Figure 1. |
Kidney Failure in the United States |
Figure 2. |
Conceptual Model for Stages in the Initiation and Progression of CKD |
Figure 3. |
Prevalence of High Blood Pressure by Level of GFR, Adjusted to Age 60 Years (NHANES III) |
Figure 4. |
CVD Mortality in Dialysis Patients (USRDS) Compared to the General Population (NCHS) |
Figure 5. |
Albuminuria as a Risk Factor for CVD |
Figure 6. |
Decreased GFR as a Risk Factor for CVD |
Figure 7. |
Risk Factors for Kidney Disease Progression Related to Hypertension |
Figure 8. |
Evolution of National Kidney Foundation Guidelines for Hypertension and Use of Antihypertensive Agents in CKD |
Figure 9. |
Algorithm for Evaluation and Management of Hypertension and Use of Antihypertensive Agents in CKD |
Figure 10. |
Kidney Failure in the United States |
Figure 11. |
Conceptual Model for Stages in the Initiation and Progression of CKD, and Therapeutic Interventions |
Figure 12. |
Relationship of Stage and Type of Kidney Disease to Prognosis in CKD |
Figure 13. |
Relationship of Stage of Kidney Disease and Level of Albuminuria to Prognosis in CKD |
Figure 14. |
Prevalence of High Blood Pressure by Level of GFR, Adjusted to Age 60 Years |
Figure 15. |
Prevalence of Elevated Serum Creatinine by JNC 6 Blood Pressure Category and Self-Reported Treatment With Antihypertensive Medications in NHANES III |
Figure 16. |
Estimated Number of Individuals With Elevated Serum Creatinine by JNC 6 Blood Pressure Category and Self-Reported Treatment With Antihypertensive Medications (NHANES III) |
Figure 17. |
Conceptual Model for Stages in the Initiation and Progression of CVD, and Therapeutic Interventions in the General Population |
Figure 18. |
CVD Mortality in Dialysis Patients (USRDS) Compared to the General Population (NCHS) |
Figure 19. |
CVD Mortality in Kidney Transplant Recipients (USRDS) Compared to the General Population (NCHS) |
Figure 20. |
Albuminuria as a Risk Factor for CVD in Individuals Without Diabetes |
Figure 21. |
Decreased GFR as a Risk Factor for CVD |
Figure 22. |
Kidney Function Decline in CKD |
Figure 23. |
GFR Slopes in the Modification of Diet in Renal Disease Study |
Figure 24. |
Risk Factors for Kidney Disease Progression Related to Hypertension |
Figure 25. |
Effect of Antihypertensive Drugs on Systemic and Glomerular Pressure |
Figure 26. |
Mechanisms of Antihypertensive Agents to Slow Progression of CKD |
Figure 27. |
Schematic Diagram of Population With CKD and CVD |
Figure 28. |
General Approach to Hypertension and Use of Antihypertensive Agents in CKD |
Figure 29. |
Age-Associated Decline in Estimated GFR in NHANES III |
Figure 30. |
Evaluation for Proteinuria |
Figure 31. |
Evaluation of Patients With CKD for Treatment of Hypertension and Use of Antihypertensive Agents |
Figure 32. |
Use of the Score to Estimate the Probability of RAD |
Figure 33. |
Mean Change in SBP From Baseline in Hypertensive Participants of the DASH Study During 8 Weeks of Intervention by Diet AssignmentsDASH or Control Diets |
Figure 34. |
Hypertension and Antihypertensive Agents in CKD |
Figure 35. |
Antihypertensive and Lipid Lowering Treatment to Prevent Heart Attack Trial (ALLHAT) |
Figure 36. |
Antihypertensive and Lipid Lowering Treatment to Prevent Heart Attack Trial (ALLHAT) |
Figure 37. |
Collaborative Study Group (CSG) Captopril Trial |
Figure 38. |
