National High Blood Pressure Education Program Working Group: 1995 Update of the working group reports on chronic renal failure and renovascular hypertensionArch Intern Med1996, 156:1938–1947. * This National Institutes of Health consensus panel (nephrologists) outline recommendations for the treatment of blood pressure, shown either to slow or to prevent renal disease progression.
2.
United States Renal Data System: II - Incidence and prevalence of ESRD. 1997 Annual Data ReportAm J Kidney Dis1997, 30 (suppl 1):S40–S53.
3.
SilvermanMBakrisGL: Treatment of renal failure and blood pressureCurr Opin Nephrol Hypertens1997, 6:237–242. * This paper reviews the risk factors for development of hypertension and treatment strategies considering the risk factor and renal disease.
4.
WinkleyMAKraemerHLinJJalulisDFortmannP: Sociodemographic influences on Hispanic-White differences in blood pressurePublic Health Rep1996, 111 (suppl 2):30–32.
5.
BakrisGMehlerPSchrierR: Hypertension and diabetes In Diseases of the Kidney.6th Edn. Edited by SchrierRWGottschalkCW.Boston: Little, Brown and Company; 1996, 1455–1464. ∗ Presents a review of the factors implicated in development of hypertension in diabetic patients and therapeutic considerations.
6.
BakrisGL: Pathogenesis of hypertension in diabeticsDiabetes Rev1995, 3:460–476. ∗ Presents an in-depth review of the etiologies in the pathogenesis of hypertension in diabetics including genetics, diet, ion channels, vasoactive substances and sympathetic activity.
7.
GuytonACColemanTGCowleyAWJrScheelKWManningRDJrNormanRAJr: Arterial pressure regulation: Overriding dominance of the kidneys in long-term regulation and in hypertensionAm J Med1972, 52:584–594.
8.
CowleyAWJrRomanRJ: The role of kidney in hypertensionJAMA1996, 275:1581–1589. ∗ This review article discusses the role of genetics, vasoactive substances and experimental animal models in the pathogenesis of hypertension due to altered kidney function.
9.
HallTEBrandsMWShekEW: Central role of the kidney and abnormal fluid volume control in hypertensionJ Hum Hypertens1996, 10:633–639. ∗ Reviews the studies that demonstrate a role of the kidneys in controlling the salt and volume in hypertensive patients.
10.
RettigRFolberthCStaussHKoppDWaldhessRUngerT: Role of the kidney in primary hypertension: A renal transplantation study in ratsAm J Physiol1990, 25:F606–F611.
11.
GuidiEMenghettiDMilaniSMontagninoGPalazziPBianchiG: Hypertension may be transplanted with the kidney in humans: A long term historical prospective follow-up of recipients grafted with kidneys coming from donors with or without hypertension in their familiesJ Am Soc Nephrol1996, 7:1131–1138. ∗ This paper found a higher incidence of hypertension requiring more medications when a donor kidney with a family history of hypertension was transplanted to a recipient with no history of hypertension suggesting kidney as the modulating factor for development of hypertension.
12.
CaulfieldMLavenderPFarrallMMunroePLawsonMTurnerP: Linkage of the angiotensinogen gene to essential hypertensionN Engl J Med1994, 330:1629–1633.
13.
CaulfieldMLavenderPNewell-PriceJKamdarSFarrallMClarkAJ: Angiotensinogen gene in human essential hypertensionHypertension1996, 28:1123–1125.
14.
HegeleRAHarrisSBHanleyAJGSunFConnellyPWZinmanB: Angiotensinogen gene variation associated with variation in blood pressure in aboriginal CanadiansHypertension1997, 29:1073–1077
15.
BloemLJForoudTMAmbrosiusWTHannaMPTewksburyDAPrattJH: Association of the angiotensinogen gene to serum angiotensinogen in blacks and whitesHypertension1997, 29:1078–1082.
16.
FornageMTurnerSTSingCFBoerwinkleE: Variation at the M235T focus of the angiotensinogen gene and essential hypertension: A population-based case-control study from Rochester, MinnesotaHum Genet1995, 96:295–300.
17.
MarreMBernadetPGalloisYSavagnerFGuyeneTTHallabM: Relationships between angiotensin I converting enzyme gene polymorphism, plasma levels and diabetic retinal and renal complicationsDiabetes1994, 43:384–388.
18.
MarreMJeunemaitreXGalloisYRodiceMChatellierGSertC: Contribution of genetic polymorphism in the renin-angiotensin system to the development of renal complications in insulin dependent diabetesJ Clin Invest1997, 99:1585–1595. * This paper found a relationship between IDDM associated nephropathy and ACE I/D and DD genotype. Angiotensinogen gene was not found to be an independent risk factor.
