.
[175] M. Poo,et al. Response of nerve growth cone to focal electric currents , 1985, Journal of neuroscience research.
[176] Z. Madeja,et al. Directional movement of rat prostate cancer cells in direct-current electric field: involvement of voltagegated Na+ channel activity. , 2001, Journal of cell science.
[177] H. Sontheimer,et al. Changes in ion channel expression accompany cell cycle progression of spinal cord astrocytes , 2000, Glia.
[178] P. Semm,et al. Effects of an Earth-strength magnetic field on electrical activity of pineal cells , 1980, Nature.
[179] A. Schrank,et al. Bioelectrical Properties of Intact and Regenerating Earthworms, Eisenia foetida , 1955, Physiological Zoology.
[180] Andrew L. Miller,et al. Correlation between profile of ion-current circulation and root development , 1989 .
[181] C. Lo. The role of gap junction membrane channels in development , 1996, Journal of bioenergetics and biomembranes.
[182] V. Krutovskikh,et al. Intercellular communication and carcinogenesis. , 1995, Mutation research.
[183] M E Barish,et al. A transient calcium‐dependent chloride current in the immature Xenopus oocyte. , 1983, The Journal of physiology.
[184] M. E. O'Connor,et al. Emerging Electromagnetic Medicine , 1990 .
[185] Biophoton emission fromDaphnia magna: A possible factor in the self-regulation of swarming , 1991, Experientia.
[186] D M Porterfield,et al. Self‐referencing, non‐invasive, ion selective electrode for single cell detection of trans‐plasma membrane calcium flux , 1999, Microscopy research and technique.
[187] M. Kavaliers,et al. Magnetic fields differentially inhibit mu, delta, kappa and sigma opiate-induced analgesia in mice , 1986, Peptides.
[188] G. Danuser,et al. Pulsatile influxes of H+, K+ and Ca2+ lag growth pulses of Lilium longiflorum pollen tubes. , 1999, Journal of cell science.
[189] M. Harri,et al. Effects of 100-Hz magnetic fields with various waveforms on the development of chick embryos , 1986, Radiation and environmental biophysics.
[190] C. McCaig,et al. Physiological electrical fields modify cell behaviour. , 1997, BioEssays : news and reviews in molecular, cellular and developmental biology.
[191] M. Cohen,et al. Model for the Electric Field generated by Unidirectional Sodium Transport in the Amphibian Embryo , 1969, Nature.
[192] C. McCaig,et al. The direction of growth of differentiating neurones and myoblasts from frog embryos in an applied electric field. , 1981, The Journal of physiology.
[193] N. Messenger,et al. Primary neuronal differentiation in Xenopus embryos is linked to the beta(3) subunit of the sodium pump. , 2000, Developmental biology.
[194] R. Wijk,et al. Regulatory aspects of low intensity photon emission , 1988, Experientia.
[195] K. Hotary,et al. The neural tube of the Xenopus embryo maintains a potential difference across itself. , 1991, Brain research. Developmental brain research.
[196] J. Forrester,et al. Directed migration of corneal epithelial sheets in physiological electric fields. , 1996, Investigative ophthalmology & visual science.
[197] A. Sater,et al. The role of intracellular alkalinization in the establishment of anterior neural fate in Xenopus. , 1998, Developmental biology.
[198] L. Ravitz,et al. HISTORY, MEASUREMENT, AND APPLICABILITY OF PERIODIC CHANGES IN THE ELECTROMAGNETIC FIELD IN HEALTH AND DISEASE , 1962, Annals of the New York Academy of Sciences.
[199] Max Verworn. Die polare Erregung der Protisten durch den galvanischen. Strom , 1889, Archiv für die gesamte Physiologie des Menschen und der Tiere.
[200] H. Burr. An electrometric study of cotton seeds , 1950 .
[201] K. Sander,et al. Intracellular electrical potential measurements in Drosophila follicles. , 1986, Journal of cell science.
[202] F. Harold,et al. Endogenous electrical currents in the water mold Blastocladiella emersonii during growth and sporulation. , 1980, Proceedings of the National Academy of Sciences of the United States of America.
[203] F. Ivanhoe. Direct correlation of human skull vault thickness with geomagnetic intensity in some northern hemisphere populations , 1979 .
[204] Possibilities of long- and short-range electric interactions of biological systems. , 1977, Neurosciences Research Program bulletin.
