scholarly journals PERITONEAL DIALYSIS IN TREATMENT FOR PATIENTS WITH ACUTE KIDNEY INJURY

Author(s):  
M. Kolesnyk ◽  
N. Stepanova

This article is a review of the literature. Peritoneal dialysis (PD) was the first method of dialysis renal replacement therapy (DRRT), used for the treatment of patients with acute kidney injury (AKI). PD is able to correct metabolic, electrolyte, acid-alkali disorders and hypervolemia in patients with AKI. Continuous equilibration PD and continuous flow PD can provide of dialysis dose compared with extracorporeal methods of DRRT. However, PD is considered less effective than hemodialysis. In this regard, PD has used in patients with AKI, especially those who are hemodynamically unstable or at risk of bleeding because of severe coagulation abnormalities, in infants and children with AKI, and in patients with circulatory failure.

2021 ◽  
pp. 089686082098212
Author(s):  
Peter Nourse ◽  
Brett Cullis ◽  
Fredrick Finkelstein ◽  
Alp Numanoglu ◽  
Bradley Warady ◽  
...  

Peritoneal dialysis (PD) for acute kidney injury (AKI) in children has a long track record and shows similar outcomes when compared to extracorporeal therapies. It is still used extensively in low resource settings as well as in some high resource regions especially in Europe. In these regions, there is particular interest in the use of PD for AKI in post cardiac surgery neonates and low birthweight neonates. Here, we present the update of the International Society for Peritoneal Dialysis guidelines for PD in AKI in paediatrics. These guidelines extensively review the available literature and present updated recommendations regarding peritoneal access, dialysis solutions and prescription of dialysis. Summary of recommendations 1.1 Peritoneal dialysis is a suitable renal replacement therapy modality for treatment of acute kidney injury in children. (1C) 2. Access and fluid delivery for acute PD in children. 2.1 We recommend a Tenckhoff catheter inserted by a surgeon in the operating theatre as the optimal choice for PD access. (1B) (optimal) 2.2 Insertion of a PD catheter with an insertion kit and using Seldinger technique is an acceptable alternative. (1C) (optimal) 2.3 Interventional radiological placement of PD catheters combining ultrasound and fluoroscopy is an acceptable alternative. (1D) (optimal) 2.4 Rigid catheters placed using a stylet should only be used when soft Seldinger catheters are not available, with the duration of use limited to <3 days to minimize the risk of complications. (1C) (minimum standard) 2.5 Improvised PD catheters should only be used when no standard PD access is available. (practice point) (minimum standard) 2.6 We recommend the use of prophylactic antibiotics prior to PD catheter insertion. (1B) (optimal) 2.7 A closed delivery system with a Y connection should be used. (1A) (optimal) A system utilizing buretrols to measure fill and drainage volumes should be used when performing manual PD in small children. (practice point) (optimal) 2.8 In resource limited settings, an open system with spiking of bags may be used; however, this should be designed to limit the number of potential sites for contamination and ensure precise measurement of fill and drainage volumes. (practice point) (minimum standard) 2.9 Automated peritoneal dialysis is suitable for the management of paediatric AKI, except in neonates for whom fill volumes are too small for currently available machines. (1D) 3. Peritoneal dialysis solutions for acute PD in children 3.1 The composition of the acute peritoneal dialysis solution should include dextrose in a concentration designed to achieve the target ultrafiltration. (practice point) 3.2  Once potassium levels in the serum fall below 4 mmol/l, potassium should be added to dialysate using sterile technique. (practice point) (optimal) If no facilities exist to measure the serum potassium, consideration should be given for the empiric addition of potassium to the dialysis solution after 12 h of continuous PD to achieve a dialysate concentration of 3–4 mmol/l. (practice point) (minimum standard) 3.3  Serum concentrations of electrolytes should be measured 12 hourly for the first 24 h and daily once stable. (practice point) (optimal) In resource poor settings, sodium and potassium should be measured daily, if practical. (practice point) (minimum standard) 3.4  In the setting of hepatic dysfunction, hemodynamic instability and persistent/worsening metabolic acidosis, it is preferable to use bicarbonate containing solutions. (1D) (optimal) Where these solutions are not available, the use of lactate containing solutions is an alternative. (2D) (minimum standard) 3.5  Commercially prepared dialysis solutions should be used. (1C) (optimal) However, where resources do not permit this, locally prepared fluids may be used with careful observation of sterile preparation procedures and patient outcomes (e.g. rate of peritonitis). (1C) (minimum standard) 4. Prescription of acute PD in paediatric patients 4.1 The initial fill volume should be limited to 10–20 ml/kg to minimize the risk of dialysate leakage; a gradual increase in the volume to approximately 30–40 ml/kg (800–1100 ml/m2) may occur as tolerated by the patient. (practice point) 4.2 The initial exchange duration, including inflow, dwell and drain times, should generally be every 60–90 min; gradual prolongation of the dwell time can occur as fluid and solute removal targets are achieved. In neonates and small infants, the cycle duration may need to be reduced to achieve adequate ultrafiltration. (practice point) 4.3 Close monitoring of total fluid intake and output is mandatory with a goal to achieve and maintain normotension and euvolemia. (1B) 4.4 Acute PD should be continuous throughout the full 24-h period for the initial 1–3 days of therapy. (1C) 4.5  Close monitoring of drug dosages and levels, where available, should be conducted when providing acute PD. (practice point) 5. Continuous flow peritoneal dialysis (CFPD) 5.1   Continuous flow peritoneal dialysis can be considered as a PD treatment option when an increase in solute clearance and ultrafiltration is desired but cannot be achieved with standard acute PD. Therapy with this technique should be considered experimental since experience with the therapy is limited. (practice point) 5.2  Continuous flow peritoneal dialysis can be considered for dialysis therapy in children with AKI when the use of only very small fill volumes is preferred (e.g. children with high ventilator pressures). (practice point)