19.
RobertZAmandaSNaohaueIBrianM: Association analyses of SA gene variation in essential hypertensionAm J Hypertens1997, 10:235–242.
20.
NabikaT: Genetic analysis of responsible genes for essential hypertensionRinsho Byori1997, 45:107–111.
21.
WeinbergerM: Salt sensitivity of blood pressure in humansHypertension1996, 27:481–490.
22.
SvetkeyLPMcKeownSPWilsonAF: Heritability of salt sensitivity in Black AmericansHypertension1996, 28:854–858.
23.
SullivanJM: Salt sensitivity. Definition, conception, methodology and long term issuesHypertension1991, 17 (suppl 1):I-61-I-68.
24.
CampeseV: Salt sensitivity in hypertension, renal and cardiovascular implicationsHypertension1994, 23:2531–2550. * This paper presents an in-depth review regarding the role of salt sensitivity in the pathogenesis of hypertension and the different mechanisms involved.
25.
MidgleyJPMatthewAGGreenwoodCMTLoganAG: Effect of reduced dietary sodium on blood pressure. A meta-analysis of randomized controlled trialsJAMA1996, 275:1590–1597.
26.
TakeshiaVFreidaKKazuhikoISatokoNTakeshiaIGenejiroK: High sodium sensitivity implicates nocturnal hypertension in essential hypertensionHypertension1996, 28:139–142.
27.
TurnerSTSingCF: Erythrocyte sodium transport and the probability of having hypertensionJ Hypertens1996, 14:829–837.
28.
MaraFGraziaTSergioSMonicaFRossaraMPabloB: Renal Na-K ATPase in genetic hypertensionHypertension1996, 28:1018–1025.
29.
StecDEMattsonDIRomanRJ: Inhibition of renal outer medullary 20-HETE production produces hypertension in Lewis ratsHypertension1997, 29:315–319.
30.
ZouAPDrummondHARomanRJ: Role of 20-HETE in elevating loop chloride reabsorption in Dahl SS/Jr/ ratsHypertension1996, 27:631–635.
31.
FerriCPiccoliALaurentiOBelliniCDe ManiaGSantucciA: Atrial natriuretic factor in hypertensive and normotensive diabetic patientsDiabetes Care1994, 17:195–200.
32.
RibsteinJdu CailarGMimranA: Combined renal effects of overweight and hypertensionHypertension1995, 26:610–615.
33.
RobertGKazimerzRBRossDF: Human insulin-mediated enhancement of vascular β-adrenergic responsivenessHypertension1994, 23:551–555.
34.
SuzukiHIkenagaHHayashidaTOtsukaKKannoYOhnoY: Sodium balance and hypertension in obese and fatty ratsKidney Int1996, 49 (suppl 55):S150–S153.
35.
WeirMR: Insulin resistance and salt sensitivity. A renal hemodynamic abnormality?Am J Hypertens1996, 9:193S–199S. ∗ Insulin resistance can increase the sympathetic tone and has an antinatriuretic effect. This paper reviews the role of insulin resistance, hyperinsulinemia and its relation to salt sensitivity.
36.
BakrisGLBursztynMGavrasIBreshnanhanMGavrasH: Role of vasopressin in essential hypertension; racial differencesJ Hypertens1997, 15:545–550. ∗ This article demonstrates that high vasopressin and low renin levels are present in hypertensive African Americans compared to Caucasians. The data support the concept that vasopressin plays a major role in the pathogenesis of hypertension among African-Americans.
37.
BakrisGLKusmirekSLSmithACGavrasIGavrasH: Calcium antagonism abolishes the antipressor action of vasopressin (V1) receptor antagonismAm J Hypertens1997, (in press).
38.
de PaulaRBPlavnikFLRodriguesCIde A NevesFKohlmannOJrRibeiroAB: Contribution of vasopressin to orthostatic blood pressure maintenance in essential hypertensionAm J Hypertens1993, 6:794–798.
39.
BarriYMWingoCS: The effects of potassium depletion and supplementation on blood pressure: A clinical reviewAm J Med Sci1997, 314:37–40.
40.
SudhirKFormanAYiSSorofJSchmidlinOSebastianA: Reduced dietary potassium reversibly enhances vasopressor response to stress in African AmericansHypertension1997, 29:1083–1090. * This study found an increased vasopressor responsiveness in African Americans when potassium was decreased in diet and was attenuated with normalization of dietary potassium.