[205] P. Tsonis. Effects of carcinogens on regenerating and non-regenerating limbs in amphibia (review). , 1983, Anticancer research.
[206] C. McCaig,et al. Electric fields, contact guidance and the direction of nerve growth. , 1986, Journal of embryology and experimental morphology.
[207] R. Becker. Stimulation of Partial Limb Regeneration in Rats , 1972, Nature.
[208] E. W. Sinnott,et al. ELECTRICAL CORRELATES OF FORM IN CUCURBIT FRUITS , 1944 .
[209] S. Grinstein,et al. Role of Intracellular pH in Proliferation, Transformation, and Apoptosis , 1997, Journal of bioenergetics and biomembranes.
[210] F. Popp,et al. Recent advances in biophoton research and its applications , 1992 .
[211] Evidence that geomagnetic variations can be detected by lorenzinian ampullae , 1979, Nature.
[212] Elmer Julius Lund,et al. Bioelectric fields and growth , 1947 .
[213] E. J. Lund. Experimental control of organic polarity by the electric current. III. Normal and experimental delay in the initiation of polyp formation in Obelia internodes , 1923 .
[214] M. F. Bennett,et al. MAGNETIC RESPONSE OF AN ORGANISM AND ITS LUNAR RELATIONSHIPS , 1960 .
[215] S. Malin,et al. Correlation between heart attacks and magnetic activity , 1979, Nature.
[216] R. D. Lonati,et al. Further measurements on the bioluminescence of the seedlings , 1955, Experientia.
[217] R. Shi,et al. Uncoupling histogenesis from morphogenesis in the vertebrate embryo by collapse of the transneural tube potential , 1995, Developmental dynamics : an official publication of the American Association of Anatomists.
[218] W. Armstrong,et al. THE DISTRIBUTION OF MINERAL MATERIAL IN THE CALCIFIED CARAPACE AND CLAW SHELL OF THE AMERICAN LOBSTER, HOMARUS AMERICANUS, EVALUATED BY MEANS OF MICROROENTGENOGRAMS , 1961 .
[219] R. Kaufmann,et al. LOCALIZATION OF ULTRA WEAK PHOTON EMISSION IN PLANTS , 1992 .
[220] Shuji Takahashi,et al. The Na+, K+‐ATPase α subunit requires gastrulation in the Xenopus embryo , 1997, Development, growth & differentiation.
[221] Andrew A. Marino,et al. Human sensitivity to weak magnetic fields , 1991, The Lancet.
[222] G. Albrecht‐Buehler. Rudimentary form of cellular "vision". , 1992, Proceedings of the National Academy of Sciences of the United States of America.
[223] K R Robinson,et al. The responses of cells to electrical fields: a review , 1985, The Journal of cell biology.
[224] A. Blight,et al. Functional recovery after spinal cord hemisection in guinea pigs: The effects of applied electric fields , 1990, The Journal of comparative neurology.
[225] P. P. Newman,et al. THE EFFECTS OF PULSED ELECTROMAGNETIC ENERGY ON PERIPHERAL NERVE REGENERATION * , 1974, Annals of the New York Academy of Sciences.
[226] A. Duprat,et al. Noggin upregulates Fos expression by a calcium‐mediated pathway in amphibian embryos , 1999, Development, growth & differentiation.
[227] S. Engström,et al. Five hypotheses to examine the nature of magnetic field transduction in biological systems. , 1999, Bioelectromagnetics.
[228] A. Blight,et al. Transected dorsal column axons within the guinea pig spinal cord regenerate in the presence of an applied electric field , 1986, The Journal of comparative neurology.
[229] C. Cone. Unified theory on the basic mechanism of normal mitotic control and oncogenesis. , 1971, Journal of theoretical biology.
[230] E. Huebner,et al. Ionic basis of bioelectric currents during oogenesis in an insect. , 1993, Developmental biology.
[231] C. McCaig,et al. Hippocampal growth cone responses to focally applied electric fields. , 1993, Journal of neurobiology.
[232] L. Bianchi,et al. herg encodes a K+ current highly conserved in tumors of different histogenesis: a selective advantage for cancer cells? , 1998, Cancer research.
[233] M. Grattarola,et al. Cytofluorometry of electromagnetically controlled cell dedifferentiation. , 1979, The journal of histochemistry and cytochemistry : official journal of the Histochemistry Society.
