Current Concept Review

Pediatric and Adolescent Jehovah’s Witnesses: Considerations for Safe and Ethical Orthopaedic Procedures

Cynthis Wong, MD1; R. Justin Mistovich, MD, MBA2; Martin J. Morrison, III, MD3

1Department of Orthopaedics, Baylor University Medical Center, Dallas, TX; 2Department of Orthopaedics, School of Medicine, Case Western Reserve University, Cleveland, OH; 3Department of Orthopaedic Surgery, Renown Pediatric Orthopedics and Scoliosis, Reno, NV

Correspondence: Cynthis Wong, MD, Baylor University Medical Center, Department of Orthopaedics, 3500 Gaston Ave., 6th floor Hoblitzelle, Dallas, TX 75246. E-mail:

Received: June 28, 2022; Accepted: June 6, 2022; Published: August 1, 2022

DOI: 10.55275/JPOSNA-2022-0086

Volume 4, Number 3, August 2022


Jehovah’s Witnesses are members of a restorationist Christian denomination widely known for their refusal of blood transfusions. Most important for consideration of the pediatric orthopaedic surgeon, are patients undergoing high-risk cases such as spine and pelvic surgery. While previous case rulings have been quite clear in outlining the treatment of young children of Jehovah’s Witnesses, there is much more variability in the treatment of those who are adolescents and who may have the capacity to consent. In order to provide the best possible care and avoidance of harm, we present legal, ethical, and medical issues surrounding treatment of Jehovah’s Witnesses. Preoperative planning requires frequent communication with family, multi-disciplinary coordination, verification of acceptable blood products, and anemia optimization. By utilizing various intraoperative and postoperative techniques, safe surgery can be successfully performed with similar outcomes as other patient groups.

Key Concepts:

  • Jehovah’s Witnesses are a restorationist Christian denomination who are notable in the medical community for their refusal of blood transfusions.
  • In treating pediatric Jehovah’s Witnesses, conversations should ensure the decision-making capacity of the patient or parent, that the patient is free from coercion, and that they are able to convey understanding.
  • Preoperative planning requires multi-disciplinary coordination, verification of acceptable blood products, and anemia optimization.
  • By utilizing various intraoperative and postoperative techniques, safe surgery can be successfully performed with similar outcomes as other patient groups.


Jehovah’s Witnesses are members of a restorationist Christian denomination widely known for their refusal of blood transfusions, which is critically important in consideration for large blood loss cases such as spine and pelvic surgery.1 It is important to examine the legal, ethical, and medical issues surrounding the treatment of Jehovah’s Witnesses in order to have collaborative conversations towards the best possible care and avoidance of harm. The rights of children and adolescents to refuse treatment must also be understood. In the following, we aim to provide background information, elucidate legal and ethical considerations for pediatric patients, and describe perioperative techniques in performing bloodless surgery.


The Jehovah’s Witness denomination was founded in the 1870s with beliefs centered on the acceptance of the Bible and in some circumstances, literal interpretation of the text. Worldwide, there are over 8.7 million Jehovah’s Witnesses, with just over 1.2 million residing in the United States.2 More can be learned about the denomination from their website:

Subscribers to the Jehovah’s Witness religion refuse blood products based off of several passages from the Bible that forbid the ingestion of blood (Genesis 9:4; Leviticus 17:10; Deuteronomy 12:23; Acts 15:28, 29).3,4 The governing body of Jehovah’s Witnesses, The Watchtower Society states that based upon parallels made with parenteral nutrition, receiving blood transfusions is considered the same as eating blood.5 Ingestion of blood may result in a type of excommunication for members and the loss of eternal life. However, The Watchtower Society elaborates, stating that those that have received blood products are not immediately disfellowshipped, and instead, patients who had transfusions under duress would have “kindness … shown and pastoral help offered.”6 Regardless, the refusal of blood products is a core tenet of their faith. Forced transfusions can cause irreparable psychological harm.6

Ethical and Legal Principles of Medicine: Application to Children and Adolescents

When evaluating care for young Jehovah’s Witnesses, it is useful to consider the four principles of medical ethics as stated by Beauchamp and Childress: autonomy, beneficence, non-maleficence, and justice.7 Practicing autonomy necessitates liberty (the ability to make a choice free from controlling influences) and agency (the capacity to act intentionally). Beneficence refers to actions done to benefit others, while non-maleficence refers to avoiding actions that harm others. Finally, justice refers to the fair allocation of resources.