41.
ThroupCPerssonAEG: Macula densa derived nitric oxide in regulation of glomerular capillary pressureKidney Int1996, 49:430–436.
42.
WoltzMSchmettererLFerberWArtnerEMensikCEichlerHG: Effect of nitric oxide synthase inhibition on renal hemodynamics in humans: Reversal by L-arginineAm J Physiol1997, 272:F178–F182.
43.
PollockDMPolakowskiJSDivishBJOpgenoethTJ: Angiotensin blockade reverses hypertension during long term nitric oxide synthase inhibitionHypertension1993, 21:660–666.
44.
LaheraVNavarro-CidJCachofeiroVGraecia-EstanJRuilopeLM: Nitric oxide, the kidney and hypertensionAm J Hypertens1997, 10:129–140.
45.
OnoHOnoYFrohlichE: ACE inhibition prevents and reverses L-NAME exacerbated nephrosclerosis in spontaneously hypertensive ratsHypertension1996, 27:176–183.
46.
YamadaSSSassakiALFujiharaCKMalheirosDMDe NucciGZatzR: Effect of salt intake and inhibitor dose on arterial hypertension and renal injury induced by chronic nitric oxide blockadeHypertension1996, 27:1165–1172.
47.
WilcoxCSWelchWJ: TGF and nitric oxide: Effects of salt intake and salt sensitive hypertensionKidney Int1996, 49 (suppl 55):S9–S13.
48.
ThorupCPerssonAEG: Impaired effect of nitric oxide synthesis inhibition on tubuloglomerular feedback in hypertensive ratsAm J Physiol1996, 40:F246–F252.
49.
MatsuokaHNishidaHNomuraGVlietBNVToshimaH: Hypertension induced by nitric oxide synthesis inhibition is renal nerve dependentHypertension1994, 23:2:971–975.
50.
GriffinKAPickenMMBidaniAK: Deleterious effects of calcium channel blockade on pressure transmission and glomerular injury in rat remnant kidneyJ Clin Invest1995, 96:793–800. * This animal study provides a strong rationale for the relative lack of renal protection by dihydropyridine calcium channel blockers in spite of blood pressure reduction. Obliteration of autoregulation is strongly implicated.
51.
BidaniAKGriffinKAPlottWSchwartzMM: Renal ablation acutely transforms ‘benign’ hypertension to ‘malignant’ nephrosclerosis in hypertensive ratsHypertension1994, 24:309–316.
52.
SealyJEBlumenfeldJDBellGMPeckerMSSommersSCLaraghJH: On the renal basis for essential hypertension: Nephron heterogeneity with discordant renin secretion and sodium excretion causing a hypertensive vasoconstriction-volume relationshipJ Hypertens1988, 6:763–777. * This paper reviews the concept of a population of ischemic glomeruli, causing renin stimulation; among normal glomeruli and its role in the pathogenesis of hypertension.
53.
BakrisGLReRNBhandaruS: Endothelin modulates angiotensin II induced mitogenesis of human mesangial cellsAm J Physiol1993, 264:F937–F942. ∗ Mesangial cell proliferation and endothelin production was increased in the presence of angiotensin II. When they blocked the endothelin-1 by antibodies, the investigators were able to decrease the mesangial proliferation, thereby suggesting ET-1 as a mediator for the Ap II mitogenic effect.
54.
PhillipeWLuciaMJungNTheigP: Two kidney, one clip and one kidney, one clip hypertension in miceHypertension1997, 29:1025–1030
55.
BakrisGL: Microalbuminuria: Prognostic implicationsCurr Opin Nephrol Hypertens1996, 5:219–223. * This article reviews the pathophysiologic and epidemiologic aspects of microalbuminuria in the context of renal disease progression as well as of cardiovascular mortality.
56.
PontermoliRCheliVSofiaATirottaARaveraMNicolellaC: Prevalence of microalbuminuria and macroalbuminuria and their relationship with other cardiovascular risk factors in essential hypertensionNephrol Dial Transplant1995, 10 (suppl 6):6–9.
57.
BianchiSBigazziRBaldariGSgherriGCampeseVM: Diurnal variations of blood pressure and microalbuminuria in essential hypertensionAm J Hypertens1994, 7:23–29.
58.
CerasolaGCottoneGMuleGNardeEManganoMTRendaF: Relationship between microalbuminuria, blood pressure and cardiovascular changes in essential hypertensionContrib Nephrol1996, 119:130–134.
59.