[234] S Buntenkötter,et al. Effects of magnetic fields on mammary tumor development induced by 7,12-dimethylbenz(a)anthracene in rats. , 1993, Bioelectromagnetics.
[235] L. S. Jenkins,et al. Reduction of the current of injury leaving the amputation inhibits limb regeneration in the red spotted newt. , 1996, Developmental biology.
[236] G. Albrecht‐Buehler,et al. Surface extensions of 3T3 cells towards distant infrared light sources , 1991, The Journal of cell biology.
[237] R. Smialowicz. Immunologic Effects of Nonionizing Electromagnetic Radiation , 1987, IEEE Engineering in Medicine and Biology Magazine.
[238] M. Poo,et al. Electrophoresis of concanavalin A receptors along embryonic muscle cell membrane , 1977, Nature.
[239] A. Pilla,et al. Transduction of electromagnetic signals into biological effects: Accounts of kinetics and energetics , 1984 .
[240] R. Wijk,et al. Photon emission in tumor biology , 1992, Experientia.
[241] C. McCaig,et al. Electric field‐induced orientation of rat hippocampal neurones in vitro , 1992, Experimental physiology.
[242] A. Rajnicek,et al. An endogenous sodium current may mediate wound healing in Xenopus neurulae. , 1988, Developmental biology.
[243] H. Fröhlich,et al. Biological coherence and response to external stimuli , 1988 .
[244] Stephen D. Smith. EFFECTS OF ELECTRODE PLACEMENT ON STIMULATION OF ADULT FROG LIMB REGENERATION * , 1974, Annals of the New York Academy of Sciences.
[245] A. Duprat,et al. Increased internal Ca2+ mediates neural induction in the amphibian embryo. , 1994, Proceedings of the National Academy of Sciences of the United States of America.
[246] G. Rodan,et al. Effect of electric currents on DNA synthesis in rat osteosarcoma cells: Dependence on conditions that influence cell growth , 1987, Journal of orthopaedic research : official publication of the Orthopaedic Research Society.
[247] K. R. Robinson,et al. Ionic current in Xenopus embryos during neurulation and wound healing. , 1986, Progress in clinical and biological research.
[248] W. Hein,et al. Der Einfluss von Ionenkanalmodulatoren auf das Membranpotential humaner Chondrozyten , 2000, Der Orthopäde.
[249] A. Sater,et al. An increase in intracellular pH during neural induction in Xenopus. , 1994, Development.
[250] M. Albrieux,et al. Bilateral asymmetry of the inositol trisphosphate‐mediated calcium signaling in two‐cell ascidian embryos , 2000, Biology of the cell.
[251] W. Wonderlin,et al. Evidence for an early G1 ionic event necessary for cell cycle progression and survival in the MCF‐7 human breast carcinoma cell line , 1998, Journal of cellular physiology.
[252] J. Feijó,et al. Cellular oscillations and the regulation of growth: the pollen tube paradigm , 2000, BioEssays : news and reviews in molecular, cellular and developmental biology.
[253] A. De Loof,et al. Intra- and Extracellular Electrical Fields of Vitellogenic Polytrophic Insect Follicles. , 1989, The Biological bulletin.
[254] V. Gallo,et al. K+ Channel Expression and Cell Proliferation Are Regulated by Intracellular Sodium and Membrane Depolarization in Oligodendrocyte Progenitor Cells , 1997, The Journal of Neuroscience.
[255] H. A. Pohl,et al. Separation of Living and Dead Cells by Dielectrophoresis , 1966, Science.
[256] L. J. AUDUS. Magnetotropism: A New Plant-Growth Response , 1960, Nature.
[257] W. B. Chwirot. Ultraweak photon emission and anther meiotic cycle inLarix europaea (experimental investigation of Nagl and Popp's electromagnetic model of differentiation) , 1988, Experientia.
[258] J. Juutilainen,et al. Development of chick embryos in 1 Hz to 100 kHz magnetic fields , 1986, Radiation and environmental biophysics.
[259] H. S. Burr. Electrical Correlates of Growth in Corn Roots * , 1942, The Yale journal of biology and medicine.
[260] A. Presman. Electromagnetic fields and life , 1970 .