In the U.S., patient autonomy is heavily weighted against other principles when applied to adults with decision-making capacity.8 The ethics and legality of medically necessary interventions in young children have also been established. Courts have consistently deemed that the state can intervene to protect children and that parents “do not have an absolute right” to medical treatment refusal.9 Furthermore, courts have also allowed physicians to provide emergency medical care to minors without consent of their parents.10 This should not mean that the issue is solved for surgeons caring for young patients. For example, if there is no immediate risk to the child, the courts will often support the parental decision.11

Adolescents present a particular challenge, as their evolving maturity may allow for capacity for decision-making and thus, autonomy. Legislation regarding this matter is inconsistent and state dependent, so these cases must be evaluated individually. At the time of writing, 17 states have a mature minor doctrine or provisions which allow some minors to consent to medical treatment without parental consent (Table 1).9,12 Others states declare adolescent Jehovah’s Witnesses immature and lacking in ability to understand, deferring medical decisions to their parents or the courts.

Table 1. States Which Allow Some Form of Adolescent Consent

Alabama Kansas Oregon
Alaska Louisiana Pennsylvania
Arkansas Maine South Carolina
Delaware Massachusetts Tennessee
Idaho Montana West Virginia
Illinois Nevada

It is worth noting however, that capacity to consent to treatment is not the same as capacity to refuse treatment. Multiple cases have emerged in which adolescents were not given the right to refuse treatment, instead becoming wards of the state, secondary to the severe consequence of their refusal.13 This was seen in the case of Daniel Hauser, a 13-year-old in which the court did not allow him to refuse chemotherapy on his religious grounds.14 In the case of Shannon Nixon, an adolescent with uncontrolled diabetes who had refused treatment, the Pennsylvania Supreme Court suggested that, while minors may consent to certain medical treatments, stricter evaluation should be held in refusals of care in life or death situations.14 Furthermore, in emergency situations, it is often difficult to assess the capacity of the adolescent. The state’s interest in preserving life often outweighs the parents’ and adolescent’s convictions.15 It is therefore reasonable to presumptively treat the minor in life-preserving situations if blood products cannot be avoided.

Approach to Children and Adolescents of Jehovah’s Witnesses

Conversations between physicians and parents (and/or adolescents) who refuse treatment are often difficult because physicians must balance several potentially conflicting principles of medical ethics. When treating children, decision-making authority is usually given to the parents. But adding further complexity, adolescents may have decision-making capacity and their wishes and decision may differ from their parents.

While these discussions are complex, the surgeon should first seek an understanding of the reasoning behind the refusal of treatment. Acknowledgement is critical in demonstrating the physician’s understanding of the patient’s values and their significance. This can also aid in forming a bridge of communication for future management. Conversations should ensure that the patient or parent is free of coercion, has decision-making capacity, and is able to convey understanding, ensuring that their refusal is not due to a misunderstanding. These conversations should be had privately, without members of the church, to ensure the patients’ choices can be freely expressed.

