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Dr. Bhatt’s Approch To Preventing CKD And Stopping Dialysis

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  • Dr. Bhatt’s Approch To Preventing CKD And Stopping Dialysis

Introduction

  • Dr. Anil Prasad Bhatt is a renowned expert in managing kidney diseases, with a special focus on diabetic patients.
  • His approach to preventing chronic kidney disease (CKD) and delaying or stopping dialysis emphasizes:
    • Early intervention.
    • Personalized care.
    • A combination of medical, lifestyle, and innovative strategies.
  • This article explores his unique treatment strategies, grounded in his expertise and nephrology principles.

Preventing CKD in Diabetic Patients

Overview of Diabetic Kidney Disease (DKD)

  • DKD is a progressive condition caused by hyperglycemia-induced damage to kidney glomeruli.
  • Leads to proteinuria, declining glomerular filtration rate (eGFR), and potential kidney failure if unchecked.

Dr. Bhatt’s Preventive Strategies

  • Rooted in early interception with a tailored, evidence-based approach.
  • Integrates cutting-edge therapies, rigorous monitoring, and patient empowerment.

Advanced Glycemic Management

  • Precision Targets:
    • Customizes HbA1c goals (e.g., 6.5–7.5%) based on age, comorbidities, and hypoglycemia risk.
    • Aims for 6.5% in younger patients to minimize glomerular hyperfiltration.
    • Targets 7–8% in older patients with cardiovascular issues to avoid hypoglycemic stress.
  • Technology Integration:
    • Recommends continuous glucose monitoring (CGM) systems for real-time data.
    • Helps avoid glucose spikes that damage kidney vasculature, especially in type 2 diabetes.
  • Insulin Sensitizers and Kidney Protection:
    • Uses metformin (where eGFR permits) and insulin sensitizers like Lipaglyn (Saroglitazar) and IMEG-CKD (Imeglyn Hydrochloride).
    • Lipaglyn, a dual PPAR α/γ agonist, reduces triglycerides, improves insulin sensitivity, and lowers blood glucose in diabetic dyslipidemia.
    • IMEG-CKD enhances insulin secretion and sensitivity, reducing peripheral insulin resistance in type 2 diabetes.
    • Incorporates SGLT2 inhibitors like Forxiga early to reduce glucose reabsorption, lower intraglomerular pressure, and decrease albuminuria by 30–40% (EMPA-REG OUTCOME trial).

Aggressive Blood Pressure and Proteinuria Control

  • RAS Inhibition as Cornerstone:
    • Employs ACE inhibitors or ARBs (e.g., Covance or losartan) to target hypertension and intrarenal hemodynamics.
    • Reduces efferent arteriolar resistance and glomerular pressure.
    • Titrates doses to achieve 30–50% proteinuria reduction while monitoring hyperkalemia and eGFR.
  • Dual Blockade Consideration:
    • Explores dual RAS blockade (ACEi + ARB) or combines with mineralocorticoid receptor antagonists (e.g., Kerendia, shown in FIDELIO-DKD to slow CKD progression).
    • Highly individualized, balancing benefits against hyperkalemia risks.
  • Blood Pressure Nuance:
    • Targets <130/80 mmHg, or <125/75 mmHg in heavy proteinuria cases (KDIGO guidelines).
    • Monitors to avoid hypotension, especially in elderly patients with autonomic neuropathy.

Emerging Pharmacotherapies

  • SGLT2 Inhibitors:
    • Drugs like canagliflozin and Forxiga reduce CKD progression by 30–40% (CREDENCE trial).
    • Decrease glomerular hyperfiltration, improve fibrosis, and enhance renal oxygenation.
    • Initiated early in stages 1–3 CKD, even in non-diabetics with proteinuria.
  • GLP-1 Receptor Agonists:
    • Agents like Rybelsus or dulaglutide offer cardiovascular and potential kidney benefits.
    • Reduce inflammation and oxidative stress; evolving data (e.g., FLOW trial for Rybelsus).
    • Used in obese diabetic patients to address multiple risk factors.
  • Kerendia:
    • Targets aldosterone-driven fibrosis, a late-stage DKD feature.
    • Used in persistent albuminuria cases despite RAS blockade, slowing eGFR decline by 15–20%.

Microalbuminuria Screening and Early Intervention

  • Screening Protocol:
    • Annual or biannual screening for microalbuminuria (>30 mg/g) in all diabetic patients.
    • Starts at diagnosis for type 2 diabetes or 5 years post-diagnosis for type 1.
  • Intervention Approach:
    • Uses spot urine samples, with 24-hour collections for confirmation.
    • Intensifies RAS blockade, glycemic control, and lipid management if detected.

