Myth: “Each Person Requires the Same Dose of Steroid in Order to Survive…

Myth: “Each person requires the same dose of steroid in order to survive with Secondary or Primary Adrenal Insufficiency”

myth-busted

Fact: In simple terms, Adrenal Insufficiency occurs when the body does not have enough cortisol in it. You see, cortisol is life sustaining and we actually do need cortisol to survive. You have probably seen the commercials about “getting rid of extra belly fat” by lowering your cortisol. These advertisements make it hard for people to actually understand the importance of the function of cortisol.

After a Cushing’s patient has surgery, he/she goes from having very high levels of cortisol to no cortisol at all. For pituitary patients, the pituitary, in theory, should start working eventually again and cause the adrenal glands to produce enough cortisol. However, in many cases; the pituitary gland does not resume normal functioning and leaves a person adrenally insufficient. The first year after pit surgery is spent trying to get that hormone to regulate on its own normally again. For a patient who has had a Bilateral Adrenalectomy (BLA), where both adrenal glands are removed as a last resort to “cure” Cushing’s; his/her body will not produce cortisol at all for his/her life. This causes Primary Adrenal Insufficiency.

All Cushing’s patients spend time after surgery adjusting medications and weaning slowly from steroid (cortisol) to get the body to a maintenance dose, which is the dose that a “normal” body produces. This process can be a very long one. Once on maintenance, a patient’s job is not over. He/She has to learn what situations require even more cortisol. You see, cortisol is the stress hormone and also known as the Fight or Flight hormone. Its function is to help a person respond effectively to stress and cortisol helps the body compensate for both physical and emotional stress. So, when faced with a stressor, the body will produce 10X the baseline levels in order to compensate. When a person can not produce adequate amounts of cortisol to compensate, we call that Adrenal Insufficiency. If it gets to the point of an “Adrenal Crisis”, this means that the body can no longer deal and will go into shock unless introduced to extremely high levels of cortisol, usually administered through an emergency shot of steroid.

There are ways to help prevent a crisis, by taking more steroid than the maintenance dose during times of stress. This can be anything from going to a family function (good stress counts too) to fighting an infection or illness. Acute stressors such as getting into a car accident or sometimes even having a really bad fight require more cortisol as well.

It was once believed that everyone responded to every stressor in the exact same way. So, there are general guidelines about how much more cortisol to introduce to the body during certain stressors. For instance, during infection, a patient should take 2-3X the maintenance dose of steroid (cortisol). Also, even the maintenance dose was considered the same for everyone. Now a days, most doctors will say that 20 mg of Hydrocortisone (Steroid/Cortisol) is the appropriate maintenance dose for EVERYONE. Now, we know that neither is necessarily true. Although the required maintenance dose is about the same for everyone; some patients require less and some require more. I have friends who will go into an adrenal crisis if they take LESS than 30 mg of daily steroid. On the other hand, 30 mg may be way too much for some and those folks may even require LESS daily steroid, like 15 mg. Also, I want to stress (no pun intended) that different stressors affect different people differently. For some, for instance, an acute scare may not affect them. However, for others, receiving bad news or being in shock WILL put their bodies into crisis. That person must then figure out how much additional steroid is needed.

Each situation is different and each time may be different. Depending on the stressor, a person may need just a little more cortisol or a lot. Every person must, therefore, learn their own bodies when dealing with Adrenal Insufficiency. This is VERY important! I learned this the hard way. As a Clinical Psychologist; I assumed that my “coping skills” would be enough to prevent a stressor from putting me into crisis. That was FAR from the truth! I have learned that I can not necessarily prevent my body’s physiological response to stress. People often ask me, “BUT you are a psychologist! Shouldn’t you be able to deal with stress?!!!!” What they don’t realize is that my BODY is the one that has to do the job of compensating. Since my body can not produce cortisol at all, my job is to pay close attention to it so that I can take enough steroid to respond to any given situation. We all have to do that. We all have to learn our own bodies. This is vitally important and will save our lives!

