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. 2022 Sep 11;5(5):e827. doi: 10.1002/hsr2.827

Understanding the use of oral rehydration therapy: A narrative review from clinical practice to main recommendations

Ziba Aghsaeifard 1, Ghobad Heidari 2, Reza Alizadeh 3,
PMCID: PMC9464461  PMID: 36110343

Abstract

Background and Aims

Fluid loss due to diarrhea remains a significant cause of mortality among children under the age of 5.

Methods

Oral rehydration therapy (ORT) is a first‐line therapeutic measure to compensate the volume loss due to diarrhea and vomiting among gastroenteritis patients. Despite adequate knowledge, the practice of ORT is limited, particularly in developing countries.

Results

Several recommendations are provided regarding the use of ORT to treat hypovolemia, however, the information regarding its adequate usage is restricted within the healthcare centers and professionals.

Conclusion

This review highlights the importance of providing recommendations regarding the use of ORT. We also discuss the barriers and alternatives that might limit its use.

Keywords: children, diarrhea, fluid loss, gastroenteritis, hypovolemia, oral rehydration therapy (ORT)

1. INTRODUCTION

Diarrhea is responsible for 7,600,000 deaths, worldwide, among children aged <5 years. 1 Survival of children suffering from hypovolemic shock depends greatly on the promptness of the treatment. Poorly managed cases have been reported with organ damage, acidosis, kidney failure, and death. Diarrhea‐associated hypovolemia is the second leading cause of death among the children aged below 5 years. Volume loss is characterized by reduction in the volume of intracellular fluid and is mainly associated with loss of sodium and water. 2 , 3 , 4

The words volume depletion (i.e., hypovolemia) and dehydration are often used interchangeably. However, these terms vary in terms of the physiological conditions resulting from different types of fluid loss. Similar to other research practice, 5 we throughout the text these terms will be used interchangeably (Figure 1).

Figure 1.

Figure 1

Describes the recipe of home‐made oral rehydration solution

Oral rehydration therapy (ORT), first introduced in 1960s, 6 is a gold standard for treating fluid loss as a result of acute diarrhea. 7 Oral rehydration solution (ORS) is composed of iso‐osmolar glucose electrolyte solution with base and citrate that is administered to treat dehydration and metabolic acidosis. 8 , 9 The use of ORS has reduced the incidence of associated morbidities and mortalities, however, over the period of past 30 years, its use remains low or unchanged in many regions of the world. 9 , 10 According to the monography by UNICEF in 2009, the overall use of ORS was reported to be 33% in developing countries, which could also indicate the possibility of increased child mortality due to diarrhea. 1 , 11 , 12 , 13

Three significant scientific observation contributed chiefly to the development of ORS: (1) requirement of sodium for the absorption of glucose in small intestine and increase in the absorption of sodium following the presence of luminal glucose, (2) enterotoxin of cholera does not decrease fluid and sodium absorption by the action of intracellular cyclic AMP (adenosine monophosphate), and (3) treatment of acute diarrhea in the field during Bangladesh war in 1970. 8 Additionally, later outbreaks of cholera in Peru and Rwanda proved its efficacy. 14

The following variations of ORS are declared by the World Health Organization (WHO).

1.1. Carrier organic solute

In ORS formula suggested by WHO, glucose is used as an organic solvent carrier for sodium transport (Table 1). Although some promising solutions (e.g., zinc, probiotics, glucose polymers, l‐isoleucine, dextrose) have shown effective results, 15 , 16 there are no definitive data for more routine use. 17 , 18

Table 1.

Oral rehydration solutions (ORS) that are commonly used

Osmolality (mOsmol/kgH2O)

mEq/l

Sodium

Potassium Open (bicarbonate) Carbohydrate (g/l)
ORS
235 10 20 70 40 Serilate
200 30 25 50 30 Inhalation
250 30 20 45 25 Pediality
310 30 20 75 25 Leadership
310 30 30 90 20 WHO 1975
245 30 20 75 13.5 WHO 2002
Commonly used drinks (not suitable for supplemental treatment)
700 0 20 3 150−100 Apple juice
450 0 5 250 0 chicken soup
550 13 0.1 2 150−100 Cola
330 3 3 20 45 Processed herbal extracts
565 3.6 0.1 3.5 90 Ginger juice
5 0 0 0 0 Tea

1.2. Polymer‐based formulas

In polymer‐based ORS, rice, wheat, and corn are used as starch sources for glucose. Starch is slowly broken down into glucose molecules by amylase in the small intestine. A systematic review showed that polymer‐based ORS was more effective in reducing fecal volume and duration of diarrhea in patients with acute cholera‐induced diarrhea or other causes than ORS with glucose‐based ORs. 19 However, there is insufficient data to show that the polymer‐based ORS is superior to the lower osmolality glucose‐based ORS.

