Acta Physiologica Scandinavica 2000: Vol 168 Index

9 Pages·2000·2 MB·English

Acta Physiol Scand 2000, 168, 687-690
Author index
\guerre, S. Martin, C.] asellas, rp: See Moore, | ie
\kivama, T Takauchi, Y. asellas, D., Bouriquet, N. & Artuso, A. Nitric oxide and
\lexander, B.T. Granger, |.P preglomerular vascular lesions in Lyon spontaneously
\lexandrova, S. Salman, H hypertensive rats, 133
\ndreasen, D. Friis, U.G. haouloff, F. see Martin, C.L.
\ndrews, F.M. Sandin, A. heng, H.-F. see Harris, R.C.
AnsjOn, R. Pagani, M. 1, S.Y. see Navar, L.G.
\peria, A. Holtbiack, 1 lark, A.D.H. see Clark, M.G.
\rima, S. Ke y agura, IK. lark, M.G., Rattigan, S., Clerk, L.H., Vincent, M.A.,
\rsac, L. see Linossier, M.-T. Clark, A.D.H., Youd, J.M. & Newman, ].M.B. Nutritive
\rtuso, A. 5 asellas, D. and non-nutritive blood flow: rest and exercise, 519
\ruldhas, M.M. lerk, L.H. see Clark, M.G.
\shirova, O offman, T.M. see Schnermann, J.
\ukland, K. onley, K.E., Orgwav, G.A. & Richardson, R.S. Deci
phering the mysteries of myoglobin in striated muscle,
Bangsbo, J. Muscle ox 623
and during in onvery, M.K. & Hancox, J.C. Na -Ca
Baylis, ( rent from rabbit isolated atrioventricular nodal and
Beilin, B. , ventricular myocytes compared using action potenti
Bell, P.D., Mashburn and ramp waveforms, 393
ro iberg. ie SCE Gid6o, G.
salt-sensitive
Bergman, M I Ye Wit, C. see Boltz, S.-S
Bernstein, R.D. I Ye Wit, C. see Pohl,
Bessler, H. I Yenis, ¢ Linossier, M.-T.
Bianchi, G. Fe i Yibona, G.F. Differentiation of vasoactive renal
Birdsey, G.M., Leiper, j.M. & Vallance, P thetic nerve fibres, 195
localization of dimethylarginine dimethyl I Yimmeler, S Fisslthaler, B.
overexpressed in an endothelial cell [ Yjaldetti, M. se Salman, H.
Blantz, R.C., Satriano, |., Gabbai, F. I Yormois, D. s Linossier, M.-T.
effects of arginine metabolites, 2 I Yuclos, M. see Martin, C.L.
Blix, A.S. Nordgarden, U.
Boltz, S.-S., Pieperhoff, $., De Wit, C. & Pohl, U. | dvinsson, L. see Hou, M.
increases in transmural pressure reduce NO-m« isner, G.M. Ce Felder, R.A
dilations in isolated resistance arteries of the | llinger, \. Moore, L.¢ .
113 llsworth, M.L. The red blood cel
Bouriquet, N Casellas, D what is the evidence?, 551
Boushel, R. & Piantadosi, C.A. Near-infrared spect ndo, Y. Kohagura, K.
for monitoring muscle ox genation, 615 rlinge, D Hou, M.
Braam, B., Turkstra, E. & Koomans, H.A. Concert
tions of renal endothelial and macula densa NO elder, R.A., Eisner, G.M. & Jose, P.A. D; Dopamine
in the maintenance of extracellular fluid volume receptor signalling defect in spontaneous hypertension,
Briggs, J.P. s Schnermann, J. 245
Brismar, H. see Holtback, U. errandi, M. & Bianchi, G. Genetic mechanisms under
Brown, G.( Nitric oxide as a competitive inhibit hy the regulation of urinary sodium excretion and
oxygen consumption in the mitochondrial respit arterial blood pressure: the role of adducin, 187
chain, 667 isslthaler, B., Dimmeler, S., Hermann, ( , Busse, R. &
Brown, R. see Persson, A.E.G. Fleming, I. Phosphorylation an d activation of the en
Budzikowski, A.S. s¢ Goligorsky, M.S. dothelial nitric oxide synthase by fluid shear stress, 81
Busse, R. Fisslthaler, B latebo, T. see Melsom, M.N
latmark, T. Catecholamine biosynthesis and physiological
albert, J.A.L. Oxygen tension and content in th regulation in neuroendocrine cells, 1
ulation of limb blood flow, 465 leming, I. see Fisslthaler, B.