To those we have lost in our community to Adrenal Insufficiency after treatment of Cushing’s, Rest in Peace my friends! Your legacies live on forever!

~ By Karen Ternier Thames

Elvis, steriod-induced Cushing’s

This is an interesting article…

From http://www.dailymail.co.uk/news/article-1243063/They-called-The-Man-Who-Killed-Elvis-Now-stars-doctor-finally-reveals-true-madness-Kings-final-days.html

..The doctor’s first thought was that Elvis had had a seizure and he injected him with a stimulant to improve his breathing. Then he and Elvis’s manager dragged him into the ensuite bathroom and managed to get him into the bath, which they filled with cold water. Soon they were dressing him in his stage clothes.

Incredibly Elvis managed to perform that night, leaving Dr Nick determined to find out what had caused the handsome man he first met to degenerate into the bloated figure he had become.

Elvis himself refused to give him any clues. Finally, one of his problems was revealed – he and Priscilla were getting divorced. Three days after the final decree was issued in California, the singer, in worse condition than he had ever been, chartered a plane back to Graceland and called for Dr Nick.

This time the doctor arrived to find his patient’s face puffy, pink and almost transparent, and his stomach distended. He suspected either an allergic reaction or heart failure, especially since heart disease ran in the family.

Hospital tests established that Elvis had hepatitis, an enlarged liver ( possibly from painkillers) and Cushing’s syndrome. The last was a hormonal disease that caused bloating, and was down to the many steroids he had been taking to combat the asthma that ran in the family and his ongoing colon problems.

When Dr Nick asked him why he was also covered in bruises, Elvis tried to tell him the marks were from acupuncture needles. Finally he confessed that a couple of Beverly Hills physicians had prescribed the narcotic Demerol to cure back and neck pain, and Novocaine to reduce the pain at the injection sites…

What do you think?

Skeletal Maturation in Children With Cushing’s Syndrome is Not Consistently Delayed

Skeletal maturation in children with cushing syndrome is not consistently delayed: The role of corticotropin, obesity, and steroid hormones, and the effect of surgical cure.

J Pediatr. 2014 Jan 9. pii: S0022-3476(13)01500-X. doi: 10.1016/j.jpeds.2013.11.065. [Epub ahead of print]

The Journal of Pediatrics, 01/22/2014 Clinical Article

Lodish MB, et al. – The aim of this study is to assess skeletal maturity by measuring bone age (BA) in children with Cushing syndrome (CS) before and 1–year after transsphenoidal surgery or adrenalectomy, and to correlate BA with hormone levels and other measurements. Contrary to common belief, endogenous CS in children appears to be associated with normal or even advanced skeletal maturation. When present, BA advancement in CS is related to obesity, insulin resistance, and elevated adrenal androgen levels and aromatization. This finding may have significant implications for treatment decisions and final height predictions in these children.

Methods

  • This case series conducted at the National Institutes of Health Clinical Center included 93 children with Cushing disease (CD) (43 females; mean age, 12.3 ± 2.9 years) and 31 children with adrenocorticotropic hormone–independent CS (AICS) (22 females, mean age 10.3 ± 4.5 years).
  • BA was obtained before surgery and at follow-up.
  • Outcome measures were comparison of BA in CD vs AICS and analysis of the effects of hypercortisolism, insulin excess, body mass index, and androgen excess on BA.

Results

  • Twenty-six of the 124 children (21.0%) had advanced BA, compared with the expected general population prevalence of 2.5% (P < .0001). Only 4 of 124 (3.2%) had delayed BA.
  • The majority of children (76%) had normal BA.
  • The average BA z-score was similar in the children with CD and those with AICS (0.6 ± 1.4 vs 0.5 ± 1.8; P = .8865).
  • Body mass index SDS and normalized values of dehydroepiandrosterone, dehydroepiandrosterone sulfate, androsteonedione, estradiol, and testosterone were all significantly higher in the children with advanced BA vs those with normal or delayed BA.
  • Fifty-nine children who remained in remission from CD had follow-up BA 1.2 ± 0.3 years after transsphenoidal surgery, demonstrating decreased BA z-score (1.0 ± 1.6 vs 0.3 ± 1.4; P < .0001).