2. CLINICAL MANAGEMENT OF DEHYDRATION

ORT is the preferred treatment for fluid and electrolyte loss due to diarrhea caused by gastroenteritis in children with mild to moderate dehydration. ORT is used to treat gastroenteritis‐induced hypovolemia independent of age, causative agent, or initial sodium content. 20 ORS with reduced osmolarity 250 mOsm/L or less, WHO approved, decreases episodes of diarrhea, vomiting, and need for intravenous (IV) rehydration therapy. 21 However, there were early concerns that decreased osmolality of the ORS may cause hyponatremia in patients with cholera who often have high levels of sodium diarrhea. A large descriptive study was conducted in Bangladesh that reported incidence of symptomatic hyponatremia in both the pediatric and adult groups in the study population where only 20% of cholera patients were reported. 22 The findings suggested that ORS with reduced osmolality is also effective to treat patients with acute diarrhea.

ORT can be used at home or under medically supervised conditions.

2.1. Home

If patients' caregivers have adequate knowledge to diagnose the clinical symptoms of volume loss, ORT can be used at home, leading to less frequent visits to the office or emergency room for hypovolemia. A ready‐made commercial standard of prepared ORS (in powdered form) is recommended for use in nonmedical facilities as serious hazards may occur when using home‐based instructions with sugar and sodium (Table 1). 23 , 24

2.2. Medical supervised conditions

Before initiating an ORT, a child being brought to a health, or emergency care center with diarrhea should be evaluated for the cause of the diarrhea and whether further diagnostic tests or interventions are necessary. If there is evidence that resuscitation is appropriate, ORT should be started using standard commercial formula, if there is mild to moderate hypovolemia. ORT is generally based on the degree of dehydration of the body.

2.3. Evaluation of dehydration

After deciding to initiate fluid therapy, clinical evaluation of the patient's hydration status is necessary, as it determines clinical decisions on the use of ORT in individuals with the following characteristics:

  • Identify patients who are not dehydrated and can be transferred home using ORT.

  • Identify patients with moderate to low dehydration, where ORT is the preferred treatment for resuscitation.

  • Identify patients with severe dehydration who need fluid replacement.

Although attempts have been made to distinguish between mild to moderate dehydration (Table 2), it is still difficult to distinguish clinically between the two degrees of dehydration. 25 As a result, experts in the field group these patients and use a similar management approach when symptoms are overlapped, involving a wide range of dehydration (3%–9% volume reduction).

Table 2.

Clinical symptoms of dehydration in infants and children

Findings Mild (3%–5%) Moderate (6%–9%) Severe (10%)
In case of 3%–9% water loss, ORT is required. Rehydration phase: administration of 50–100 ml/kg ORS every 4 h. Volume loss ≥10%
Maintenance phase: nutrition and fluids should be resumed, and ORT is continued Rehydration phase: administration of 20 ml/kg body weight isotonic saline. When the patient is stable, ORS to be administered 25–100 ml/kg ORS every 4 h.
Maintenance phase: nutrition and fluids along with ORS
Pulse Fill, normal number Fast Fast and weak or absent
Systolic pressure Normal Normal or low Down
Breathing Normal Deep, the respiratory rate may increase Deep, rapid, or decreased breathing or lack of breathing
Oral mucosa Sticky or slightly dry Dry Fragile
Anterior Fontanel Normal Submerged Significantly sunk
Eyes Normal Goodbye Significantly reduced
Skin turgor Normal Decreased Clad
Skin Normal Cold Cold, lattice, edges black
The amount of urine Normal or mildly reduced Dropped significantly No urine
Systemic symptoms Increased thirst Inattention, irritability Breathable, loose breaths, coma

Abbreviations: ORS, oral rehydration solution; ORT, oral rehydration therapy.

3. PRACTICES TO TREAT DEHYDRATION AT DIFFERENT STAGES OF WATER LOSS

3.1. Lack of water

For patients with diarrhea but without evidence of water deficiency, ORT is used to maintain hydration by replacing stools, as mentioned above. If stool output is minimal, ORS may not be required. Regardless of the stool removal, age‐appropriate nutrition (including breastfeeding) should be continued with supplemental fluids.

