Acute Pancreatitis Associated With Cushing Syndrome

Highlights

• There is a highs suspicion of acute pancreatitis complications for patients with Cushing syndrome.

• Corticosteroids are a common cause for both Cushing syndrome and acute pancreatitis.

• There are many common etiologies between Cushing syndrome and acute pancreatitis.

• Cushing syndrome is a risk factor of acute pancreatitis, need further detailed studies.

Abstract

Introduction

Cushing’s syndrome (CS) is a rare and severe disease. Acute pancreatitis is the leading cause of hospitalization. The association of the two disease is rare and uncommon. We report the case of a 37-year-old woman admitted in our service for acute pancreatitis and whose Cushing syndrome was diagnosed during hospiatilisation. The aim of this work is to try to understand the influence of de Cushing in acute pancreatitis and to establish a causative relationship between the two diseases.

Observation

It is a 37-year-old woman with a history of corticosteroid intake for six months, stopped three months ago who consulted for epigastralgia and vomiting. The physical exam found epigastric sensitivity with Cushing syndrome symptoms. A CT scan revealed acute edematous-interstitial pancreatitis stage E of Balthazar classification. 24 h free cortisol of 95 μg/24 h and cortisolemia of 3.4 μg/dl. The patient was treated symptomatically and referred after to endocrinology service for further treatment.

Conclusion

The association with acute pancreatitis and CS is rare and uncommon. Although detailed studies and evidence are lacking, it can therefore be inferred that CS is one of the risk factors for the onset of acute pancreatitis. The medical treatment and management of acute pancreatitis in those patients do not differ from other pancreatitis of any etiologies.

Read the article here.

Endocrine Society experts call for expanded screening for primary aldosteronism

Washington, DC–The Endocrine Society today issued a Clinical Practice Guideline calling on physicians to ramp up screening for primary aldosteronism, a common cause of high blood pressure.

People with primary aldosteronism face a higher risk of developing cardiovascular disease and dying from it than other people with high blood pressure. As many as one in ten people with high blood pressure may have primary aldosteronism. Uncontrolled high blood pressure can put these individuals at risk for stroke, heart attack, heart failure or kidney failure.

The guideline, entitled “The Management of Primary Aldosteronism: Case Detection, Diagnosis, and Treatment: An Endocrine Society Clinical Practice Guideline,” was published online and will appear in the May 2016 print issue of The Journal of Clinical Endocrinology & Metabolism (JCEM), a publication of the Endocrine Society. The guideline updates recommendations from the Society’s 2008 guideline on primary aldosteronism.

“In the past eight years, we have come to recognize that primary aldosteronism, despite being quite common, frequently goes undiagnosed and untreated,” said John W. Funder, MD, PhD, of the Hudson Institute of Medical Research in Clayton, Australia, and chair of the task force that authored the guideline. “This is a major public health issue. Many people with primary aldosteronism are never screened due to the associated costs. Better screening processes are needed to ensure no person suffering from primary aldosteronism and the resulting risks of uncontrolled high blood pressure goes untreated.”

Primary aldosteronism occurs when the adrenal glands — the small glands located on the top of each kidney – produce too much of the hormone aldosterone. This causes aldosterone, which helps balance levels of sodium and potassium, to build up in the body. The resulting excess sodium can lead to a rise in blood pressure.

The Endocrine Society recommends primary aldosterone screening for people who meet one of the following criteria:

  • Those who have sustained blood pressure above 150/100 in three separate measurements taken on different days;
  • People who have hypertension resistant to three conventional antihypertensive drugs;
  • People whose hypertension is controlled with four or more medications;
  • People with hypertension and low levels of potassium in the blood;
  • Those who have hypertension and a mass on the adrenal gland called an adrenal incidentaloma;
  • People with both hypertension and sleep apnea;
  • People with hypertension and a family history of early-onset hypertension or stroke before age 40; and
  • All hypertensive first-degree relatives of patients with primary aldosteronism.

Other recommendations from the guideline include:

  • The plasma aldosterone-to-renin ratio (ARR) test should be used to screen for primary aldosteronism.
  • All patients diagnosed with primary aldosteronism should undergo a CT scan of the adrenal glands to screen for a rare cancer called adrenocortical carcinoma.
  • When patients choose to treat the condition by having one adrenal gland surgically removed, an experienced radiologist should take blood samples from each adrenal vein and have them analyzed. This procedure, called adrenal vein sampling, is the gold standard for determining whether one or both adrenal glands is producing excess aldosterone.
  • For people with primary aldosteronism caused by overactivity in one adrenal gland, the recommended course of treatment is minimally invasive surgery to remove that adrenal gland.
  • For patients who are unable or unwilling to have surgery, medical treatment including a mineralocorticoid receptor (MR) agonist is the preferred treatment option.