arey, R.M., Jin, X.-H., Wang, Z.-Q. & Siragy, H.M. N olkow, L.P. see Nordgarden,
oxide: a physiological mediator of the type 2 (AT ortia, P. see Shen, W.
angiotensin receptor, 65 riis, U.G., Jensen, B.L., Hansen, P.B., Andreasen, D. &
‘arlsson, O., Rosengren, B.-I. & Rippe, B. Effects Skott, O. Exocytosis and endocytosis in juxtaglomerular
peritoneal hyaluronidase treatment on transperiti cells, 95
solute and fluid transport in the rat, 371 Fukunaga, T. see Kubo, K.
\uthor index
Gabbai, F. see Blantz, R.C. Ito, S. see Kohagura, K.
Gay, J.-P. see Linossier, M.-T. Iwata, H. see Sugiura, H.
Gebremedhin, D. see Harder, D.R.
Geyssant, A. see Linossier, M.-T. Jacobsson, H. see Pagani, M.
Gibala, M.J., Young, M.E. & Taegtmeyer, H. Anaplerosis Jayaraman, G. see Healy, D.P.
;
of the citric acid cycle: role in energy metabolism of Jebcns, E. see Medbo, J.I.
heart and skeletal muscle, 657 Jensen, B.L. see Friis, U.G.
Gid6, G., Cronberg, T. & Wieloch, T. The effect of Jin, X.-H. see Carey, R.M.
x — phenyl-tert-butyl nitrone (PBN) on free radical Jc msson, C. se Pagani, M.
formation in transient focal ischaemia measured by J6quist, M. see Hansell, P.
microdialysis and 3,4-dihydroxybenzoate formation, 277 Jose, P.A. see Felder, R.A.
Gloe, ‘ Ya: Pohl, [ Joyner, M.J. & Halliwill, ].R. Neurogenic vasodilation in
Goligorsky, M.S., Noiri, | Tsukahara, H., Budzikowski, human skeletal muscle: possible role in contraction
\.S. & Li, H. A pivotal role of nitric oxide in endothelial induced hyperaemia, 481
cell dysfunction, 33
Gotz, K -H. see Kurtz, A. Kanehisa, H. see Kubo, K.
Govindarajulu, P. see Sunil, N. Kaskel, F.J. see Moore, L.C.
Granger, J.P. & \lexander, B.T. Abnormal pressure Kawakami, Y. see Kubo, K.
natriuresis in hypertension: role of nitric oxide, 161 Kay, L. see Saks, V.A.
Gross, S.S. see Lane, P. Kelly\ , Cot Blantz, R.(
Gutierrez, \. a: Persson, A.E.G. Kindahl, H. see Soppela, P.
Kohagura, K., Endo, Y., Ito, O., \rima, S., Omata, K. &
Halliwill, J.R. see Joyner, M.J. Ito, S. Endogenous nitric oxide and epoxyeicosatrienoic
Hamann, M. see Kurtz, A. acids modulate angiotensin II-induced constriction in
Hancox, J.C. see Convery, M.K. the rabbit afferent arteriole, 107
Hanem, S. Medbo, J.I. Kone, B.C. Protein-protein interactions controlling nitric
Hansell, P., Isaksson, B. &. JGquist, M. Renal dopamine oxide synthases
and noradrenaline excretion during CNS-induced Kongas, O. see Saks, V.A.
latriuresis in spontaneously hypertensive rats: influence Koomans, H.A. see Braam, B.
of dietary sodium, 257 Kruse, M.S. see Holtbick, |
Hansen, J., Sander, M. & Thomas, G.D. Metabolic mod Kubo, K., Kanehisa, H., Kawakami, Y. & Fukunaga, T.
ulation of sympathetic vasoconstriction in exercising Elasticity of tendon structures of the lower limbs in
skeletal muscle, 489 sprinters, 327
Hansen, P.B. see Friis, U.G. Kurkus, J. see Thorup, C.