Author(s):  
Jeffrey C. Sirota ◽  
Isaac Teitelbaum

Peritoneal dialysis, the first modality of renal replacement therapy used in patients with acute kidney injury, has now largely been supplanted by haemofiltration and haemodialysis. However, as acute kidney injury becomes more common and the need for renal replacement therapy increases, the technical advantages of peritoneal dialysis have made it an increasingly attractive option in acute settings, particularly in resource-deprived areas where haemodialysis is not available. Peritoneal modality can offer distinct advantages over haemodialytic techniques in patients with certain concomitant conditions. A variety of infectious, mechanical, pulmonary, and metabolic complications are possible with peritoneal dialysis, but the incidence of these is low in the acute setting. While not yet studied in robust comparative trials against the various haemodialytic modalities, there is some emerging evidence that peritoneal dialysis can provide adequate renal replacement therapy in acute settings, and acute peritoneal dialysis should be considered when haemodialysis is not available or its attendant complications are undesired.


2016 ◽  
Vol 2 (3) ◽  
pp. 95-102 ◽  
Author(s):  
Li Yang

Background: Acute kidney injury (AKI) is a common disorder and is associated with a high morbidity and mortality worldwide. The diversity of the climate and of the socioeconomic and developmental status in Asia has a great influence on the etiology and presentation of AKI in different regions. In view of the International Society of Nephrology's 0by25 initiative, more and more attention has been paid to AKI in Asian countries. Summary: In this review, we summarize the recent achievements with regard to the prevalence and clinical patterns of AKI in Asian countries. Epidemiological studies have revealed the huge medical and economic burden of AKI in Eastern Asian countries, whereas the true epidemiological picture of AKI in the tropical areas is still not well understood. In high-income Asian regions, the presentation of AKI resembles that in other developed countries in Europe and North America. In low-income regions and tropical areas, infections, environmental toxins, and obstetric complications remain the major culprits in most cases of AKI. Preventive opportunities are missed because of failure to recognize the risk factors and early signs of AKI. Patients often present late for treatment or are recognized late by physicians, which leads to more severe kidney injury, multiorgan involvement, and increased mortality. There is significant undertreatment of AKI in many regions, and medical resources for renal replacement therapy are not universally available. Key Messages: More efforts should be made to increase public awareness, establish preventive approaches in communities, educate health-care practitioner entities to achieve better recognition, and form specialist renal teams to improve the treatment of AKI. The choice of renal replacement therapy should fit patients' needs, and peritoneal dialysis can be practiced more frequently in the treatment of AKI patients. Facts from East and West: (1) More than 90% of the patients recruited in AKI studies using KDIGO-equivalent criteria originate from North America, Europe, or Oceania, although these regions represent less than a fifth of the global population. However, the pooled incidence of AKI in hospitalized patients reaches 20% globally with moderate variance between regions. (2) The lower incidence rates observed in Asian countries (except Japan) may be due to a poorer recognition rate, for instance because of less systematically performed serum creatinine tests. (3) AKI patients in South and Southeastern Asia are younger than in East Asia and Western countries and present with fewer comorbidities. (4) Asian countries (and to a certain extent Latin America) face specific challenges that lead to AKI: nephrotoxicity of traditional herbal and less strictly regulated nonprescription medicines, environmental toxins (snake, bee, and wasp venoms), and tropical infectious diseases (malaria and leptospirosis). A higher incidence and less efficient management of natural disasters (particularly earthquakes) are also causes of AKI that Western countries are less likely to encounter. (5) The incidence of obstetric AKI decreased globally together with an improvement in socioeconomic levels particularly in China and India in the last decades. However, antenatal care and abortion management must be improved to reduce AKI in women, particularly in rural areas. (6) Earlier nephrology referral and better access to peritoneal dialysis should improve the outcome of AKI patients.