Preoperative discussions should include verification of acceptable treatments, accurate documentation, and coordination of multidisciplinary planning.16 It should be known what blood products the patient is willing to accept. For optimal surgical planning, the anesthesiologist, hematologist, and the rest of the peri-operative team should also be informed. The Watchtower Society provides a liaison that can be consulted for alternatives to blood transfusion in medical management if needed. Preoperatively, it is best that the family understands that the team will do all that they can to mitigate blood loss in keeping with their religious beliefs (e.g., do they consent to auto transfusion or not?). Yet by consenting to the procedure, they understand that their surgeons and the hospital are duty bound to transfuse blood if a critical anemia is reached. Consenting to the operation implies this concept and consultation with the hospital ethics committee as well as court resolution of the decision would be pursued. In this case, the court’s responsibility is to decide whether the choice of nonblood management will adequately meet the child’s needs. The hospital ethics committee and court consultation play a critical role in providing proper patient care as well as protecting the physician and hospital from potential liability.

Perioperative Medical Management of the Young Jehovah’s Witness (Figure 1)

Figure 1. Brief outline of preoperative, anesthesia, intraoperative, and postoperative techniques for blood loss reduction.


Are All Blood Products Viewed Equally?

Jehovah’s Witnesses do not accept whole blood as well as major components of blood such as red blood cells, white blood cells, platelets, plasma, or hemoglobin. In addition, auto-transfusions of their own blood may not be accepted as some believe that blood removed from the body should be disposed of.17 However, blood substitutes with a minor blood derivative such as albumin, immune globulins, or clotting factors may be acceptable. Cell salvage may be used as long as the blood is maintained with the body in one continuous circuit. Completely synthetic blood substitutes are also acceptable in addition to fluids or heart lung machines (Table 2).

Table 2. Religiously Acceptable Strategies to Manage Blood Loss

Acceptable May be considered Unacceptable
  • Cell salvage (continuous circuit)
  • Fluids (crystalloid / colloid)
  • Recombinant erythropoietin (EPO) Recombinant clotting factors
  • Synthetic blood products
  • Iron, folate, Vitamin B12
  • Minor blood derivatives:
    1. Albumin
    2. Immunoglobulins
    3. Clotting factors
    4. Cryoprecipitate
    5. Prothrombin complex concentrate
    6. Hemoglobin
  • Cell salvage from drains
  • Autotransfusion from pre-donated blood
  • Whole blood
  • Packed red blood cells
  • White blood cells
  • Platelet concentrate/ FFP
  • Plasma
  • Hemoglobin

Preoperative Considerations

Patients should be assessed to determine if they are at an increased risk of bleeding. If indicated, a preoperative consultation with a hematologist should address correction of any coagulopathies and anemia. Particularly, it is important to stop any medication that impairs clotting, correct coagulopathies, and correct anemia with iron supplementation preoperatively. Phlebotomy can be limited through the use of pediatric or micro sample tubes for laboratory draws. Potential vectors of blood loss such as menstruation or gastrointestinal ulcers must also be considered. Lastly, preoperative arteriograms can provide critical information regarding the vascular anatomy surrounding the target area. It may be possible to perform selective arterial embolization. This method has been shown to be useful in tumors and pelvic fracture surgeries.18

Preoperative exogeneous erythropoietin (EPO) has been shown to minimize transfusion requirements for surgical procedures with up to 20% total blood volume loss.19 Formulations without albumin are available and can be used for Jehovah’s Witnesses. Simultaneous iron, vitamin B12, and folate supplementation is required during treatment due to functional deficiencies caused by increased hematopoiesis. Adverse side effects include an increased risk of thromboembolism secondary to increased vascular resistance, arterial blood pressure, and decreased cardiac output.20 However, the associated improvement in oxygen carrying capacity typically outweighs these risks in anemic patients.21,22

Vitamin K and prothrombin complex concentrates are successful in the reversal of oral anticoagulants and reduction of blood product administration.23 These are plasma-derived agents; however, there is a formulation without human albumin and may be more amenable for some Jehovah’s Witnesses.

Pre-Incision Preparation

While some studies have shown that use of central neuraxial anesthesia may result in decreased blood loss,2426 more recent studies have shown no significant difference between this approach and general anesthesia.27,28 As such, the operative team should employ their standard approach to anesthesia for the anticipated procedure.