PontermoliRCheliVTirottaARaveraMNicolellaCRuelloN: Microalbuminuria is associated with a worse cardiovascular risk profile and target organ damage in essential hypertensionContrib Nephrol1996, 119:115–120. ∗ Microalbuminuria was associated with higher diastolic and mean arterial pressure. Lower levels of HDL-cholesterol, HDL/LDL-Cholesterol ratio and higher prevalence of major ECG changes were also noted in this group; suggesting higher cardiovascular risk factors with microalbuminuria.
60.
de Mora MartinMAranda LaraPAranda LaraFJBarakatSZafra SanchezJRubio AlcaideA: Diastolic dysfunction, left ventricular hypertrophy, and microalbuminuria in mild to moderate essential arterial hypertensionRev Esp Cardiol1997, 50:233–238
61.
BakrisGLWeirMR: Salt intake and reductions in arterial pressure and proteinuria. Is there a direct link?Am J Hypertens1996, 9 (suppl):200S–206S. ∗ This paper reviews the effect of salt on glomerular hemodynamics and permeability as they affect proteinuria and the antiproteinuric effect of nondihydropyridine calcium channel blockers and ACEI.
62.
BakrisGLSmithA: Effects of sodium intake on albumin excretion in patients with diabetic nephropathy treated with long acting calcium antagonistsAnn Intern Med1996, 125:201–204. ∗ This paper highlights the fact that high sodium intake blunts the antiproteinuric effect of diltiazem even with blood pressure control. The dihydropyridine calcium-channel blocker nifedipine was shown to have no antiproteinuric effect regardless of blood pressure control or sodium intake.
63.
BigazziRBianchiSBaldariDSgherriGBaldariGCampeseV: Microalbuminuria in salt sensitive patients. A marker for renal and cardiovascular risk factorsHypertension1994, 23:195–199.
64.
VallonVKieschenmannDWeadLNLortieMJSateranoJBlantzRC: Effect of chronic salt loading on kidney function in early and established diabetes mellitus in ratsJ Lab Clin Med1997, 130:76–82.
65.
Joint National Committee on Prevention, Detection, Evaluation and Treatment of High Blood Pressure (JNC VI): Sixth Report. Arch Intern Med1997, in press. ∗ This report will set guidelines for hypertension management. It discusses the treatment strategies including combination of antihypertensives.
66.
KilaruPKBakrisGL: Calcium channel blockade and/or ACE inhibition for prevention of diabetic and hypertensive nephropathy In Combination Drug Therapy for Hypertension. Chapter 12. Edited by OpieLMesserliF.Philadelphia: Lippincott-Raven Publishers; 1997:123–137.
67.
BakrisGLSlataperRVicknairNSadlerR: ACEI mediated reductions in renal size and microalbuminuria in normotensive, diabetic subjectsJ Diabetes Complications1994, 8:2–6.
68.
BrownSAWaltonCLCrawfordPBakrisGL: Long term effects of antihypertensive regimens on renal hemodynamics and proteinuriaKidney Int1993, 43:1210–1218.
69.
CarminesPKNavarG: Disparate effects of Ca channel blockade on afferent and efferent arteriolar responses to ANG IIAm J Physiol1989, 256:F1015–1020.
70.
JyothirmayiGNReddiAS: Effect of diltiazem on glomerular heparan sulfate and albuminuria in diabetic ratsHypertension1993, 21:795–802.
71.
BakrisGLMangrumACopleyJBVicknairN: Calcium channel or β blockade on progression of diabetic renal disease in African AmericansHypertension1997, 29:745–750. ∗ A five year randomized study of NIDDM hypertensives treated with nondihydropyridine calcium-channel blockers verapamil or beta blocker atenolol. Verapamil slowed the progression of renal disease and had significant antiproteinuric effect compared to atenolol even with equal blood pressure control.
72.
GaberLWaltonCBrownSBakrisGL: Effects of different antihypertensive treatments or morphologic progression of diabetic nephropathy in uninephrectomized dogsKidney Int1994, 46:161–169. * Glomerular scarring and proteinuria was studied in diabetic dogs. The investigators found decreased glomerular scarring with ACEI and NDCCB.
73.
BakrisGL: Combination therapy for hypertension and renal disease in diabetics as compared to non-diabetics In The Kidney and Hypertension in Diabetes Mellitus. Chapter 55. Edited by MogensenCE.London: Kluwer Academic Publishers; 1996:561–568. ∗ Beneficial effects of combination of antihypertensive agents is discussed in the content of hemodynamic and non-hemodynamic effects of these agents for use in diabetics and non-diabetics.