[261] T. I. Quickenden,et al. Weak luminescence from the yeast Saccharomyces cerevisiae and the existence of mitogenetic radiation. , 1974, Biochemical and biophysical research communications.
[262] S. Jones,et al. Overexpression of a potassium channel gene perturbs neural differentiation , 1994, The Journal of neuroscience : the official journal of the Society for Neuroscience.
[263] J V Forrester,et al. Re-orientation and faster, directed migration of lens epithelial cells in a physiological electric field. , 2000, Experimental eye research.
[264] Bogusława Jeżowska-Trzebiatowska. Photon emission from biological systems : proceedings of the First international symposium, Wrocław, Poland, January 24-26 1986 , 1987 .
[265] K. Robinson. Electrical currents through full-grown and maturing Xenopus oocytes. , 1979, Proceedings of the National Academy of Sciences of the United States of America.
[266] J. Sedar. The influence of direct current fields upon the developmental pattern of the chick embryo , 1956 .
[267] T. Cherkasova,et al. Glutathione and superoxide dismutase redox enzyme system during development of toxicoinfectious shock caused by murine plague toxin , 1990, Bulletin of Experimental Biology and Medicine.
[268] G. Moment. A study of growth limitation in earthworms. , 1946, The Journal of experimental zoology.
[269] C. McCaig,et al. The effects of melanocortins and electrical fields on neuronal growth , 1992, Experimental Neurology.
[270] J. Kunkel,et al. Patterns of ionic currents around the developing oocyte of the German cockroach, Blattella germanica. , 1990, Developmental biology.
[271] Arnold De Loop,et al. Experimental reversal of the electric field around vitellogenic follicles of Sarcophaga bullata , 1988 .
[272] R. Nuccitelli,et al. Electrical controls of development. , 1977, Annual review of biophysics and bioengineering.
[273] R. Nuccitelli,et al. Neural crest cell galvanotaxis: new data and a novel approach to the analysis of both galvanotaxis and chemotaxis. , 1991, Cell motility and the cytoskeleton.
[274] M. Mercola,et al. Gap junctions are involved in the early generation of left-right asymmetry. , 1998, Developmental biology.
[275] M F Barnothy,et al. Biological effects of magnetic fields. , 1974, Progress in biometeorology. Division A: Progress in human biometeorology.
[276] J. Forrester,et al. Human corneal epithelial cells reorient and migrate cathodally in a small applied electric field. , 1997, Current eye research.
[277] C. McCaig. Spinal neurite reabsorption and regrowth in vitro depend on the polarity of an applied electric field. , 1987, Development.
[278] C. I. Hovland,et al. Bio-Electric Potential Gradients in the Chick * , 1937, The Yale journal of biology and medicine.
[279] G Albrecht-Buehler,et al. Cellular infrared detector appears to be contained in the centrosome. , 1994, Cell motility and the cytoskeleton.
[280] M. Mercola,et al. Gap junction-mediated transfer of left-right patterning signals in the early chick blastoderm is upstream of Shh asymmetry in the node , 1999 .
[281] Three-dimensional calibration of the non-invasive ion probe, NVP(i), of steady ionic currents. , 1994, The Biological bulletin.
[282] R. Becker. Electromagnetic Controls Over Biological Growth Processes , 1984 .
[283] H. Burr,et al. A BIO-ELECTRIC RECORD OF HUMAN OVULATION. , 1937, Science.
[284] A. Mathews. ELECTRICAL POLARITY IN THE HYDROIDS , 1903 .
[285] M. Brock,et al. The geomagnetic field: a factor in cellular interactions? I. Magnetism and Schwann cell-axon interaction in the peripheral nerves of the newborn rat. , 1987, Neurological research.
[286] R. Astumian,et al. Protein kinase C activity is altered in HL60 cells exposed to 60 Hz AC electric fields. , 1996, Bioelectromagnetics.
[287] C. Cone. IONICALLY MEDIATED INDUCTION OF MITOGENESIS IN CNS NEURONS , 1980, Annals of the New York Academy of Sciences.
[288] C A Bassett,et al. Beneficial effects of electromagnetic fields , 1993, Journal of cellular biochemistry.
[289] Min Zhao,et al. Has electrical growth cone guidance found its potential? , 2002, Trends in Neurosciences.
[290] Colin D. McCaig,et al. Nerve guidance: a role for bio-electric fields? , 1988, Progress in Neurobiology.