Lipid Management

  • Strategy:
    • Utilizes Atorvastatin (10–20 mg) and Ezetimibe for lipid control.
    • Atorvastatin reduces LDL cholesterol and cardiovascular risk, with doses tailored to patient risk profiles.
    • Ezetimibe, added to statins, further lowers LDL-C and reduces atherosclerotic cardiovascular disease (ASCVD) events, especially in high-risk patients.
  • Rationale:
  • Targets LDL <70 mg/dL to mitigate cardiovascular events, a leading cause of death in DKD.

Lifestyle Optimization

  • Dietary Specificity:
  • Limits sodium (<2 g/day), refined sugars, and saturated fats.
  • Maintains 0.8–1.0 g/kg/day protein in early DKD to avoid sarcopenia.
  • Exercise Regimens:
    • Encourages 150 minutes/week of moderate aerobic activity (e.g., brisk walking) plus resistance training.
    • Tailors plans for frail patients to avoid overexertion.
  • Smoking and Alcohol:
    • Provides cessation support (smoking doubles DKD risk).
  • Limits alcohol to <14 units 30 ml each /week to prevent dehydration

Community Outreach and Screening

  • Health Camps:
    • Conducted in Uttar Pradesh and Uttarakhand for high-risk diabetic populations.
    • Offers free eGFR tests, urine albumin checks, and education.
  • Training Impact:
    • Trains local healthcare workers to recognize DKD signs.
    • Amplifies impact in resource-limited settings with scarce dialysis access.

Role of Keto Analogue Supplements in CKD

  • Application:
    • Incorporated in advanced CKD (stages 2–5) to reduce protein catabolism and uremic toxins.
    • Provides essential amino acids with minimal nitrogen waste.
  • Dosage and Monitoring:
    • Tailored at 0.1 g/kg/day based on residual renal function and nutritional status.
    • Monitors metabolic balance to preserve kidney function and delay dialysis.

Role of Pre-Probiotics in CKD

  • Mechanism:
    • Improves gut microbiota health via the gut-kidney axis.
    • Reduces uremic toxins (e.g., indoxyl sulfate) from dysbiotic gut flora.
  • Implementation:
    • Recommends strains like Lactobacillus and Bifidobacterium with prebiotic fibers.
    • Adjusts based on patient tolerance and lab markers to slow progression.

His Advocacy for Plant-Origin Proteins over Animal-Origin Proteins

  • Preference:
    • Promotes plant-origin proteins (e.g., lentils, chickpeas) over animal-origin proteins (e.g., meat, dairy).
    • Lowers phosphorus and acid load, reducing kidney stress.
  • Benefits:
    • Offers cardiovascular advantages and ensures adequate intake (0.6–0.8 g/kg/day in late CKD).
    • Collaborates with dietitians to avoid nutritional compromise.

Delaying Dialysis

Strategies for Preserving Residual Kidney Function (RKF)

  • Focuses on meticulous medical management, complication prevention, and patient engagement.
  • Targets CKD stages 3–5 (eGFR

Pharmacologic Optimization

  • SGLT2 Inhibitors in Advanced CKD:
    • Continues low-dose SGLT2 inhibitors in stages 3b–4 (eGFR 15–45).
    • DAPA-CKD trial shows a 29% reduction in ESRD risk.
  • RAS Blockade Continuation:
  • Maintains ACEi/ARBs unless eGFR <15 or hyperkalemia is unmanageable.
  • Diuretic Strategies:
    • Titrates loop diuretics (e.g., furosemide) for fluid overload.
    • Adds thiazides likeNatrilix Sr in resistant edema to preserve urine output.

Metabolic and Electrolyte Control

  • Acidosis Management:
    • Uses oral sodium bicarbonate like Sodafix EC (500–1000 mg BID) to maintain bicarbonate at 22–26 mmol/L.
  • Hyperkalemia Prevention:
    • Monitors potassium with dietary restrictions and binders (e.g.,K-Bind).
  • Phosphorus and PTH:
    • Employs phosphate binders (e.g., Sevaneir) and calcitriollike Iwitrolanalogs early.

Dietary Fine-Tuning

  • Protein Adjustment:
    • Reduces to 0.6–0.8 g/kg/day in stages 4–5, using high-biological-value sources.
  • Fluid and Sodium Control:
    • Restricts fluid (1–1.5 L/day) and sodium (1.5–2 g/day) based on urine output.

Complication Management

  • Anemia Correction:
    • Targets hemoglobin 10–11 g/dL with erythropoiesis-stimulating agents (e.g., darbepoetin).
  • Infections:
    • Treats recurrent UTIs promptly with culture-guided antibiotics.
  • Cardiovascular Vigilance:
    • Intensifies heart failure management with beta-blockers and monitors ischemic events.

Dialysis Modality Planning

  • Proactive Preparation:
    • Plans fistula creation in stage 4 and educates on home hemodialysis or peritoneal dialysis.
  • Timing Decision:
    • Assesses symptoms (e.g., uremia) in stage 5 rather than eGFR alone.

Psychological and Social Support

  • Counseling:
    • Addresses anxiety and ensures regimen adherence with empathetic support.
  • Resource Access:
    • Involves social workers to tackle financial and access barriers in India.