Antifibrinolytic Agents. Antifibrinolytic agents such as tranexamic acid (TXA) or -aminocaproic acid (Amicar) have been shown to reduce blood transfusion needs by up to 69% in orthopaedic procedures such as joint arthroplasty and fracture open reduction and internal fixation.2934 There was no increased risk of total thromboembolic events. TXA was found to be 6-10 times more potent than -aminocaproic acid;35 however, the only FDA-approved usage for tranexamic acid is short-term for patients with hemophilia and menorrhagia.36 Topical and intravenous formulations are available, with the suggested route of administration and amount is highly variable depending on the patient’s needs. One meta-analysis demonstrated improved blood loss reduction with high dosage of TXA (defined as a bolus of 10 to 100 mg/kg with a maintenance dose greater than 10 mg/kg/h) when compared to a low dosage in adult spinal surgery.37 Dosage of 100 mg/kg with a maintenance rate of 10 mg/kg/h has previously been successfully utilized in pediatric spine surgery.38

Recombinant Coagulation Factors. Recombinant Factor VII, VIII, and IX concentrates are also available. Factor VIII and IX concentrate administration has been successfully utilized in conjunction with other factors in improving clot formation, platelet activation and prevention of excess bleeding,39,40 Unlike cryoprecipitate or fresh frozen plasma, these are produced without human blood and are thus acceptable to most Jehovah’s Witnesses. Recombinant factor VIIa has also been used intraoperatively to reduce mean blood loss, in obstetric patients with dilutional coagulopathy, or postoperatively in open heart surgery.4143 However, its value in orthopaedic surgery is unproven. Two randomized controlled trials for traumatic pelvic fractures and major spinal surgery demonstrated no significant difference between surgical blood loss and transfusion volume.44 Guidelines from the European Society of Anaesthesiology thus limit the use of recombinant factor VIIa for refractory bleeding that cannot be stopped by other conventional methods.45

Recombinant fibrinogen can also be utilized. A recent meta-analysis on the effectiveness of fibrinogen on blood loss was unable to draw any conclusions due to the limited number of studies.46 However, some studies have shown effectiveness as prophylaxis for hemorrhage or correction of dilutional coagulopathy.4749 During hemorrhage, fibrinogen depletion is thought to occur first among other coagulation factors. Low preoperative levels have been linked to increased blood loss in orthopaedic surgery.48,50,51 Administration of crystalloids and colloids has also been found to interfere with fibrinogen and fibrin polymerization.48 This can be reversed with administration of fibrinogen concentrate intraoperatively. Thus, in the setting of dilutional coagulopathy, prophylactic recombinant fibrinogen administration can also be considered.

Desmopressin. Desmopressin stimulates the release of von Willebrand factor and factor VIII and can correct coagulopathies in hemophilia A. Investigations for desmopressin usage intraoperatively have demonstrated variable results. Multiple Jehovah’s Witness cases have shown increased hemostasis with desmopressin administration.52 In orthopaedics, Kobrinsky, et al. successfully demonstrated the reduction of blood loss by 32.5% in spinal fusion surgery through desmopressin administration.53 Conversely, a recent Cochrane review of 65 trials demonstrated that desmopressin administration has little to no impact on transfusion probability or all-cause mortality.54 Given this, Beholz et al. suggest a preoperative test dosage to assess the patient response to desmopressin prior to intraoperative administration.52 European guidelines recommend desmopressin in trauma patients for those on antiplatelet agents or those with acquired platelet dysfunction.55