Harder, D.R., Roman, R.J. & Gebremedhin, D. Molecular Kurtz, A., Gotz, K -H., Hamann, M. & Sandner, P. Mode
mechanisms controlling nutritive blood flow: role of of nitric oxide action on the renal vasculature, 41
cytochrome P450 enzymes, 543 Kiister, E. see Miihlbauer, B.
Harris, R.C., Cheng, H.-F., Wang, J.-L., Zhang, M.-Z. &
Mckanna, J.A. Interactions of the renin-angiotensin acour, J.-R. Linossier, M.-7
system and neuronal nitric oxide synthase in regulation ane, P. & Gross, $.S. The autoinhibitory control element
of cyclooxygenase-2 in the macula densa, 47 and calmodulin conspire to provide physiological mod
Healy, D.P., Jayaraman, G. & Ashirova, O. Chemical ulation of endothelial and neuronal nitric oxide synthase
hypoxia-induced increases in dopamine D,, receptor activity, 53
mRNA in renal epithelial cells are mediated by nitric aarsson, S.A. see Pagani, M.
oxide, 233 eiper, J.M. see Birdsey, G.M.
Heiskari, U. see Soppela, P. 4, H. see Goligorsky, M.S.
Hellsten, Y. see Radegran, G. 4, L. see Schafer, J.A.
Hermann, C. see Fisslthaler, B. ind, F. see Pagani, M.
Hintze, T.H. see Shen, W. Anossier, M.-T., Dormois, D., Arsac, L., Denis, C., Gay,
Holtback, U., Kruse, M.S., Brismar, H. & Aperia, A. J.-P., Geyssant, A. & Lacour, J.-R. Effect of
Intrarenal dopamine coordinates the effect of hyperoxia on aerobic and anaerobic performances
antinatriuretic and natriuretic factors, 215 and muscle metabolism during maximal cycling exercise,
Hoppeler, H. & Weibel, E.R. Structural and functional 403
limits for oxygen supply to muscles, 445 ju, R: See Persson, \.] GS.
Hou, M., Pantev, E., MGller, S., Erlinge, D. & Edvinsson, okhandwala, M.F. & Hussain, T. Defective renal dopa
L. Angiotensin II type 1 receptors stimulate protein mine D,-like receptor signal transduction in obese
synthesis in human cardiac fibroblasts via a Ca>*-sen hypertensive rats, 251
sitive PKC-dependent tyrosine kinase pathway, 301 Lucas-Teixeira, V., Serrao, M.P. & Soares-Da-Silva, P.
Hussain, T. see Lokhandwala, M.F. Effect of salt intake on jejunal dopamine, Na’, K
\TPase activity and electrolyte transport, 22 5
Ichihara, A. see Navar, L.G. Luippold, G. see Miihlbauer, B.
Imig, J.D. see Navar, L.G.
Inaba, R. see Sugiura, H. Manier, G. see Martin, C.L.
Isaksson, B. see Hansell, P. Marshall, J.M. Adenosine and muscle vasodilation in acute
Ito, O. see Kohagura, K. systemic hypoxia, 561
Author index
Martin, ¢ J . Duclos, M... \guerre, hy Mormede, vasodilators in the development of hypertension: NO
Manier, G. & Ch iouloff, F. ( orticotropi and and dopamine, 19
serotonergic responses to acute stress with/wit Persson, A.E.G. see Thorup, ¢
prior exercise training in different rat strains, 4 Persson, A.E.G., Gutierrez, A., Pittner, J., Ring, A., Ol
Mashburn, N. see Bell, P.D lerstam, A., Brown, R., Liu, R. & Thorup, C. Renal NO
Mattson, D.L. & Wu, F. Cont production and the development of hypertension, 169
and renal sodium excret by nitric oxid f Persson, P.B. see Stauss, H.M.
the renal medulla, 14! Piantadosi, C.A. see Boushel, R.
Mckanna, J.A. Pieperhoff, S. see Boltz, S.-S
Medbo, J.1., Han land, H. & Jel ye Piiper, |. Perfusion, diffusion, and their hetrogeneities
\rterio-venous differences of blood acid-bas« imiting blood-tissue O> transfer mu} scle, 603
and plasma sodium caused by intense bicycling, Pittman, R.N. Oxygen supIptl y to contracting skeletal
Melsom, M.N., Flatebo, icolaysen,G . N muscle at the microcirculatory level: diffusion vs
efft tect ot matchingo f | convention, 593
perfusion and ventilation in awake sheep, 3( Pittner, |. see Persson, A.E.G.