Stopping Dialysis

Challenges and Opportunities

  • Exceptionally challenging due to negligible RKF (eGFR <5–10 mL/min/1.73 m²).
  • Dr. Bhatt’s expertise in transplantation, AKI recovery, and optimization creates rare opportunities.

Residual Kidney Function Preservation

  • Gentle Dialysis Prescriptions:
    • Uses incremental dialysis (1–2 sessions/week) or peritoneal dialysis.
    • Monitors RKF via 24-hour urine collections.
  • Nephrotoxin Avoidance:
    • Avoids NSAIDs and contrast dyes to support minor RKF recovery.

Acute Kidney Injury Recovery

  • Reversible Causes:
    • Identifies AKI triggers (e.g., dehydration, sepsis) via 500+ kidney biopsies.
    • Resolves obstructions or treats glomerulonephritis with immunosuppressants.
  • Monitoring:
    • Uses serial eGFR, urine output, and biomarkers (e.g., NGAL, KIM-1) for withdrawal trials.

Kidney Transplantation

  • Pre-Emptive and High-Risk Transplants:
    • Experience of 1,000+ transplants, including ABO-incompatible cases.
    • Prioritizes living donors for 85–90% 5-year graft survival.
  • Desensitization Protocols:
    • Uses plasmapheresis, IVIG, rituximab, and Daratumumab.
  • Post-Transplant Care:
    • Optimizes immunosuppression (e.g., tacrolimus) and monitors for rejection.

Trial of Dialysis Cessation

  • Criteria:
    • Attempts cessation if urine output >1 L/day and eGFR improves to 10–15 mL/min/1.73 m².
  • Management:
    • Conducts weekly labs (creatinine, urea, electrolytes).
    • Uses diuretics and binders with patient education.
  • Feasibility:
  • High-risk, viable in <5% of cases per nephrology literature.
    • Regenerative and Experimental Therapies
  • Stem Cell Therapies:
    • Refers patients to trials (e.g., mesenchymal stem cells) for CKD repair.
  • Bioartificial Kidneys:
    • Engages with innovations like the Kidney Project.

Holistic Recovery Support

  • Stability Measures:
    • Integrates physiotherapy, nutritional support, and psychological care.
  • Comorbidity Management:
    • Aggressively treats diabetes and hypertension post-dialysis.

Unique Aspects and Innovations

  • Transplant Expertise: Proficient in complex cases (1,000+ transplants).
  • Biopsy-Driven Precision: 500+ biopsies for targeted therapies.
  • Rural Outreach: Health camps detect DKD early in underserved areas.
  • Patient Rapport: Simplifies concepts (e.g., eGFR) to boost compliance.
  • Research Integration: 12+ international publications adopt therapies like Kerendia and SGLT2 inhibitors early.

Challenges and Limitations

Preventing CKD

  • Late presentation limits preventive impact despite camps.
  • High costs of SGLT2 inhibitors and Kerendia restrict access.
  • Compliance issues due to low health literacy or depression.

Delaying Dialysis

  • Limited leeway in stage 5 CKD due to uremic symptoms.
  • Comorbidities (e.g., heart failure) accelerate progression.
  • Resource constraints may force early initiation.

Stopping Dialysis

  • Rare cessation outside transplantation due to CKD irreversibility.
  • Transplantation risks (10–15% rejection) and resource-intensive trials.

Scientific and Clinical Context

  • DKD Pathophysiology: Hyperglycemia causes glomerular damage and fibrosis.
  • SGLT2 Impact: 30–40% ESRD risk reduction (DAPA-CKD, CREDENCE).
  • Transplant Outcomes: 90–95% 1-year graft survival in India.
  • RKF Importance: 20–30% mortality reduction (NECOSAD).

Conclusion

  • Dr. Anil Prasad Bhatt’s strategies for CKD prevention in diabetics rely on early detection, aggressive risk control, and therapies like Lipaglyn, IMEG-CKD, SGLT2 inhibitors, and Kerendia.
  • Lipid management with Atorvastatin (10–20 mg) and Ezetimibe reduces cardiovascular risk.
  • Delaying dialysis involves preserving RKF with medical and lifestyle management.
  • Stopping dialysis is achieved mainly through transplantation, with rare successes in AKI recovery.
  • His holistic approach sets a high standard, offering hope despite patient and systemic challenges.

#keywords: Chronic Kidney Disease, CKD Prevention, Diabetic Kidney Disease, Dialysis Management, Dr. Anil Prasad Bhatt, Kidney Transplantation, SGLT2 Inhibitors, Kerendia, Microalbuminuria Screening, Residual Kidney Function, AKI Recovery, Nephrology, Lifestyle Optimization, Community Health, Cardiovascular Risk, Keto Analogue Supplements, Pre-Probiotics, Plant-Origin Proteins, Lipaglyn, IMEG-CKD, Atorvastatin, Ezetimibe

 

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