Patient Positioning. Patient positioning has been shown to be a simple and effective method of reducing intraoperative blood loss. For example, the prone position, particularly in spine surgery, is noted to cause compression of the inferior vena cava and increased intra-abdominal and intra-thoracic pressure. This results in decreased venous return, cardiac index, and stroke volume. The increased hydrostatic pressure and vessel engorgement leads to increased bleeding at the surgical site.56,57 Increased intra-abdominal pressure can also increase bleeding from vertebral veins during spinal surgery, potentially prolonging surgical time.58 Interventions such as utilizing wide pads, a Jackson table, or applying chest rolls may help decrease intra-abdominal pressure and resulting blood loss.59 A Relton-Hall or Prone Jackson frame also allows the abdominal viscera to hang freely, leading to decreased IVC pressure (Figure 2).60,61 Jack knife positioning has been shown to decrease intra-abdominal pressure and venous bleeding in spinal surgeries.62

Figure 2. Relton-Hall frame and Jack-Knife positioning to decrease blood loss.


Depending on the procedure, other positions have been demonstrated to decrease blood loss. For supine patients, tilting the patient slightly to the left may reduce inferior vena cava compression. Elevating the site of surgery to a level above the heart, when possible, may also reducing bleeding by decreasing venous pressures.

Avoidance of Intraoperative Hypothermia. Hypothermia can increase the amount of blood loss by as much as 16% as well as the risk of wound infection, cardiovascular events, and prolonged recovery time.63 Hypothermia can also cause platelet dysfunction, with even mild perioperative hypothermia associated with increased blood loss and risk of transfusion.64

Hypotensive Anesthesia. Permissive hypotension is a well-documented practice that consists of maintaining mean arterial pressure between 50-65 mm Hg. Multiple studies have demonstrated that this strategy reduces blood loss in patients undergoing orthopaedic surgery and reduces transfusion requirements by as much as 40%.18,65,66 Specifically, effectiveness in scoliosis surgeries has been well-documented, decreasing blood loss as much as 55% and shortening operative time.67,68 While no studies to our knowledge have examined the risks of permissive hypotension, there is a theoretical risk of organ hypoperfusion. Therefore, those with congenital heart disease or signs of low flow states are contraindicated from receiving permissive hypotension. When performing idiopathic spinal deformity surgery, hypotension during surgical approach and implant placement is widely accepted, yet mean arterial blood pressure should be raised when corrective spine manipulations are taken. It may be wise to have higher blood pressures when spinal surgery is more complex or when treating congenital spine deformity.

Autotransfusion. Normovolemic hemodilution consists of the removal of whole blood prior to surgery with simultaneous volume replacement with crystalloid or colloid solutions to a hematocrit of 20-30%. This would dilute the total blood lost during surgery. The blood is then reinfused back into the patient as needed or during closure of the wound. This technique has been well demonstrated in a variety of surgeries including total knee and hip replacements to reduce blood transfusion requirements.69,70

Intraoperative Strategies

Red Blood Cell Salvage. Intraoperative cell salvage is a safe and cost-effective alternative to blood transfusion, reducing the need for transfusion across a variety of surgical specialties.16,39,71,72 Guidelines recommend cell salvage when expected operative blood loss is greater than 500 mL, the amount required for a clinically relevant amount of blood to be reinfused.73 This technique involves collecting blood that is lost during surgery or through wound drains and reinfusing it after centrifugation, washing, and anticoagulation. While many Jehovah’s Witnesses will require the blood to remain in one continuous circuit within their body, some may also accept cell salvage from drains.

Contraindications to cell salvage are debated and risks of cell salvage must be weighed against its benefits. Traditionally, infection, malignancy, and sickle cell disease were relevant contraindications to cell salvage due to concerns for bacteremia, seeding of malignancy and inducing sickling.63,74 However, a study by Waters et al. demonstrated a 99% reduction in bacterial contamination with proper cell washing and leukocyte depletion filtration.75 It is unclear what effect the remaining bacteria may have. Further evidence suggests this technique can also be successfully used to remove tumor cells.74,76 Regarding sickle cell disease, two case reports have demonstrated successful usage during hip arthroplasty and posterior spinal fusion and instrumentation for scoliosis, in which 15-20% of the cells found to be sickled.77,78 Another study reported 50% of cells in a blood sample from a patient with sickle cell disease were sickled prior to transfusion.79 The Association of Anaesthetists of Great Britain and Ireland therefore suggest a blood film to be utilized prior to reinfusion in order to assess for sickling, and that the decision to use this technique should be discussed individually with each patient.80