3.2. Mild to moderate water loss

Several specialists use the same management approach for patients with mild to moderate dehydration (3%–9% volume reduction). While some patients with relatively less intense water loss can be provided with home‐based care. When required, oral fluid replacement techniques are taught. However, care for patients with higher degree of dehydration is better monitored in a medical setting.

3.2.1. Rehydration phase

Liquid therapy should be administered with ORS of 50 to 100 ml/kg every 4 h. Extra ORS is given to replace ongoing loss of digestive system (stool or vomiting). The patient should be rechecked for hydration and regular replacement.

3.2.2. Maintenance phase

After the completion of replacement phase, nutrition and fluids should be started, and the ORT is continued for continuous gastrointestinal excretion. The patient's hydration status, diarrhea, and vomiting should be assessed, as well as the amount of fluid excreted per hour added to the amount required the next hour.

3.3. Severe dehydration

Severe dehydration is defined as a volume loss of more than 10% which is treated as follows.

3.3.1. Rehydration phase

Very severe dehydration is a medical emergency and requires IV treatment with a rapid administration of 20 ml/kg body weight with isotonic saline.

As the patient's clinical status stabilizes and his or her level of consciousness returns to normal, treatment can be switched to ORS. The nasal tube can be used in patients with a normal mental state, who may not be able to consume enough fluid. ORS is given with a volume of 100 ml/kg body weight at 4 h or 25ml/kg. Additional ORS is prescribed to replace continuous gastrointestinal excretion. At the end of each hour, the patient's hydration status and diarrhea and vomiting should be assessed, and the amount of excretion per hour should be added to the amount required the next hour.

3.4. Maintenance phase

After repletion is completed, nutrition and fluids should be started, and ORT is continued to replace gastrointestinal excretion.

4. LIMITATIONS IN THE USE ORT

Knowledge concerning the importance and usage of ORT and associated practice are missing factors that might have contributed to the limited use of ORT. 26 , 27

A recent study by Misgna et al. 1 concerning the awareness regarding the use of ORT in Ethiopia reported that 51% of the total children suffering from diarrhea, were receiving ORT whereas, 43.8% of the mothers were fully aware of the purpose of ORT. A number of previous studies have shown that unawareness regarding the use of ORT, lack of knowledge of diarrhea and fluid loss and associated sign and symptoms, and unavailability of ORT products delay the treatment and worsen the clinical condition. 28 A study conducted in Gambia by Sillah et al. 29 reported that maternal knowledge‐attitude‐practice score for the use of ORS among children suffering from diarrhea, under the age of 5 was 33.9. The use of ORT in practice was seen to be 4%. Additionally, higher socioeconomic status and increased age are associated with the greater use of ORT. Similarly, Agbolade et al. 30 study based on Nigerian military camp reported that the awareness of the use of ORS or sugar‐salt solution was greater than its use, 98% versus 49.5%.

Previous experience of using ORT, seeking medical advice, and knowledge of ORT are common factors associated with the increased use of ORT. 31 A study conducted in Kenya concerning the use of ORT in diarrhea among children stated that caregivers who did not use ORS for rehydration were not much aware of these, had no access to the facility, children disliked the taste, lack of confidence to treat diarrhea at home and had greater inclination towards the use of western medicine. 32

5. COMMERCIAL AND STANDARD ORS

For ORT, the WHO standard or marketable ORS that has a concentration of equimolar 1 glucose and sodium with osmolality should be used. ORS available in the market differs in osmolality and sodium concentration (Table 1). All commercial ORS contain 2%–3% carbohydrates, such as glucose, rice, or other grains; this is sufficient to maintain nutritional status in the short term (24–48 h) until osmol overload in the gut is avoided. 33

6. OTHER REMEDIES FOR DEHYDRATION

6.1. Household drinks and liquids

Common household fluids for children with hypovolemia include gelatin, tea, fruit juice, sports drinks, and nonalcoholic beverages. These liquids are low in sodium and almost all of them have a higher carbohydrate content and osmolality than standard ORS (Table 1). As a result, they are not recommended as a standard ORS alternative for resuscitation in children with gastroenteritis, because there are concerns that may cause hyponatremia‐induced osmotic diarrhea. However, a Canadian clinical trial in 6‐ to 60‐month‐old children with mild gastroenteritis without clinical signs of dehydration showed that apple juice (diluted 1: 1 with apple juice and water) compared to standard commercial ORS flavored apples are less susceptible to treatment failure (17%–25%). 34 Zinc supplementation should be prescribed for children with diarrhea in developing countries, due to the prevalence of zinc deficiency. 35 , 36 , 37 Additionally, usage of zinc‐based formula is also effective in reducing diarrhea. 38

6.2. IV rehydration

Alternatively, IV fluid therapy, composed of 0.9% sodium chloride (NaCl) is also used extensively for the compensation of fluid loss following gastroenteritis and diarrhea, particularly. 39 A number of studies have compared the effects of ORT and IV rehydration therapy for the following purpose. In 2002, Atherly‐John et al. 40 compared the effects of these two among the acute gastroenteritis children and reported that the use of ORT was associated with shorter hospital stay and increased patient satisfaction. However, out of 18 patients receiving ORT, four failed to respond well and were moved to IV therapy.

