Skip to main content
M
Doctor-Reviewed Content Verified Hospital Data Updated Medical Information Patient-First Guidance Not for Emergencies — Call 911

Kidney Transplant — Cost, Top Hospitals & Success Rates | MyMedicPlus

Updated: 2026-06-26
Ad — after-intro

Quick Facts

Procedure
Heterotopic kidney placement in iliac fossa
Anaesthesia
General anaesthesia, 3-4 hours
Hospital Stay
5-7 days post-operatively
1- Year Graft Survival
Greater than 95% (living donor) / Greater than 92% (deceased donor)
Living Donor Graft Survival
15-20 years median vs 10-15 years (deceased donor)
Pre-emptive Advantage
25% better outcomes when transplanted before starting dialysis
Average Wait Time ( U S A)
3-5 years (varies by blood group and region)
Reviewed By
MyMedicPlus Medical Review Board

What Is a Kidney Transplant?

A kidney transplant is the surgical placement of a healthy donor kidney into a person whose own kidneys have failed — a condition known as end-stage kidney disease (ESKD) or end-stage renal disease (ESRD). The transplanted kidney takes over the function of filtering waste products, balancing electrolytes, and regulating blood pressure, freeing the recipient from dependence on dialysis.

Kidney transplantation is the treatment of choice for most patients with ESKD. Compared with continued dialysis, a successful transplant extends life expectancy by 10-15 years on average, dramatically improves quality of life, and is more cost-effective beyond 2-3 years post-transplant. Approximately 100,000 kidney transplants are performed globally each year, with the USA (25,000+), China, Brazil, India, Germany, and France among the highest-volume countries.

The donated kidney is placed heterotopically — in the right or left iliac fossa of the lower abdomen — rather than in the kidney's normal retroperitoneal position. The donor renal artery is anastomosed to the recipient's external or internal iliac artery; the donor renal vein to the external iliac vein; and the donor ureter is implanted into the bladder (ureteroneocystostomy), typically over a ureteric stent that is removed 4-6 weeks later. The native kidneys are left in situ unless they are causing symptoms (recurrent infections, uncontrolled hypertension, polycystic kidneys causing mass effect).

The transplanted kidney often begins producing urine on the operating table. 'Immediate graft function' occurs in 70-80% of living-donor transplants. In deceased-donor transplants, delayed graft function (requiring temporary dialysis) occurs in 20-30% due to the inevitable ischaemia-reperfusion injury from donor brain death and cold storage.

This guide addresses the complete patient journey — from initial assessment and placement on the transplant waiting list, through surgery and discharge, to the first year of recovery and lifelong immunosuppression.

Conditions Leading to Kidney Transplant

Kidney transplantation is indicated for end-stage kidney disease (ESKD), defined as an eGFR below 15 mL/min/1.73m2 with symptoms of uraemia, or eGFR below 10 mL/min/1.73m2 regardless of symptoms. The leading causes of ESKD requiring transplant evaluation include:

Diabetic Nephropathy: Accounts for 30-40% of ESKD in Western countries. Diabetic nephropathy progresses through microalbuminuria to macroproteinuria and progressive GFR decline over 10-20 years. Post-transplant hyperglycaemia is common due to calcineurin inhibitor and steroid effects; type 1 diabetics may be considered for simultaneous pancreas-kidney (SPK) transplant, which restores insulin independence and significantly improves long-term graft outcomes compared to kidney-alone transplant in well-selected patients.

Hypertensive Nephrosclerosis: The second most common cause globally, responsible for approximately 25% of ESKD. Sustained uncontrolled hypertension causes progressive nephron loss through afferent arteriolar narrowing and glomerulosclerosis.

Glomerulonephritis: IgA nephropathy (the world's most common primary GN), FSGS, membranous nephropathy, and lupus nephritis collectively account for 15-20% of ESKD. Recurrence risk in the graft varies: IgA nephropathy (50%+ at 10 years, rarely causes graft loss), FSGS (20-30% in first graft, 80%+ in subsequent), membranous nephropathy (variable, often responsive to rituximab).

Polycystic Kidney Disease (ADPKD): ADPKD is the most common hereditary cause of ESKD, responsible for 5-10% of cases. Outcomes post-transplant are generally excellent. Tolvaptan (vasopressin V2 receptor antagonist) can slow cyst growth but does not prevent eventual ESKD.

Congenital and Paediatric Causes: Congenital anomalies of the kidney and urinary tract (CAKUT), Alport syndrome, nephronophthisis, and haemolytic uraemic syndrome (HUS) are common ESKD causes in children and young adults.