[291] H. Gutzeit,et al. Evidence against electrophoresis as the principal mode of protein transport in vitellogenic ovarian follicles of Drosophila. , 1987, Development.
[292] C. McCaig,et al. ELECTRICAL FIELDS, CALCIUM GRADIENTS, AND CELL GROWTH , 1980, Annals of the New York Academy of Sciences.
[293] E. Chambers,et al. Membrane potential, action potential and activation potential of eggs of the sea urchin, Lytechinus variegatus. , 1979, Experimental cell research.
[294] H. Berg. Bioelectrodynamics and biocommunication: M.-W. Ho, F.-A. Popp and U. Warnke (Eds.), World Scientific, Singapore, London, 1994, ISBN 981-02-1665-3, xvii + 436 pp., £68.00 , 1994 .
[295] J. Geysen,et al. Comparative developmental physiology and molecular cytology of the polytrophic ovarian follicles of the blowfly Sarcophaga bullata and the fruitfly Drosophila melanogaster. , 1990, Comparative biochemistry and physiology. A, Comparative physiology.
[296] H. W. Beams,et al. Electrical control of morphogenesis in regenerating Dugesia tigrina. I. Relation of axial polarity to field strength. , 1952, Journal of cellular and comparative physiology.
[297] K. Hotary,et al. Endogenous electrical currents and the resultant voltage gradients in the chick embryo. , 1990, Developmental biology.
[298] C. Stern. Experimental reversal of polarity in chick embryo epiblast sheets in vitro. , 1982, Experimental cell research.
[299] R. Nuccitelli,et al. Embryonic cell motility can be guided by physiological electric fields. , 1983, Experimental cell research.
[300] Jean Dimmitt,et al. Electrical control of morphogenesis in regenerating Dugesia tigrina. II. Potential gradient vs. current density as control factors. , 1952, Journal of cellular and comparative physiology.
[301] C. Illingworth,et al. Trapped fingers and amputated finger tips in children. , 1974, Journal of pediatric surgery.
[302] B. Shao,et al. Effects of 50 Hz magnetic fields on gap junctional intercellular communication. , 1999, Bioelectromagnetics.
[303] W. Wonderlin,et al. An ATP-Sensitive K+ Current that Regulates Progression Through Early G1 Phase of the Cell Cycle in MCF-7 Human Breast Cancer Cells , 1999, The Journal of Membrane Biology.
[304] H S BURR. Field theory in biology. , 1947, The Scientific monthly.
[305] K. Agata,et al. Molecular and cellular aspects of planarian regeneration. , 1999, Seminars in cell & developmental biology.
[306] K. Robinson. Endogenous electrical current leaves the limb and prelimb region of the Xenopus embryo. , 1983, Developmental biology.
[307] C. McCaig,et al. Electric fields induce curved growth of Enterobacter cloacae, Escherichia coli, and Bacillus subtilis cells: implications for mechanisms of galvanotropism and bacterial growth , 1994, Journal of bacteriology.
[308] L. Wiley,et al. Polarity of isolated blastomeres from mouse morulae: detection of transcellular ion currents. , 1985, Developmental biology.
[309] L. Ravitz. Application of the Electrodynamic Field Theory in Biology, Psychiatry, Medicine, and Hypnosis , 1959 .
[310] W. Moody,et al. Lineage-specific development of calcium currents during embryogenesis. , 1988, Science.
[311] F. Ivanhoe. Coevolution of Human Beain Size and Paleolithic Culture in the Northern Hemisphere: Relation to Geomagnetic Intensity , 1982 .
[312] J. L. Gould. Magnetic field sensitivity in animals. , 1984, Annual review of physiology.
[313] K. Rathore,et al. A cytoplasmic gradient of Ca2+ is correlated with the growth of lily pollen tubes. , 1991, Developmental biology.
[314] R. Wever. Einfluß schwacher elektro-magnetischer Felder auf die circadiane Periodik des Menschen , 2004, Naturwissenschaften.
[315] K. Hotary,et al. Evidence of a role for endogenous electrical fields in chick embryo development. , 1992, Development.
[316] R. Spiegel,et al. Effect of ambient levels of power-line-frequency electric fields on a developing vertebrate. , 1988, Bioelectromagnetics.