Similarly, in a systemic review Freedman et al. 41 demonstrated that use of ORT was characterized by shorter stay at the hospital nonetheless, had greater risk of developing paralytic ileus, as compared to IV therapy. Phlebitis was more prevalent in IV group. Simplicity and noninvasiveness of ORT make it the first choice for the treatment mild to moderate diarrhea.

Advancement in the management of gastroenteritis has purposed the use of rapid ORT, that is, administered for 4 h. 42 , 43 In cases where rapid ORT fails, IV or rapid IV therapy containing 0.9% NaCl 20 ml/kg/h for 2–4 h is considered. 44 To it, ORT is also continued. The WHO recommends the use IV rehydration therapy for 3–6 h in the cases of severe dehydration. 45 Nonetheless, ORT is a cost‐effective method for non‐severe diarrhea emergencies. 46 A recent study conducted on calves stated that ORT is a gold standard for treating moderate dehydration, supported from the outcomes based on blood pH, changes in plasma volume, levels of electrolytes, and physical examination. The study concluded that ORT is likely to more effective than small volume of lactated Ringer's solution (IV) or subcutaneous therapy. 47

7. CONTRAINDICATION AND ADVERSE EFFECTS OF ORT

In patients with volume loss greater than 10%, those who are unable to drink liquid (respiratory problems or unconsciousness), patients under shock, unable to maintain ORS in body due to vomiting, and those with ileus, ORS is contraindicated. 48 A recent study stated that it might not be suitable among children with mixed/cardioinhibitory vasovagal syncope. 49

Among children in whom fluid loss is undervalued, ORT can lead to acute kidney injury, acidosis, and death. 4 A recent study also reported 11 cases of facial edema following rehydration therapy in 23 patients. They reported that it was associated with a greater volume of rehydration solution and faster infusion speed. Furthermore, cardiovascular adverse events, epilepticus, pulmonary edema, and convulsions are also reported in these patients. 50

Despite the knowledge and known positive outcomes of ORT, its usage remains to be 30%–40% to the date. Inadequate supplies, lack of healthcare knowledge, and faulty government policies have added to the cause of stagnancy in these numbers. 51

8. CONCLUSION

A number of modifications have been made to the therapy, nonetheless, it is still first choice for the treatment of volume depletion, following diarrhea. In cases where ORT fails, IV rehydration is recommended. These are cost‐effective and easily available options that can save several lives, which are foregone due to incorrect understanding regarding the treatment of diarrhea. Clear and simple set of guidelines is required to fill the void between the knowledge and the practice of using ORT.

AUTHOR CONTRIBUTIONS

Ziba Aghsaeifard: Conceptualization; Writing – original draft. Ghobad Heidari: Formal Analysis. Reza Alizadeh: Writing – review and editing. All authors have read and approved the final version of the manuscript. Ziba Aghsaeifard had full access to all of the data in this study and takes complete responsibility for the integrity of the data and the accuracy of the data analysis.

CONFLICT OF INTEREST

The authors declare no conflict of interest.

ETHICS STATEMENT

All procedures performed in this study involving human participants were in accordance with the ethical standards of the institutional and/or national research committee and with the 1964 Helsinki Declaration and its later amendments or comparable ethical standards. Written consent was signed for all the patients aged 18 years or above. For patients under 18, a legal guardian or parent signed the consent form.

TRANSPARENCY STATEMENT

Ziba Aghsaeifard affirms that this manuscript is an honest, accurate, and transparent account of the study being reported; that no important aspects of the study have been omitted; and that any discrepancies from the study as planned (and, if relevant, registered) have been explained.

Aghsaeifard Z, Heidari G, Alizadeh R. Understanding the use of oral rehydration therapy: a narrative review from clinical practice to main recommendations. Health Sci Rep 2022;5:e827. 10.1002/hsr2.827

DATA AVAILABILITY STATEMENT

The authors confirm that the data supporting the findings of this study are available within the article.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

The authors confirm that the data supporting the findings of this study are available within the article.


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