Topical Hemostatic Agents. Both passive and active topical hemostatic agents exist (Table 3). Passive hemostats, such as cellulose and gelatin, work by promoting platelet activation and producing a matrix at the site of bleeding. They are suitable for patients with an intact coagulation system and are excellent for reducing incisional oozing of blood.81 In coagulopathies, active hemostats such as fibrin sealants can be utilized. Active hemostats are derived from human fibrinogen, have biological activity, and are designed to mimic the last step of coagulation. However, results have been variable, with increased hemostasis in patients undergoing total knee arthroplasty but not in total hip arthroplasty.82 Further investigation is required before effectivity of fibrin sealants can be determined. Furthermore, as they are derived from human fibrinogen, some Jehovah’s Witnesses may not be amenable to their use.83

Table 3. Active and Passive Hemostatic Agents

Active agents Mechanism of Action
Thrombin, thrombin + gelatin, thrombin + collagen Converts fibrinogen into fibrin and also stimulates platelet aggregation
Fibrin sealant Fibrinogen gets transformed into fibrin through the addition of thrombin and factor XIII, mimicking the final step of the coagulation cascade
Passive agents Mechanism of Action
Collagen Attracts platelets which adhere to large fibrils, initiating platelet aggregation
Cellulose Acts similarly to gauze in hemostasis, serving as a bioabsorbable network
Gelatin Mechanical tamponade effect by swelling of gelatin.
Polysaccharides Dehydrates blood, concentrating the solid components in order to increase formation of a barrier for the bleeding
Bovine albumin and glutaraldehyde Binds to proteins of bleeding creating mechanical seal
Polyethylene glycol polymers Absorbs fluids and expands, decreasing bleeding
Cyanoacrylate adhesive Polymerizes in contact with organic proteins, forming a hardened shell on surface

Surgical Considerations. Operative technique may be the single most important factor in blood loss.84 Operative times directly correlate with blood loss in multiple surgeries, including total joint arthroplasty and posterior spinal fusion.84,85 It is therefore important that the surgeon with the greatest expertise performs the procedure. Other possibilities to consider are staged approaches, a dual attending surgery (with the goal of reduced duration of surgery), and use of surgical tools such as tourniquets, electrocautery, argon-beam coagulation, topical hemostatic agents, ultrasonic bone scalpels, and local vasoconstrictive agents86,87 During peak blood loss, packing sponges soaked in adrenaline can be utilized.88 Temporary aortic or intra-iliac balloon occlusions have also been demonstrated to decrease blood loss in sacral tumor resection, acetabulum fracture, joint, and hip arthroplasty.8992 However, this has associated risks of thrombus formation, balloon rupture, or hemodynamic ischemia. Lastly, usage of tourniquets for the purpose of reducing blood loss is controversial, with multiple meta-analyses demonstrating no difference in overall blood loss.93,94 Some studies even suggest that TXA alone is superior to the use of tourniquet.95 Despite this, tourniquets may still be advantageous for improving surgical field of vision.

Postoperative Techniques

Drains. Closed suction drainage is frequently used postoperatively in orthopaedic surgery but is associated with an increased risk of blood transfusions.96 This may be combated with reinfusion of blood from the wound drain (if permitted) but requires timely intervention and reinfusion within 6 hours.97

Increasing Synthesis of Red Blood Cells. Postoperative EPO administration in conjunction with IV iron, vitamin B12, and folate is highly effective in recovery of anemia in Jehovah’s Witnesses.39,98 While there is no defined dosage of erythropoietin for this situation, high doses at 600 μg/kg daily for 7 days or 600 μg/kg every other day have been demonstrated to be effective. Recently developed biomathematical models for predicting hemoglobin changes with iron and EPO supplementation can also be used to predict nutrition requirements and response.99

Red Blood Cell Substitutes. Two main classes of red blood cell substitutes exist but have been found to have significant safety concerns.21,100,101 To our knowledge, no trials have been performed in pediatric populations; therefore, we cannot recommend use of these products at this time.