[317] L. Langman,et al. A technique to aid in the detection of malignancy of the female genital tract. , 1949, American journal of obstetrics and gynecology.
[318] M. Levin. Isolation and Community: A Review of the Role of Gap-Junctional Communication in Embryonic Patterning , 2002, The Journal of Membrane Biology.
[319] R. Larter,et al. A theoretical basis for self-electrophoresis. , 1981, Journal of theoretical biology.
[320] M. Asashima,et al. Magnetic shielding induces early developmental abnormalities in the newt, Cynops pyrrhogaster. , 1991, Bioelectromagnetics.
[321] W. Nagl,et al. A physical (electromagnetic) model of differentiation. 1. Basic considerations. , 1983, Cytobios.
[322] Cone Cd. Autosynchrony and self-induced mitosis in sarcoma cell networks. , 1969 .
[323] C. Cone. Variation of the transmembrane potential level as a basic mechanism of mitosis control. , 1970, Oncology.
[324] F. Brown,,et al. INTERORGANISMIC AND ENVIRONMENTAL INFLUENCES THROUGH EXTREMELY WEAK ELECTROMAGNETIC FIELDS , 1973 .
[325] R. Becker. The bioelectric field pattern in the salamander and its simulation by an electronic analog. , 1960, IRE transactions on medical electronics.
[326] K. Nakajo,et al. The maternal transcript for truncated voltage-dependent Ca2+ channels in the ascidian embryo: a potential suppressive role in Ca2+ channel expression. , 2001, Developmental biology.
[327] A. Gurwitsch,et al. A historical review of the problem of mitogenetic radiation , 1988, Experientia.
[328] R. Borgens,et al. Electrically mediated regeneration and guidance of adult mammalian spinal axons into polymeric channels , 1999, Neuroscience.
[329] R. Borgens. Mice regrow the tips of their foretoes. , 1982, Science.
[330] J V Forrester,et al. Orientation and directed migration of cultured corneal epithelial cells in small electric fields are serum dependent. , 1996, Journal of cell science.
[331] J L Monteagudo,et al. Embryological changes induced by weak, extremely low frequency electromagnetic fields. , 1982, Journal of anatomy.
[332] J. Dooley,et al. Magnetic field effects on spatial discrimination and melatonin levels in mice , 1995, Physiology & Behavior.
[333] I. I. Borodin,et al. [Reaction of circadian rhythms of the lymphoid system to deep screening from geomagnetic fields of the earth]. , 1990, Biulleten' eksperimental'noi biologii i meditsiny.
[334] C. McCaig,et al. Factors influencing perpendicular elongation of embryonic frog muscle cells in a small applied electric field. , 1991, Journal of cell science.
[335] E. A. Flinn,et al. Magnetic fields affect the lac operon system. , 1982, Physics in medicine and biology.
[336] E. Wanke,et al. Electric fields at the plasma membrane level: a neglected element in the mechanisms of cell signalling. , 1996, BioEssays : news and reviews in molecular, cellular and developmental biology.
[337] C. McCaig,et al. Growth cone neurotransmitter receptor activation modulates electric field-guided nerve growth. , 1995, Developmental Biology.
[338] C. McCaig,et al. The direction of neurite growth in a weak DC electric field depends on the substratum: contributions of adhesivity and net surface charge. , 1998, Developmental biology.
[339] J. Wohlrab,et al. Electrophysiological characterization of human keratinocytes using the patch‐clamp technique , 2000, Experimental dermatology.
[340] M. Messerli,et al. Cytoplasmic acidification and current influx follow growth pulses of Lilium longiflorum pollen tubes , 1998 .
[341] G. Kidder,et al. Embryonic Expression of the Putative γ Subunit of the Sodium Pump Is Required for Acquisition of Fluid Transport Capacity during Mouse Blastocyst Development , 1997, The Journal of cell biology.
[342] D. Betts,et al. Na/K-ATPase-mediated 86Rb+ uptake and asymmetrical trophectoderm localization of alpha1 and alpha3 Na/K-ATPase isoforms during bovine preattachment development. , 1998, Developmental biology.
[343] C. McCaig. Nerve growth in a small applied electric field and the effects of pharmacological agents on rate and orientation. , 1990, Journal of cell science.
[344] Y. S. Kim. Some possible effects of static magnetic fields. , 1976, T.-I.-T. journal of life sciences.