Rapidly Progressive Glomerulonephritis and Vasculitis: ANCA-associated vasculitis (GPA, MPA) and anti-GBM disease can cause acute ESKD requiring urgent transplant evaluation once remission is achieved — typically after 6-12 months of disease quiescence.

Eligibility and the Transplant Listing Process

Access to kidney transplantation is governed by allocation systems that balance medical urgency, waiting time, immunological compatibility, and geographic equity. Understanding the listing process is essential for patients and families navigating the pathway to transplant.

Basic Eligibility Criteria: Candidates must have ESKD (or imminent ESKD with eGFR approaching 15 mL/min/1.73m2 — permitting pre-emptive listing) and be well enough to survive major surgery and lifelong immunosuppression. Active malignancy (with exceptions for non-melanoma skin cancer and some solid tumours in remission beyond 2 years), uncontrolled systemic infection, severe irreversible cardiac disease, and significant non-compliance with medical treatment are common contraindications. There is no absolute upper age limit; 'biological age' assessed through frailty scores and comorbidity indices guides eligibility decisions in the elderly.

Allocation Systems: In the USA, kidney allocation is managed by the Organ Procurement and Transplantation Network (OPTN) operated by UNOS (United Network for Organ Sharing). The 2014 Kidney Allocation System (KAS) uses a composite score balancing waiting time, HLA matching, eGFR at listing, CPRA (calculated panel reactive antibody), and geographic distance. Blood group O recipients historically face the longest wait times (3-7 years in many regions) due to the preponderance of O-group donors being cross-compatible with all blood groups. Blood group A and B recipients may wait 2-4 years. AB recipients have the shortest wait as they can accept any blood group donor kidney.

In Europe, Eurotransplant covers 8 member countries and allocates kidneys through a points-based system that heavily weights HLA matching (especially 000 mismatch 'fully matched' kidneys) and waiting time. The UK Transplant Registry (NHS Blood and Transplant) operates the UK national sharing scheme with specific provisions for highly sensitised (cPRA 85%+) patients.

Pre-Emptive Transplant: Transplantation before starting dialysis — when eGFR is 10-15 mL/min/1.73m2 — is associated with 25% better graft survival and 16% lower recipient mortality compared to transplantation after dialysis initiation. Pre-emptive transplants are only feasible with living donors or in patients who receive a deceased-donor offer while approaching ESKD. Early referral to transplant centres (at CKD Stage 4, eGFR 15-30) is critical to enable pre-emptive listing.

Living Donor Transplant: Living donation — from a biologically related or emotionally related (spouse, friend) donor — offers major advantages and bypasses the deceased-donor waiting list entirely. Living donors undergo independent medical and psychological evaluation by a team with no involvement in the recipient's care. Directed living donation is the most common type; non-directed (altruistic) donors can enter paired exchange programmes to match with compatible recipients across donor-recipient pairs.

Donor Sources and Surgical Approaches

The choice of donor source is the single most important determinant of transplant outcomes. Living-donor kidneys consistently outperform deceased-donor kidneys across all metrics.

Living Donor Transplant: Living-donor kidney transplants have median graft survival of 15-20 years versus 10-15 years for deceased-donor kidneys. The advantage stems from: (1) scheduled surgery with no cold ischaemia — the kidney is transplanted immediately after retrieval; (2) healthy, fully evaluated donors without the haemodynamic instability of brain death; and (3) predictable timing allowing optimal recipient preparation. Laparoscopic (hand-assisted or robot-assisted) donor nephrectomy is now standard, with shorter donor recovery (2-3 weeks return to work) and equivalent donor outcomes to open surgery.

Deceased Donor Transplant — Brain Death (DBD): Donation after brain death (DBD), also called 'heart-beating' donation, provides kidneys with reliable function. Kidneys are retrieved after the donor is confirmed brain dead while ventilated, preserving organ perfusion until retrieval. Cold ischaemia time (from donor clamping to reperfusion in the recipient) should ideally be under 18 hours; beyond 24 hours, DGF risk rises substantially. Machine perfusion (hypothermic or normothermic) increasingly replaces static cold storage for marginal DBD kidneys, reducing DGF rates by 20-30%.