From http://www.ncbi.nlm.nih.gov/pubmed/24412141

Welcome!

This site is provided at no charge by the Cushings Help Organization, Inc. for Cushing’s patients, friends and family – or anyone who wants to learn more about Cushing’s.

What is Cushing’s?

Cushing’s syndrome, also known as hypercortisolism or hyperadrenocorticism, is an endocrine disorder caused by prolonged exposure of the body’s tissues to high levels of the hormone cortisol (in the blood) from a variety of causes, including primary pituitary adenoma (known as Cushing’s disease), primary adrenal hyperplasia or neoplasia, ectopic ACTH production (e.g., from a small cell lung cancer), and iatrogenic (steroid use). It is relatively rare and most commonly affects adults aged 20 to 50. An estimated 10 to 15 of every million people are affected each year. Cushing’s was discovered by American physician, surgeon and endocrinologist Harvey Cushing (1869-1939) and reported by him in 1932.

Normally, cortisol is released from the adrenal glands in response to ACTH being released from the pituitary gland. Both Cushing’s syndrome and Cushing’s disease are characterized by elevated levels of cortisol in the blood, but the cause of elevated cortisol differs between the two.

  • Cushing’s disease specifically refers to a tumor in the pituitary gland that stimulates excessive release of cortisol from the adrenal glands by releasing large amounts of ACTH.
  • In Cushing’s syndrome, ACTH levels will normally drop due to negative feedback from the high levels of cortisol. All forms of Cushing’s are correctly called Cushing’s Syndrome.

Cushing’s syndrome occurs when the body’s tissues are exposed to excessive levels of cortisol for long periods of time. Cortisol helps maintain blood pressure and cardiovascular function and is responsible for helping the body respond to stress. Many people suffer the symptoms of Cushing’s syndrome because they take steroids such as prednisone for asthma, rheumatoid arthritis, lupus and other inflammatory diseases, or for immunosuppression after transplantation. Prednisone is well-known for a “bloating” look that it gives people who take it.

Others develop Cushing’s syndrome because of overproduction of cortisol by the body due to a tumor on the pituitary (usually an adenoma or benign tumor of the pituitary glands) or adrenal glands, or elsewhere in the body Adrenal cancers, or other adrenal abnormalities may be the cause of Cushing’s Syndrome as well.

People who have been diagnosed with depression, alcoholism, malnutrition and panic attacks tend to have higher cortisol levels as well. These types of Cushing’s may be called Pseudo-Cushing’s.

Symptoms vary, but most people have upper body obesity (central obesity), rounded face (“moon face”), increased fat around the neck and on the back of the neck (buffalo hump), and thinning arms and legs. Children tend to be obese with slowed growth rates.

Other symptoms appear in the skin, which becomes fragile and thin. It bruises easily and heals poorly. Purplish pink stretch marks (straie) may appear on the abdomen, thighs, buttocks, arms and breasts. The bones are weakened, and routine activities such as bending, lifting or rising from a chair may lead to backaches, rib and spinal column fractures.

Most people have severe fatigue, weak muscles, persistent hypertension (due to the aldosterone-like effects) and insulin resistance, leading to hyperglycemia (high blood sugars) which can lead to diabetes mellitus. Patients frequently suffer various psychological disturbances, ranging from euphoria to frank psychosis. Depression and anxiety, including panic attacks, are common.

Women usually have excess hair growth (hirsutism) on their faces, necks, chests, abdomens, and thighs. Their menstrual periods may become irregular or stop (amenorrhoea). Men have decreased fertility with diminished or absent desire for sex.

Other symptoms include excess sweating, telangiectasia (dilation of capillaries, spider veins), atrophy of the skin (which gets thin and bruises easily) and other mucous membranes, proximal muscle weakness (hips, shoulders).