Mirbod, S.M. s I Schnermann, J.
Moller, S. Hou, ohl, U. Boltz
Moore, L.C., Thorup, C., inger, A.., ne Pohl, U., De Wit, C. & Gloe, T. Lar;
Casellas, D |. Advanced glycosylat control of blood flow: rol
end-products and dependent va atior dilation, 505
ifferent art
Mormede,
Morsing, P. rup, exercise-induced human
Mr IWKa, ta 4 575
] Rasmussen, | I
receptors in the rat kidney: r n physiolog Rasmussen, U.F. & Rasmussen, H.N. Human skeleta
pathophysiolog ) mt mitochondrial capacity, 473
Murrant, C.l : rk, M.G.
hardson, R.S. Conley, K.I
contraction, 531 ng, A. Persson, A.E.G
Nadeau, J.
Naftz, B
Harder, D.R.
dependent hypertensior 9 ysengren, B.-I. ( irisson,
Newman, ].M
Nicola Ss Kongas, O., Vendel
Nieminen phx sphe creantin
Nilsson, din, n hondrial respi
Nishida, Sugiura, ilman, H., Bergman
Nishimura, M., Takahashi, oshimura, M. R Beilin, B. & Dya
nitric ] a 7 wr ] ; ‘ hers ten _ | nh . 7 tic activ. ity
Noddel
Nori, |
Nordgarden,
th1 e d}i ra ecti1o n
intravertebral vein
ing simulated Hansen,
\ndrews,
Ochoa, M nervous excitati
Ollerstam, A
Ollerstam, A
Omata, K
Orgway, G.A.
Paccione, ]. see Moore,
Pagani, M., Ansj6n, R., Lind, F., Uusijarvi, J., S nine and vasopressin-dependent
Jonsson, C., Salmaso, D., Jacobsson, H. & Lars S Schmidt, R.]. Xiao, S.
Effects of acute hyp|o baric hyp| oxia on reg:i ona Schnermann, J., Travnor, T., Pohl, H., °
blood flow distribution: a Single Photon Emiss Coftman, T.M. & Briggs, ].P. Vasoconstrictor r
Computed Tomography study in humans, 3 in thromboxane receptor knockout mice
Pantev, E. see Hou, M. mneerr ular feedback and ureteral obstruction,
Persson, A.E.G. Introduction to the Fourth Act SeC gal, S.S. Integration of blood it flfl ow contro
Physiologica Scandinavica International Symp« nuscle: kev role of feed arteries, 511 ]
690 \uthor index
Serrao, M.P. see Lucas-Teixeira, V. Thorup, C., Kurkus, J., Morsing, P., Ollerstam, A. &
Shen, W., Xu, X., Ochoa, M., Zhao, G., Bernstein, R.D., Persson, A.E.G. Impaired effect by NO synthase
Forfia, P. & Hintze, T.H. Endogenous nitric oxide in the inhibition on tubuloglomerular feedback in rats after
control of skeletal muscle oxygen extraction during chronic renal denervation, 89
exercise, 675 Traynor, T. see Schnermann, J.
Shennan, D.B. & Thomson, J. Further evidence for the Tsukahara, H. see Goligorsky, M.S.
existence of a volume-activated taurine efflux pathway in Turkstra, E. see Braam, B.
rat mammary tissue independent from volume-sensitive
CI channels, 295 Unlap, M.T. see Bell, P.D.
Siragy, H.M. see Carey, R.M. Uusijarvi,J . see Pagani, M.
Skott, O. see Friis, U.G.
Soares-Da-Silva, P. see Lucas-Teixeira, V. Vallance, P. see Birdsey, G.M.
Soppela, P., Heiskari, U., Nieminen, M., Salminen, I., Van Hall, G. Lactate as a fuel for mitochondrial respira
Sankari, S$. & Kindahl, H. The effects of a prolonged tion, 643
undernutrition on serum lipids and fatty acid composi Vendelin, M. see Saks, V.A.
tion of reindeer calves during winter and spring, 337 Vincent, M.A. see Clark, M.G.