Deceased Donor Transplant — Circulatory Death (DCD): Donation after circulatory death (DCD) kidneys — retrieved after withdrawal of life-sustaining treatment — expand the donor pool but carry higher DGF and primary non-function rates due to warm ischaemia during the dying process. Normothermic regional perfusion (NRP) — temporarily restoring circulation via ECMO before retrieval — is now used in many programmes to recondition DCD kidneys and assess viability before procurement. DCD kidneys on normothermic machine perfusion have outcomes approaching DBD in recent studies.

Extended Criteria Donors (ECD): ECD kidneys — from donors over 60, or 50-59 with two of: hypertension, serum creatinine over 1.5 mg/dL, or stroke as cause of death — have higher primary non-function risk but provide meaningful benefit for older recipients with long wait times. Dual kidney transplant (both kidneys from a marginal donor) is used to maximise nephron mass.

ABO-Incompatible Transplant: ABO-incompatible (ABOi) living-donor transplant — previously contraindicated — is now performed at specialist centres using pre-transplant desensitisation (rituximab, IVIG, and plasma exchange). ABOi transplant outcomes at 5 years approach ABO-compatible results in experienced programmes, making it a valid option where no ABO-compatible living donor is available.

Kidney Paired Exchange (KPE): Where a willing living donor is incompatible with their intended recipient, KPE programmes match incompatible donor-recipient pairs with other pairs to enable a chain of compatible transplants. Sophisticated algorithms optimise chains of 2-30+ donors; the UK Living Kidney Sharing Scheme runs quarterly matching runs.

Benefits of Kidney Transplant

Kidney transplantation offers benefits that extend far beyond renal replacement — transforming prognosis, quality of life, and economic burden for recipients and health systems alike.

Survival Advantage: The most compelling evidence for transplantation comes from a landmark NEJM study (Wolfe et al., 1999) demonstrating a 68% reduction in the risk of death in transplant recipients versus patients remaining on the waiting list on dialysis, across all age groups and diagnoses. This survival advantage persists and is particularly pronounced in younger recipients, diabetics, and those with cardiovascular disease. A 40-year-old with ESKD who receives a living-donor transplant can expect 20+ additional life-years compared to 10-12 years on dialysis.

Pre-Emptive Transplant — The Gold Standard: Avoiding dialysis entirely before transplant is associated with 25% longer graft survival compared to post-dialysis transplant. This is attributed to the preservation of residual renal function during the pre-dialysis period, avoidance of dialysis-related cardiovascular stress, and improved nutritional status at the time of transplant. Every month spent on dialysis before transplant is associated with approximately 0.5% reduction in long-term graft survival.

Quality of Life: Freedom from the 12-16 hours per week of in-centre haemodialysis, or from the constraints of peritoneal dialysis exchanges, fundamentally changes daily life. The majority of recipients report dramatically improved energy levels, appetite, and sleep quality within weeks of transplant. Sexual function improves; fertility can return in women of childbearing age. Return-to-work rates of 40-60% within 12 months are consistently reported. Recipients can travel internationally, eat a broader diet, and maintain social activities that dialysis makes difficult.

Cardiovascular Risk Reduction: ESKD carries extreme cardiovascular risk — cardiac mortality accounts for 50% of deaths in dialysis patients. Successful transplantation reduces left ventricular hypertrophy (which regresses within 12-18 months), lowers inflammatory markers (CRP, IL-6), normalises anaemia, and substantially reduces cardiovascular event rates. The absolute cardiovascular risk reduction from transplantation is greater than from any cardiac medication.

Paediatric-Specific Benefits: For children, transplant enables normal growth (restored by improved nutrition and, if steroid minimisation is achieved, growth hormone axis recovery), normal school attendance, and developmental milestones that dialysis makes virtually impossible. Paediatric recipients receive priority in most allocation systems, reflecting these developmental imperatives.

Risks and Complications

Kidney transplantation carries surgical risks and long-term complications related to immunosuppression. Informed recipients who understand these risks engage more effectively in their own monitoring and care.

Surgical Complications: Vascular complications (renal artery or vein thrombosis) occur in 1-3% of transplants and are surgical emergencies requiring immediate return to theatre; graft loss results in the majority of cases. Urine leak from the ureteric anastomosis occurs in 1-3% and is managed by ureteric stenting or surgical repair. Lymphocoele (lymph fluid collection in the pelvis) develops in 5-15% and is drained percutaneously or laparoscopically when symptomatic. Wound infection and haematoma are general surgical risks.

Acute Rejection: Despite modern immunosuppression, acute rejection episodes occur in 10-15% of recipients in the first year. T-cell mediated rejection (TCMR) typically presents with rising creatinine and reduced urine output; biopsy confirms the Banff grade. Most episodes respond to high-dose IV methylprednisolone. Antibody-mediated rejection (AMR), driven by donor-specific antibodies, is more challenging to treat and has worse long-term implications for graft survival.