The excess cortisol may also affect other endocrine systems and cause, for example, reduced libido, impotence and infertility.

Untreated Cushing’s syndrome can lead to heart disease and increased mortality. Excess ACTH may also result in hyperpigmentation of the skin.

For a more complete list of Cushing’s Symptoms, see the Cushing’s Checklist. Many tests are done to determine if a person has Cushing’s. You can find a listing of them here.

The message boards are very active and we have weekly online chats, local meetings, email newsletters, a clothing exchange, a Cushing’s Awareness Day Forum in honor of Dr. Harvey Cushing’s birthday April 8, phone support and much more. Whenever one of the members of the boards gets into NIH, we try to go to visit them there. Other board members participate in the “Cushie Helper” program where they support others with one-on-one support, doctor/hospital visits, transportation issues and more.

Who Gets Cushing’s?

People just like you!

Cushing’s Syndrome in a Young Woman Due to Prolonged Betamethasone Nasal Drop Use

Abstract

Background

Cushing’s syndrome is an uncommon but serious condition caused by long-term exposure to elevated cortisol levels, which is usually iatrogenic in origin. Although systemic corticosteroids are the most frequent agents, the association of intranasal corticosteroids with this condition is remarkably rare.

Case presentation

This report is about a 21-year-old Iranian woman using betamethasone nasal drops for nasal obstruction. The patient presented with weight gain, Amenorrhea, mood disturbances, red purplish striae, and mild hirsutism. Hormonal assessments revealed suppression of the hypothalamic–pituitary–adrenal axis.

Conclusion

This case demonstrates the underappreciated systemic effects of intranasal betamethasone to induce Cushing’s syndrome. It serves as a pivotal reminder of the need for vigilance in prescribing practices and reinforces the importance of early diagnosis to ensure favorable patient outcomes.

Peer Review reports

Background

Iatrogenic Cushing’s syndrome (CS) is an endocrine disease caused by long-term or high-dose glucocorticoid use [1]. Although iatrogenic cases are commonly associated with oral or injectable glucocorticoids [2], few reports described CS after the use of intranasal steroid sprays (INS) such as betamethasone in adults [3,4,5,6,7]. Currently, INS is widely used for managing conditions such as allergic rhinitis, nasal polyposis, and other upper airway disorders owing to their localized effects and limited systemic absorption [89]. However, prolonged use, high doses, or using potent formulations can lead to significant systemic absorption, resulting in Hypothalamic–pituitary–adrenal (HPA) axis suppression, and frank CS [10]. Betamethasone nasal spray, a cornerstone in the treatment of nasal congestion, has the potential for systemic absorption by the nasal mucosa, particularly with prolonged or excessive use [11].

This report presents the case of a young woman who developed CS following the overuse of betamethasone nasal drops. It also highlights the importance of detailed patient histories when diagnosing CS and highlights the critical need to educate patients on the proper use and potential risks of steroid therapies to prevent complications. This case report adheres to the case report (CARE) guidelines [12].

Case presentation

This is the case of a 21-year-old Iranian female who presented with a history of rapid weight gain (30 kg in 8 months), irregular menstrual cycles, and significant mood changes. Her body mass index (BMI) was calculated at 40.07 kg/m2, classifying her as obese, and her blood pressure was recorded at 115/75 mmHg. In addition, she exhibited red–purple striae on her abdomen and limbs and mild hirsutism (modified Ferriman–Gallwey Score (FGS) score = 10), prompting admission for further evaluation after multiple outpatient visits yielded no definitive diagnosis.

Figure 1 is a clinical photograph (with patient consent) or an illustration of the red–purple striae.