Srinivasan, N. see Sunil, N.
Stauss, H.M., Naftz, B., Mrowka, R. & Persson, P.B. Blood Wagner, P.D. Diffusive resistance to O> transport in
pressure control in eNOS knock-out mice: comparison muscle, 609
with other species under NO blockade, 155 Walloe, L. see Nordgarden, U.
Sugiura, H. see Sugiura, H. Wang, J.-L. see Harris, R.C.
Sugiura, H., Sugiura, H., Nishida, H., Inaba, R., Mirbod, Wang, Z.-Q. see Carey, R.M.
S.M. & Iwata, H. Immunomodulation by 8-week W eibel, E.R. See Hoppeler, H.
voluntary exercise in mice, 413 Welsh, W J. see X ilcox, CS.
Sumen, G. see Pagani, M. Wieloch, E SCE Gid6é, G.
Sun, D. see Schafer, J.A. Wilcox, C.S. & Welsh, W.J. Interaction between nitric
Sunil, N., Srinivasan, N., Aruldhas, M.M. & Govindarajulu, oxide and oxygen radicals in regulation of tubuloglo-
P. Impact of oestradiol and progesterone on the glyco- merular feedback, 119
saminoglycans and their depolymerizing enzymes of the Wu, F. see Mattson, D.L.
rat mammary gland, 385
Xiao, S., Schmidt, R.J. & Baylis, C. Plasma from ESRD
Taegtmeyer, H. see Gibala, MJ. patients inhibits nitric oxide synthase activity in cultured
Takahashi, H. see Nishimura, M. human and bovine endothelial cells, 175
Takauchi, Y., Yamazaki, T. & Akiyama, T. Tyramine- Xu, X. see Shen, W.
induced endogenous noradrenaline efflux from én situ
cardiac sympathetic nerve ending in cats, 287 Yamazaki, T. see Takauchi, Y.
Tenstad, O. see Roald, A.B. Yoshimura, M. see Nishimura, M.
Thomas, D.W. see Schnermann, J. Youd, J.M. see Clark, M.G.
Thomas, G.D. see Hansen, J. Young, M.E. see Gibala, MJ.
Thomson, J. see Shennan, D.B.
Thorup, C. see Moore, L.C. Zhang, M.-Z. see Harris, R.C.
Thorup, C. see Persson, A.E.G. Zhao, G. see Shen, W.
2000 Scandinavian Physiological Society
Acta Physiol Scand 2000, 168, 69
Subject index
Adre noceptors, 21 : ( AMP, 95, 245
7-OH-DPAT, 219 apillaries, 445, 593
\cetylcholine, 101, 113, 675 apillary, 531
\cid-base balance, 311 irbohydrates, 445
ACTH, 421 Cardiovascular physiology, 465
\dducin locus, 187 arrier-mediated outward transport, 287
\denosine, 561 atecholamine, 1
Adenosine 5’ triphosphate, 551 atechol-O-methyltransferase, 215
\drenaline, 1 wveolae, 33, 73
Afferent arteriole, 107, 119 wveolin, 27
\fferent arterioles, 133 ell proliferation, 21
\geing, 133 erebral blood flow, 543
\gmatine, 21 hondroitinase, 385
\lpha adrenoceptors, 489 itrulline formation, 139
\mino acid metabolism, 657 learance, 371
\mplification of nutrient delivery, 519 ompartmentation, 635
(Anatomy, 271 ompliance, 327
\ngiogenesis, 33 onnective tissue adipocytes, 519
Angiotensin I, 107, ; onnective tissue flow, 519
\ngiotensin, 65 Cortical collecting duct, 245
\ngiotension, 125 orticosterone, 421
\nimal model, 187 yclooxygenase, 47
ANP (atrial natriuretic peptide), 215 ytochrome P450, 543
\ntidiuresis, 351
\rcuate and interlobular arteries, 133 D1 like receptors, 215
\rginine, 21 Dj, receptor, 233
\rterial blood pressure, 155 D, receptor, 239
\rterial pressure, 161 DAHL, 219
Arterioles, 209, 593 Dermal microvascular endothelial cells, 175
\ssociation study, 187 Desmopressin, 351
\symmetric dimethylarginine (ADMA), 175 Diabetes mellitus, 101
\T, and AT> receptors, 301 Diabetic nephropathy, 101
A\T>, 65 Dilatation, 561
\TP synthesis, 473 Dimethylarginine dimethylaminohydrolase, 7
Atrioventricular nodal myocyte, 3 DNA polymorphism, 187
\tropine, 437 Dopamine D,; receptor, 219
Autoinhibitory domain, 53 Dopamine receptor subtypes, 239
\utoregulation, 125, 505 Dopamine receptors, 245