2011 ◽  
Vol 2011 ◽  
pp. 1-10 ◽  
Author(s):  
Naheed Ansari

Peritoneal dialysis (PD) was the first modality used for renal replacement therapy (RRT) of patients with acute kidney injury (AKI) because of its inherent advantages as compared to Hemodialysis. It provides the nephrologist with nonvascular alternative for renal replacement therapy. It is an inexpensive modality in developing countries and does not require highly trained staff or a complex apparatus. Systemic anticoagulation is not needed, and it can be easily initiated. It can be used as continuous or intermittent procedure and, due to slow fluid and solute removal, helps maintain hemodynamic stability especially in patients admitted to the intensive care unit. PD has been successfully used in AKI involving patients with hemodynamic instability, those at risk of bleeding, and infants and children with AKI or circulatory failure. Newer continuous renal replacement therapies (CRRTs) are being increasingly used in renal replacement therapy of AKI with less use of PD. Results of studies comparing newer modalities of CRRT versus acute peritoneal dialysis have been conflicting. PD is the modality of choice in renal replacement therapy in pediatric patients and in patients with AKI in developing countries.


2015 ◽  
Vol 35 (4) ◽  
pp. 397-405 ◽  
Author(s):  
Cassiana Regina Góes ◽  
Marina Nogueira Berbel ◽  
Andre Luis Balbi ◽  
Daniela Ponce

During the 1970s and 1980s, peritoneal dialysis (PD) was widely accepted as the standard treatment for acute kidney injury (AKI). However, advances in the techniques of extra-corporeal blood purification gradually reduced its use, making PD an underused modality in this context. Although PD for AKI is an underutilized modality worldwide, it is frequently used in developing countries because of its lower cost and minimal infrastructure requirements. Recent studies have shown that PD administered continuously through a flexible catheter and cycler is an effective treatment in AKI because it ensures adequate fluid status and metabolic control. However, the use of PD in AKI has several limitations, such as the need for an intact peritoneal cavity and, in emergency situations such as severe fluid overload and severe hyperkalemia, an efficacy that is lower than that with extracorporeal blood purification techniques. Metabolic, infectious, and mechanical disorders related to PD are also limitations.Among the metabolic complications of PD are hyperglycemia, hypernatremia, protein loss into the dialysate, and hypercatabolism. Hyperglycemia is caused by the use of dialysate containing high concentrations of glucose. Hypernatremia is a result of short dialysate dwell times during the rapid exchanges of high-volume PD. Protein loss into the dialysate can reach 48 g daily, worsening the nutrition status of patients already depleted by AKI. Severe hypercatabolism caused by PD remains controversial and occurs because PD methods cannot provide an adequate dialysis dose for AKI patients.Few studies have assessed the metabolic implications of PD in AKI patients. Evaluation of these implications is relatively simple, imposes no additional costs, and can provide information about the severity of the disease. Evaluation could also guide the selection of therapeutic, dialytic, and nutrition measures, preventing metabolic complications. The present manuscript describes the metabolic implications of PD and reviews the literature on how to prevent metabolic complications.


2016 ◽  
Vol 31 (7) ◽  
pp. 1137-1143 ◽  
Author(s):  
Peter Nourse ◽  
Gina Sinclair ◽  
Priya Gajjar ◽  
Mandi du Plessis ◽  
Andrew Charles Argent

Author(s):  
Wim Van Biesen

The advent of intermittent and continuous haemodialysis meant that peritoneal dialysis was progressively neglected for treatment of acute kidney injury. However, peritoneal dialysis has some specific features making it a suitable treatment in certain indications, such as risk of bleeding, neurosurgery, or haemodynamically unstable patients. In view of its low cost and relatively simple technology, it is also a very suitable technique in locations where no haemodialysis is available. Some specific aspects of the patient with acute kidney injury, mostly the fact that these patients are fast transporters, should be taken into account in the prescription. Occurrence of peritonitis should be monitored, and antibiotic treatment should be tailored to the higher clearances obtained in acute peritoneal dialysis as compared to chronic peritoneal dialysis.


Author(s):  
Jang Won Seo ◽  
Ravindra L. Mehta

Several techniques for renal replacement therapy are now utilized to manage patients with acute kidney injury including intermittent haemodialysis, continuous renal replacement therapy, sustained low-efficiency dialysis, and peritoneal dialysis. This chapter provides an update on contemporary issues including advances in dialysis technology and its effects on the application of dialysis in acute kidney injury. The timing of initiation, modality choice, optimal dose, and management of complications in dialysis are some of the areas where there is controversy.


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