Immunosuppression Side Effects: Lifelong immunosuppression carries a portfolio of adverse effects. Tacrolimus causes nephrotoxicity (contributing to chronic allograft injury), tremor, hypertension, and new-onset diabetes after transplant (NODAT) in 15-25% of recipients. Mycophenolate causes GI upset and bone marrow suppression. Prednisolone causes weight gain, osteoporosis, cataracts, skin fragility, and adrenal suppression. All agents increase susceptibility to infections and malignancy.

Infection: The highest infection risk is in the first 6 months, when immunosuppression is most intense. CMV, PCP, and BK polyomavirus are the key opportunistic threats. Prophylaxis protocols (valganciclovir, trimethoprim-sulfamethoxazole) significantly reduce but do not eliminate risk. Community-acquired infections (influenza, COVID-19) can be severe in immunocompromised recipients; vaccination schedules are modified (live vaccines are contraindicated; boosters recommended).

Malignancy: Skin cancer (squamous cell carcinoma in particular) occurs at 20-30 times the general population rate. Annual dermatology review, sun protection, and in high-risk patients, acitretin (a retinoid) for chemoprevention are recommended. Post-transplant lymphoproliferative disorder (PTLD) is a potentially fatal EBV-driven complication, occurring in 1-2% of recipients, particularly after heavily depleting induction in EBV-naive recipients.

Cardiovascular Complications: Despite the overall cardiovascular benefit of transplantation, traditional cardiovascular risk factors are amplified by immunosuppression. Dyslipidaemia (tacrolimus, steroids), hypertension (calcineurin inhibitors), and NODAT all contribute to elevated cardiovascular risk requiring active management.

Recovery, Discharge, and Follow-Up

Recovery from kidney transplant begins in the immediate post-operative period and continues for life. The first year is the most intensive, with frequent monitoring gradually tapering as the graft stabilises.

Immediate Post-Operative Period (Days 1-7): Recipients are typically managed on dedicated transplant wards, not ICU, unless complications arise. Urine output is monitored hourly — output above 100 mL/hour indicates good early graft function. Fluid management balances replacing urinary losses (commonly litres per hour in the first 24-48 hours) against the risk of fluid overload. IV immunosuppression is transitioned to oral as oral intake is established. Most patients are mobilised within 24 hours of surgery.

Discharge: Uncomplicated living-donor recipients are typically discharged 5-7 days post-transplant. Deceased-donor recipients may stay 7-10 days, particularly if DGF is present. At discharge, recipients receive a detailed medication schedule (tacrolimus, MMF, prednisolone, PCP prophylaxis, CMV prophylaxis, aspirin, antihypertensives), a 24/7 transplant unit contact number, and a follow-up appointment within 3 days.

First 3 Months: This is the highest-risk period for acute rejection and infection. Outpatient visits are frequent — typically three times per week for the first 4 weeks, weekly for months 2-3. Each visit includes serum creatinine, eGFR, tacrolimus trough, FBC, electrolytes, glucose, and urine protein:creatinine ratio. Tacrolimus dose is titrated to target troughs of 8-12 ng/mL.

Months 4-12: Visit frequency reduces to fortnightly then monthly. Tacrolimus target troughs are lowered to 6-8 ng/mL. CMV prophylaxis is typically stopped at 3-6 months. Protocol biopsy is commonly performed at 3 and 12 months in stable recipients to detect subclinical rejection.

Driving and Return to Work: Driving is typically resumed at 6-8 weeks post-transplant (varies by jurisdiction and legal requirements). Return to sedentary work is feasible at 4-6 weeks; physical labour requires 3 months. Contact sports and heavy lifting are restricted for 3 months.

Vaccination: Non-live vaccines (influenza, pneumococcal, COVID-19, hepatitis B) should be current pre-transplant and are continued post-transplant. Live vaccines (MMR, yellow fever, varicella) are contraindicated post-transplant. Household contacts should maintain vaccination status to provide indirect protection.

Cost of Kidney Transplant

The financial cost of kidney transplantation varies by orders of magnitude between countries, making medical tourism a pragmatic option for international patients able to travel. Understanding all cost components — not just the surgical fee — is essential for planning.