\V node, 393 Dopamine, 1, 215, 225, 233, 245, 251, 257
Doppler ultrasound flowmetry, 271
Basal ganglia, 377
Bethanechol, 437 fficiency of ATP utilization, 473
Biosynthesis, | Jectrophysiology, 95
Blood distribution, 271 ‘ndocytosis, 95
Blood flow regulation, 551 ndogenous nitric oxide synthase inhibitors, 175
>
Blood flow velocity, | ‘ndothelial cells, 73
Blood flow, 457, 531, 575, 603, 615 ‘ndothelium, 27, 107
Blood pressure, 113 , 181 eNOS, 33
Blood, 311 .pitope tagging, 73
Body size scaling, 623 poxyeicosatrienoic acids, 107
Bovine aortic endothelial cells, 175 quine, 437
Bradykinin, 27, 65 rythrocyte, 551
Brain, 277 xercise hyperaemia, 575
xercise training, 421
Calcium exchanger, 209 ‘xercise, 311, 413, 445, 465, 481, 489, 603, 643
Calcium, 53 xhaustion, 403
Calmodulin, 27, 53 -xtracellular fluid volume, 125
cAMP production, 2232 9 -xtradural intravertebral vein, 271
2000 S
692 Subject index
Facilitated diffusion, 623 Macrophage function, 413
Fatty acids, 337 Macrophages, 431
Flow-dependent dilation, 505 Macula densa, 89, 119
Focal ischaemia, 277 Magnetic resonance spectroscopy, 623
Free radicals, 277 Mammary gland, 385
Functional hypermia, 543 Mammary, 295
MAPKK, 301
G protein-related kinase, 245 Mathematical modeling, 635
Genetics, 187 Mean transit time, 457
GER, 139 Medial gastrocnemius, 327
Glomerular capillary endothelial cell, 175 Medullary thick ascending limb of Henle, 245
Glomerular filtration, 21 Mesangial cells, 209
Glutamate, 543 Metabolic control, 473
Glycogenolysis, 403 Metabolic regulation, 657
Glycosaminoglycans, 385 Methylarginines, 73
Cx ylo4, 73 Methyl-para-tyrosine, 287
Microcirculation, 505, 531,
Haemodialysis, 181 Microdialysis, 287
Human cardiac fibroblasts, 301 Micropuncture, 201
Human genetics, 1 Microsphere embolism, 519
Human, 18 Mitochondria, 445, 635, 667
Humans, 481 Modelling, 603
Hyaluronan, 371 Morphology, 95
Hyaluronidase, 385 Motor cortex, 37
Hyperoxia, 403 Mouse, 413
Hypertension, 27 3, 139, 149, 155, 169, 187, 209, 215, Muscle capillary flow, 519
64 Wt RE So deesic) Peet8e Muscle contraction, 531
Hypobaric hypoxia, Muscle oxygenation, 615
Hypotension, 181 Muscle, 311
Hypothermia, 431 Myocardium, 657
Hypoxia, 233, 465, 561, Myocytes, 635
Myogenic, 505
Immobilization, 421 Myoglobin knockout mouse, 623
Immunohistochemistry, 2
Immunomodulatory effects, 413 Na! .-275:) Sh, 225
Inia-Cca, 393 Na’ ,H’ exchange, 311
Insulin, 437 Na /K' ATPase, 245
Interleukin-2 (IL-2), 413 Natriuresis, 215
Interstitium, 371 Near infrared, 615
Intracellular calcium, 113 Nephrogenesis, 47
Intracellular localization, 73 Nerves, 195
Isolated mitochondria, 473 Nitrate and nitrite, 175
Isotopes, 643 Nitrate, 181
Nitric oxide synthase, 119, 125, 139
Jeyunum, 225 Nitric oxide, 21, 27, 53, 65, 73, 89, 107, 149, 155, 169, 181,
Juxtaglomerular apparatus, 95 233, 505, 667
Nitroxide, 119
K"-ATPase, 215 NO,, 175
Kidney failure, 175 Noradrenaline, 1, 257
Kidney, 27, 101, 195, 219, 251, 257
Knockout mice, 201 O>» diffusing capacity, 603
O» consumption, 603, 675
actate dehydrogenase, 643 QO, diffusion, 623
actate shuttle, 643 O> supply, 603
actate, 311 ( )besity, 251
aset-Doppler flowmetry, 149 Oestradiol, 385
-DOPA, 1, 225 Ornithine decarboxylase polyamines, 21
ewis rats, 421 Oxidation, 643
Apids, 337, 445 Oxidative phosphorylation, 623
L-NAME, 101, 361 Oxidative stress, 119
Localization, 219 Oxygen delivery, 457, 551
Low-renin hypertension, 239 Oxygen extraction, 457
2000 Scandinavian Physiological Society
Subject inde.