Reducing Metabolic Demand. A few case reports have demonstrated the usage of deliberate hypothermia in Jehovah’s Witness patients, which reduces metabolic demand in critically ill patients by reducing tissue oxygen requirements.101103 By lowering the body temperature to 30-32 degrees C, total oxygen consumption drops by approximately 48%. Neuromuscular blockade can similarly be used to reduce oxygen utilization. However, benefits of the therapy must be outweighed against the risks, which include cardiac arrhythmias and an association with increased blood loss perioperatively.104,105

Red Blood Cell Replenishment

While the goal is to avoid non-autologous transfusion, it is important to understand when transfusions are indicated. In patients who are not critically ill, there has been demonstrated tolerance of a hemoglobin around 7 g/dL.106 The threshold for anemia tolerance is not known, however. An interventional study by Weiskopf et al. showed adequate oxygenation to tissues in hemoglobin levels as low as 5 g/dL in healthy individuals.107 Experiences with Jehovah’s Witnesses have shown reported survival in cases with postoperative hemoglobin as low as 1.4 g/dL.108 However, this finding should be tempered by another study demonstrating a 2.5 times increase in risk of cardiac side effects with each 1 g/dL reduction in Hb below 8 g/dL.109 Levels below 4–5 g/dL were associated with a 34.4% mortality and 57.7% rate of side effects.109 It is therefore important to keep these thresholds in mind when evaluating actual replenishment needs. Acceptable blood loss can easily be calculated preoperatively with patient weight, patient starting hemoglobin, and tolerable post-operative hemoglobin (Table 4).

Table 4. Allowable Blood Loss Calculation (if estimated to be 50% TBV)

Total Blood Volume (TBV) Allowable Blood Loss (ABL)
Children & male adults 75 mL/kg Weight (kg) × (TBV) × 0.5
Adolescent male 70 mL/kg Weight (kg) × (TBV) × 0.5
Adolescent & adult females 65 mL/kg Weight (kg) × (TBV) × 0.5


Pediatric orthopaedic Jehovah’s Witness patients provide significant ethical challenges. Physicians must be knowledgeable and respectful of the patient and family’s beliefs while doing no harm. We have outlined the ethical and legal issues surrounding care for adolescents and an approach to conversations with patients as well as aimed to provide preoperative, intraoperative, and postoperative strategies for maintaining hemostasis, minimizing blood loss, and increasing anemia tolerance. For high-blood loss cases such as tumor resection, spine and pelvic surgery, multiple osteotomies, and small allowable blood loss cases in young children, we recommend a team approach. Particularly in the case of elective surgery, this may include involvement of not only the orthopaedic surgeon, but also a co-surgeon, anesthesiologist, hematologist, and the hospital ethics committee.

Proper understanding and implementation of the above techniques has allowed complex care of Jehovah’s Witness patients without transfusion with comparable results as patients who have had transfusion.110 Risk of death and outcomes for Jehovah’s Witnesses after major trauma is now similar when compared to patients amongst other religious groups.111 In orthopaedic surgery, these techniques have been used in pediatric Jehovah’s Witnesses undergoing spinal deformity surgeries without any intraoperative complications.112 With the use of frequent communication with families, multidisciplinary preoperative planning, and blood conservation techniques, major orthopaedic surgeries can be completed successfully in pediatric Jehovah’s Witnesses while respecting their beliefs.


No funding was received. The authors have no conflicts of interest to disclose pertaining to this manuscript.

Additional Links


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