USA: Total transplant episode costs in the USA (surgery, hospitalisation, medications, and first-year follow-up) average $150,000-300,000 for deceased-donor transplant and $200,000-350,000 for living-donor transplant (including donor evaluation and surgery). Medicare covers the transplant and lifelong immunosuppression (under Part D since 2020 legislative change). Private insurance coverage and out-of-pocket co-pays vary significantly. Living donor costs — surgical, anaesthetic, and post-operative care — are covered by the recipient's insurance under US federal law.

United Kingdom: Transplantation is fully funded through the NHS. There is no cost to UK-resident recipients or living donors. Waiting times on the NHS deceased-donor list vary by blood group and sensitisation status.

India: India offers internationally accredited kidney transplantation at $12,000-25,000 (USD) for the complete surgical episode at hospitals such as Apollo, Fortis Kidney Institute, and Manipal Hospitals — centres holding NABH and JCI accreditation. Post-transplant immunosuppression costs $80-200/month with Indian generic manufacturers. India's Transplantation of Human Organs Act (THOA) mandates state-level authorisation committees for all live-donor transplants to prevent organ trafficking.

Other Destinations: Thailand: $30,000-55,000 (surgery + first year). Turkey: $20,000-40,000. Germany: $80,000-150,000 (private). Singapore: $60,000-100,000. Mexico (border centres): $25,000-45,000 for US patients seeking proximity.

Ongoing Costs: Immunosuppression costs vary enormously by country. In the USA without insurance, tacrolimus + MMF can cost $1,500-2,500/month. Generic formulations in India, Eastern Europe, and Latin America reduce this to $80-300/month. Annual monitoring (blood tests, clinic visits, DSA testing, protocol biopsies) adds $5,000-15,000/year in the USA and significantly less elsewhere.

Living Donor Financial Support: In several countries, programmes exist to reimburse living donors for lost income and travel during donation. In the UK, the NHSBT reimbursement scheme covers these costs. In the USA, the National Living Donor Assistance Center (NLDAC) provides financial assistance for qualifying donors.

Alternatives to Kidney Transplant

When transplantation is not immediately available or is contraindicated, several alternatives provide life-sustaining renal replacement or supportive care. None match the survival and quality-of-life benefits of a successful transplant, but they are essential bridges and long-term options for appropriate patients.

In-Centre Haemodialysis (HD): Three sessions per week, 4 hours each, at a dialysis facility. Provides adequate small-solute clearance but limited phosphate and middle-molecule removal. Annual mortality of 15-20% in developed-country programmes. All-cause hospitalisation averages 10-15 days/year. Fluid restriction (often 1-1.5 L/day) and dietary phosphate and potassium restriction are required.

Home Haemodialysis (HHD) and Nocturnal HD: Home HD — performed 5-6 nights per week, 6-8 hours overnight — delivers substantially better solute clearance than conventional HD, with improved phosphate control (often without phosphate binders), better blood pressure control, and higher haemoglobin levels (often without erythropoietin). Left ventricular hypertrophy regresses significantly. Survival data are comparable to low-risk transplant in some cohorts, though selection bias is substantial. HHD requires motivated patients with suitable home infrastructure and a trained care partner.

Peritoneal Dialysis (PD): Uses the peritoneal membrane as a dialytic surface; dialysate fluid is instilled and drained through a permanent abdominal catheter. CAPD (4 exchanges daily) or APD (overnight cycler) are the two main modalities. PD preserves residual renal function better than HD, avoids arteriovenous access complications, and can be performed during travel. Peritonitis — the principal complication — is managed with intracavitary antibiotics; recurrent episodes cause technique failure in 2-5% per year.

Conservative Kidney Management (CKM): For patients who are not transplant candidates and for whom dialysis would not meaningfully extend quality-adjusted survival (typically elderly patients with multiple organ failure, advanced dementia, or terminal malignancy), CKM focuses on uraemic symptom control, fluid management, dietary counselling, and palliative care. Decision aids and advance care planning are central to CKM programmes. Evidence suggests that carefully selected CKM patients have similar survival to those starting dialysis, with fewer hospitalisations and better symptom control in the final months of life.

Future Alternatives: Implantable bioartificial kidneys (combining silicon nanopore filtration membranes with living tubule cells in a bioreactor) and porcine xenotransplantation (using CRISPR-edited pig kidneys) are progressing through early-phase trials. Neither is a clinical alternative as of 2026, but both have achieved proof-of-concept in human recipients.