Fig. 1

figure 1

Clinical photograph showcasing the red–purplish striae on the patient’s abdomen, arms, and lower limbs

Upon admission, the patient’s history revealed prolonged use of betamethasone 0.1% 1 mg/mL nasal drops, administered at a daily dosage of 5 cc, in combination with oxymetazoline (a sympathomimetic nasal preparation) at a daily dosage of 1 cc, over approximately 12 months, to address nasal obstruction. Her symptoms began 6 months after starting the nasal drops. Further medication history revealed no other corticosteroid use. Notably, the patient had a past diagnosis of polycystic ovary (PCO) syndrome made on the basis of Rotterdam 2003 criteria (oligomenorrhea since menarche and clinically androgen excess) but did not undergo treatment or maintain laboratory records.

A detailed hormonal evaluation was undertaken. Morning plasma cortisol less than 0.05 µg/dL and adrenocorticotropic hormone (ACTH) less than 5 (10–56 pg/mL) measurements were abnormally low. Her 24-hour urine-free cortisol concentrations of 1.04 µg/24 h were significantly reduced, indicating suppression of the HPA axis secondary to prolonged exogenous corticosteroid exposure. All tests were repeated several times by endocrinologists during the time course of disease manifestations.

Table 1 summarizes the hormonal test results to clearly display the abnormalities.

Table 1 Hormonal and biochemical test results with reference values

Imaging studies before admission included a computed tomography (CT) scan of the adrenal glands, which showed that both adrenal glands were of normal size. However, a dynamic pituitary magnetic resonance imaging (MRI) revealed an 11 mm pituitary gland, despite there being no rationale for imaging studies in this scenario.

The patient was counseled extensively about the condition, and betamethasone nasal drops were discontinued immediately. Ear, nose, and throat (ENT) consultation revealed normal findings and the psychiatric team diagnosed her with major depressive disorder (MDD). She was discharged on 15 mg prednisolone with a structured tapering plan to allow for gradual recovery of adrenal function and to prevent acute adrenal insufficiency. Follow-up appointments were scheduled to monitor her clinical progress and re-evaluate her HPA axis recovery.

Discussion

This case highlights the rare but significant occurrence of iatrogenic CS secondary to prolonged use of intranasal betamethasone. Although oral corticosteroids are well-known to cause HPA axis suppression, INS is generally considered safer owing to their localized effects and lowering systemic absorption side effects. However, the associated potential of systemic absorption in INS remains a concern [13]. As demonstrated in this case, prolonged use of potent formulations such as betamethasone can lead to significant systemic effects, particularly when administered inappropriately or at high doses.

Betamethasone nasal drops, although effective for treating nasal congestion and inflammation [1415], carry a potential risk of systemic absorption through the nasal mucosa. Factors, such as prolonged use [61617], and high potency [18], can significantly increase systemic bioavailability. R. J. Perry et al. [19] in study of seven children highlights that even patients receiving doses within conventional safety ranges may exhibit varying sensitivity to glucocorticoids, leading to symptomatic adrenal suppression or glucocorticoid excess. Unlike newer corticosteroid compounds, such as fluticasone or mometasone, which undergo extensive first-pass metabolism in the liver, betamethasone exhibits minimal hepatic metabolism, contributing to its prolonged systemic activity [2021]. This pharmacokinetic profile underscores the need for careful regulation and monitoring of its use, even in ostensibly localized therapies.

The clinical manifestations in this patient, including central obesity, striae, hirsutism, and mood changes, were classic features of CS and guided the diagnostic process [22]. Scutelnicu et al. [23] reported a case of a patient in the second trimester of pregnancy who, owing to chronic sinusitis, underwent intranasal betamethasone spray therapy. The patient manifested extensive striae on the lower limbs, as well as edema in the legs, arms, and face, accompanied by a weight gain of 22 kg over 3 months. After switching the patient’s treatment to an alpha-1 adrenergic agonist spray, the condition was managed uneventfully without any symptoms of adrenal insufficiency.

Requesting imaging assessments, including a CT scan and MRI, as a first step further complicated the diagnostic process. This highlights a common diagnostic pitfall: the use of imaging as an initial approach can lead to the discovery of incidentalomas, which may misdirect clinical attention. Such findings risk overshadowing the primary etiology of the condition, potentially resulting in misdiagnosis or delayed treatment. This emphasizes the importance of prioritizing functional assessments over imaging in the early diagnostic workup to avoid unwarranted diagnostic confusion and ensure accurate identification of the underlying pathology.