Oxygen transport, 593 Single Photon Emission Computed Tomography, 37
Oxygen uptake, 473 Skeletal muscle blood flow, 489, 675
Oxygen, 667 Skeletal muscle contraction, 489
Skeletal muscle oxygenation, 489
Pargyline, 287 Skeletal muscle, 445, 531, 561, 643
PBN, 277 S-nitroso-acetylpenicillamine, 119
PDZ domain, 27 Sodium excretion, 161, 219
Performance, 327 Sodium pump, 251
Peritoneal dialysis, 371 Sodium transport, 187
Permeability-surface area product, 371 Sodium, 209, 257, 311
Phagocytosis, 431 Sodium/hydrogen exchanger, 245
PKC, 301 Sodium-calcium exchange, 393
Plasma, 175, 311 Splenocyte proliferation, 413
Post-translational regulation, Sprint, 327, 403
Potassium, 311 Streptozotocin, 101
Power spectral anal Symmorphosis, 445
Progesterone, 385 rt) mpathetic nervous system, 489
Prostaglandins, 47 Sympathomimetic amine, 287
Protein kinase C, 239
Proximal tubule, 245 Taurine, 295
Pulmonary circulation, 361 Teasing, 437
Pyruvate carboxylation, 657 Tempol, 119
Pyruvate dehy« }l rogenase, 45 Petrahydrobiopterin,
Pyruvate, 643 Thromboxane, 201
lranscriptional regulation, 1
Quadriceps muscle, 473 Transgenic animals, 1
Tricarboxylic acid cycle intermediates, 657
Rat, 219, 277 Tubuloglomerular feedback, 89, 125, 169, 201
Reactive oxygen species, 119 Tyrosine kinase, 301
Receptor, 65
Redox state, 403
Itrasonography, 327
Regional cerebral blood flow, 377
ndernutrition, 337
Reindeer, 337
reteral obstruction, 201
Renal autoregulation, 101
Renal blood flow, 351
Renal function, 125 ascular conductance, 575
Renal haemodynamic ascular endothelin-1, 13
Renal ischaemia, 233 Vascular injury, 133
Renal medulla, 14° ascular remodelling, 133
Renal nerves, 89 ascular resistance, 351, 575
Renal physiology, 169 asoconstriction, 201, 465
Renal sympathetic, 195 "ast dilation, 465, 481
Renin, 47, 95 ¥ asomotuon, 33
Reserpine, 287 ‘astus lateralis, 327
Respiration, 635, 667 Ventilation, 361
Respiratory rates, 473 Ventilation-perfusion ratio, 361
Resting muscle metabolism, 519 Ventricular myocyte, 393
RT-PCR, 301 Venules, 593
Ruminants, 337 Vessel culture, 113
Running, 675 VOomax,s 445
Volume-activated transport, 295
Salt (or Na’) reabsorption, 239
Salt intake, 225 Walking, 675
Serotonin, 421 Water permeability introduction, + 39
SHR, 219, 257, 421 Western analysis of NOS levels, 11 40)
Signal transduction, 33, 245 WKY, 257