Frequently Asked Questions

The median waiting time in the USA varies significantly by blood group and region. Blood group O recipients wait the longest — often 5-7 years in high-demand areas such as California and New York. Blood group AB recipients wait the shortest time, often under 2 years. The 2014 Kidney Allocation System prioritises candidates who have been on the waitlist longest and those who are highly sensitised (cPRA above 98%, who receive special priority offers). Living-donor transplant bypasses the deceased-donor waiting list entirely.
Yes — living-donor transplants consistently outperform deceased-donor transplants across all outcome metrics. Median graft survival is 15-20 years for living-donor versus 10-15 years for deceased-donor kidneys. Living-donor transplants have lower rates of delayed graft function, primary non-function, and early acute rejection. They also allow pre-emptive transplant (before dialysis) and scheduled surgery at an optimal time for both donor and recipient. A well-matched living-donor kidney from a sibling with shared HLA haplotypes can achieve graft survival approaching 25 years.
Age alone is not an absolute contraindication to kidney transplantation. Many centres actively transplant patients in their 70s and some in their 80s, provided comprehensive geriatric assessment (including frailty scoring) demonstrates sufficient physiological reserve. Older recipients have lower rejection rates (due to a less reactive immune system) but higher infection and cardiovascular mortality. The kidney allocation system in the USA uses a concept of 'estimated post-transplant survival' (EPTS) to match older, lower-EPTS recipients with older, lower-KDPI kidneys, optimising use of the donor organ pool.
The core maintenance immunosuppression regimen is a triple-drug combination: tacrolimus (calcineurin inhibitor, targets T-cell activation), mycophenolate mofetil or mycophenolic acid (antiproliferative, targets lymphocyte replication), and prednisolone (broad anti-inflammatory and immunosuppressive). Prophylactic medications include trimethoprim-sulfamethoxazole (preventing PCP for 6-12 months), valganciclovir (preventing CMV for 3-6 months in at-risk recipients), and aspirin (cardiovascular protection). Missing doses of tacrolimus significantly increases rejection risk — even one or two missed doses can cause a rejection episode. Tacrolimus has numerous drug interactions (particularly with azole antifungals, macrolide antibiotics, and grapefruit) that must be managed carefully.
Yes — pregnancy after kidney transplant is achievable for many women of childbearing age, but requires careful planning and specialist input. Most transplant programmes recommend waiting at least 1-2 years post-transplant, until graft function is stable and immunosuppression is at maintenance levels. Tacrolimus and prednisolone are considered relatively safe in pregnancy; mycophenolate is teratogenic and must be switched to azathioprine at least 3 months before planned conception. Pre-eclampsia, preterm birth, and low birth weight are more common than in the general population. A multidisciplinary team including transplant nephrologist, maternal-fetal medicine specialist, and neonatologist should co-manage these pregnancies.

References

  1. Wolfe RA, Ashby VB, Milford EL, et al. Comparison of mortality in all patients on dialysis, patients on dialysis awaiting transplantation, and recipients of a first cadaveric transplant. New England Journal of Medicine. 1999;341(23):1725-1730.
  2. Gill JS, Tonelli M, Johnson N, Pereira BJ. Why do preemptive kidney transplant recipients have an allograft survival advantage? Transplantation. 2004;78(6):873-879.
  3. OPTN/SRTR 2022 Annual Data Report: Kidney. US Department of Health and Human Services, Health Resources and Services Administration. 2023.
  4. Terasaki PI, Cecka JM, Gjertson DW, Takemoto S. High survival rates of kidney transplants from spousal and living unrelated donors. New England Journal of Medicine. 1995;333(6):333-336.
  5. Lentine KL, Kasiske BL, Levey AS, et al. KDIGO Clinical Practice Guideline on the Evaluation and Care of Living Kidney Donors. Transplantation. 2017;101(8S Suppl 1):S1-S109.
Ad — after-content

Medically Reviewed

Our medical content follows strict editorial guidelines to ensure accuracy and reliability.

Up to Date

Last updated: 2026-06-26

Important: This information is for educational purposes only and does not constitute medical advice. Always consult a qualified healthcare provider for diagnosis and treatment.

Ready to take the next step?

Connect with top hospitals and specialists. Get personalized guidance for your medical journey.

Latest from our blog and forum

Latest from Our Blog

View All →

Latest Forum Discussions

View All →
Compare Costs Get Free Help

Medical Disclaimer: The information on MyMedicPlus is for educational and informational purposes only. It is not a substitute for professional medical advice, diagnosis, or treatment. Always seek the advice of your physician or other qualified health provider with any questions you may have regarding a medical condition. Never disregard professional medical advice or delay seeking it because of something you have read on this site.