Management involved the immediate cessation of betamethasone nasal drops and initiation of a structured tapering regimen with prednisolone to support adrenal recovery. The importance of stress-dose precautions during intercurrent illnesses was emphasized, alongside comprehensive patient education to prevent future misuse of corticosteroids. The gradual improvement in adrenal function during follow-up highlights the reversibility of glucocorticoid-induced adrenal suppression with appropriate intervention.

Conclusion

This case underscores several critical lessons. First, it emphasizes the importance of heightened awareness among healthcare providers regarding the potential systemic effects of topical corticosteroids, particularly potent formulations such as betamethasone. Second, it highlights the need for thorough history-taking and detailed patient education to prevent corticosteroid misuse. This report contributes to the limited body of literature on iatrogenic CS from intranasal corticosteroids, particularly in adults. Documenting the clinical presentation, diagnostic challenges, and successful management of this case, provides valuable insights into preventing, recognizing, and treating similar cases. It serves as a reminder of the delicate balance between therapeutic benefit and potential harm in corticosteroid therapy and advocates for ongoing research to establish safer prescribing practices.

Data availability

The data analyzed and generated in this study can be accessed through the corresponding author upon reasonable request.

Abbreviations

CS:
Cushing’s syndrome
INS:
Intranasal corticosteroids
HPA axis:
Hypothalamic–pituitary–adrenal axis
BMI:
Body mass index
FGS:
Ferriman–Gallwey Score
PCO:
Polycystic ovary
ACTH:
Adrenocorticotropic hormone
CT:
Computed tomography
MRI:
Magnetic resonance imaging
ENT:
Ear, nose, and throat
MDD:
Major depressive disorder

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Acknowledgements

Not applicable.

Funding

Not Applicable.

Author information

Authors and Affiliations

  1. Gastrointestinal and Liver Diseases Research Center, Iran University of Medical Sciences, Tehran, Iran

    Mohammadsadra Shamohammadi

  2. M.D., Endocrinologist Assistant Professor of Internal Medicine Assistant Professor of Internal Medicine, Iran University of Medical Sciences at Rasool Akram General Hospital, Tehran, Iran

    Delaram Eskandari

  3. Professor of Endocrinology Department of Endocrinology, Rasool Akram Medical Complex, School of Medicine, Iran University of Medical Sciences, Tehran, Iran

    Amir Ziaee

  4. Assistant Professor of Endocrinology & Metabolism Department of Internal Medicine, School of Medicine Hazrat-e Rasool General Hospital Iran University of Medical Sciences Medical Doctor at Iran University of Medical Sciences, Tehran, Iran

    Seyed Hossein Samadanifard

  5. Assistant Professor of Endocrinology & Metabolism Department of Internal Medicine, School of Medicine, Iran University of Medical Sciences, Tehran, Iran

    Haleh Chehrehgosha

  6. M.D., Endocrinologist Assistant Professor of Internal Medicine Assistant Professor of Internal Medicine, Iran University of Medical Sciences at Rasool Akram General Hospital, Tehran, Iran

    Amir Hossein Ghanooni

Contributions

MS and DE wrote the original draft; AZ and SHS collected the data. DE and HC were the patient’s doctors; MS and AHG reviewed, edited, and supervised the manuscript. All authors have read and approved the final version of the manuscript.

Corresponding author

Correspondence to Delaram Eskandari.

Ethics declarations

Ethics approval and consent to participate

This study was conducted in accordance with ethical guidelines and was approved by the Research Ethics Committee of Iran University of Medical Sciences under approval number IR.IUMS.REC.1404.208.

Consent for publication

Written informed consent was obtained from the patient for publication of this case report and any accompanying images. A copy of the written consent is available for review by the Editor-in-Chief of this journal.

Competing interests

The authors declare that they have no competing interests.

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