Irbesartan Diabetic Nephropathy Trial (IDNT) |
Figure 39. |
Reduction of Endpoints in NIDDM With the Angiotensin II Antagonist Losartan (RENAAL) |
Figure 40. |
Meta-Analysis of Studies of Diabetic and Nondiabetic Kidney Disease |
Figure 41. |
Meta-Analysis of Studies of Diabetic and Nondiabetic Kidney Disease |
Figure 42. |
Blood Pressure Level and Rate of GFR Decline in Controlled Trials of Diabetic Kidney Disease |
Figure 43. |
Hypertension and Antihypertensive Agents in Diabetic Kidney Disease |
Figure 44. |
ACE Inhibition in Progressive Renal Disease (AIPRD) Study Group Pooled Analysis |
Figure 45. |
ACE Inhibition in Progressive Renal Disease (AIPRD) Study Group Pooled Analysis |
Figure 46. |
African-American Study of Kidney Disease and Hypertension (AASK) |
Figure 47. |
Modification of Diet in Renal Disease (MDRD) Study |
Figure 48. |
Modification of Diet in Renal Disease (MDRD) Study |
Figure 49. |
African-American Study of Kidney Disease and Hypertension (AASK) |
Figure 50. |
ACE Inhibition and Progressive Renal Disease (AIPRD) Study Group Pooled Analysis |
Figure 51. |
Hypertension and Antihypertensive Agents in Nondiabetic Kidney Disease |
Figure 52. |
Relationship between SBP and Graft Survival |
Figure 53. |
Hypertension and Antihypertensive Agents in Kidney Transplant Recipients |
Figure 54. |
Physiology of the Renin-Angiotensin System and Sites of Action of ACE Inhibitors and Angiotensin-Receptor Blockers |
Figure 55. |
Physiology of Side-Effects of ACE Inhibitors |
Figure 56. |
Determinants of Diuretic Loop Response |
Figure 57. |
Rationale for Combination of ARBs or ACE Inhibitors With Diuretics |
Figure 58. |
Blood Pressure Cuff Dimensions |
Figure 59. |
Determination of Proper Cuff Size, Step 1 |
Figure 60. |
Determination of Proper Cuff Size, Step 2 |
Figure 61. |
Blood Pressure Measurement |
Figure 62. |
The Evolution of National Kidney Foundation Guidelines on Hypertension and Antihypertensive Agents in CKD |
Figure 63. |
Comparison of the Diagnosis of Hypertension Using Casual Blood Pressure and Ambulatory Blood Pressure Monitoring |
Figure 64. |
Standardized Common Patterns of ABPM |
Figure 65. |
Blunting of the Diurnal Blood Pressure Rhythm of Predialysis Patients Is More Severe at Lower GFR (Higher Serum Creatinine Concentration) |
Figure 66. |
Kaplan-Meier Curves Showing the Probability of Developing CKD (Microalbuminuria) According to the Pattern of Daytime and Nighttime Systolic Pressure in Diabetics |
Figure 67. |
Survival Curves of Diabetic Subjects With Normal and Reversed Circadian Blood Pressure Rhythms |
Figure 68. |
Relationship Between End-Systolic Left Ventricular Diameter and Percent Fall in Blood Pressure (Sleep to Awake) in Hemodialysis Patients and Kidney Transplant Recipients |
Figure 69. |
Night to Day Blood Pressure Ratio and 24-Hour SBP at Entry as Predictors of the 2-Year Incidence of Cardiovascular End-Points in 393 Patients Randomized to the Placebo Group of the Systolic Hypertension in Europe Trial |
Figure 70. |
Diurnal Blood Pressure Rhythm in Diabetic Kidney Disease |
Figure 71. |
Correlation of Creatinine Values in Patients 6 Months After Kidney Transplantation With 24-Hour SBP and DBP |
Figure 72. |
Rates of Major Cardiovascular Events |
Figure 73. |
Comparison of Cuff Blood Pressure, 24-Hour ABPM, and Night-Time ABP in the HOPE Study and a HOPE Substudy |