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The Hormone Health Network offers resources on primary aldosteronism athttp://www.hormone.org/questions-and-answers/2012/primary-aldosteronism.

Other members of the Endocrine Society task force that developed this guideline include: Robert M. Carey, of the University of Virginia Health System in Charlottesville, VA; Franco Mantero of the University of Padova in Padua, Italy; M. Hassan Murad of the Mayo Clinic in Rochester, MN; Martin Reincke of the Klinikum of the Ludwig-Maximilians-University of Munich in München, Bavaria, Germany; Hirotaka Shibata of Oita University in Oita, Japan; Michael Stowasser of the University of Queensland in Brisbane, Australia; and William F. Young, Jr. of the Mayo Clinic in Rochester, MN.

The Society established the Clinical Practice Guideline Program to provide endocrinologists and other clinicians with evidence-based recommendations in the diagnosis and treatment of endocrine-related conditions. Each guideline is created by a task force of topic-related experts in the field. Task forces rely on evidence-based reviews of the literature in the development of guideline recommendations. The Endocrine Society does not solicit or accept corporate support for its guidelines. All Clinical Practice Guidelines are supported entirely by Society funds.

The Clinical Practice Guideline was co-sponsored by the American Heart Association, the American Association of Endocrine Surgeons, the European Society of Endocrinology, the European Society of Hypertension, the International Association of Endocrine Surgeons, the International Society of Hypertension, the Japan Endocrine Society and The Japanese Society of Hypertension.

The guideline was published online at http://press.endocrine.org/doi/10.1210/jc.2015-4061, ahead of print.

Endocrinologists are at the core of solving the most pressing health problems of our time, from diabetes and obesity to infertility, bone health, and hormone-related cancers. The Endocrine Society is the world’s oldest and largest organization of scientists devoted to hormone research and physicians who care for people with hormone-related conditions.

The Society, which is celebrating its centennial in 2016, has more than 18,000 members, including scientists, physicians, educators, nurses and students in 122 countries. To learn more about the Society and the field of endocrinology, visit our site at http://www.endocrine.org. Follow us on Twitter at @TheEndoSociety and @EndoMedia.

Disclaimer: AAAS and EurekAlert! are not responsible for the accuracy of news releases posted to EurekAlert! by contributing institutions or for the use of any information through the EurekAlert system.

From http://www.eurekalert.org/pub_releases/2016-04/tes-ese042616.php

Ectopic adrenocorticotropic hormone syndrome caused by neuroendocrine tumors of the thymus

Background and purpose: Thymic neuroendocrine carcinomas (TNECs) are extremely uncommon. Certain cases of TNECs can produce the adrenocorticotropic hormone (ACTH) and cause ectopic ACTH syndrome (EAS). The current literature on this topic consists mainly of case reports, and therapeutic guidelines are lacking. The aim of this study was to discuss the diagnosis, surgical management, and prognosis of EAS caused by TNECs to improve clinical experience with this rare disease.

Methods: From June 1984 to June 2014, at the Peking Union Medical College Hospital, the surgical interventions and follow-up outcomes of 16 consecutive patients (eight men and eight women) with EAS caused by TNECs were retrospectively analyzed.

Results: The median age was 32.5 years (range: 13–47 years), and the median disease duration was 8.5 months (range: 1–150 months). All patients presented with clinical and biochemical evidence indicating a diagnosis of Cushing’s syndrome.

Contrast-enhanced thoracic computed tomography scans were critical to locating the ACTH-producing tumor and evaluating the feasibility of resection. All patients underwent surgery. One patient died of septicemia in the intensive care unit 2 weeks after surgery. No other morbidity or mortality occurred during the perioperative period. The median overall survival (OS) was 41 months (95% CI: 30.3–51.7 months), and the progression-free survival was 28 months (95% CI: 21.6–34.3 months). Both overall survival (P=0.002) and progression-free survival (P=0.030) improved significantly after complete resection.

Conclusion: TNEC is an extremely aggressive disease that should be considered when treating patients with Cushing’s syndrome due to ectopic ACTH secretion. In particular, all suspected patients should undergo contrast-enhanced thoracic computed tomography scans to facilitate early diagnosis. The current first-line treatment is surgical resection, and complete resection is a favorable prognostic factor. However, additional patients and a longer follow-up will be needed to determine the variables that are predictive of survival and to improve patient prognosis.

Download this article at https://www.dovepress.com/ectopic-adrenocorticotropic-hormone-syndrome-caused-by-neuroendocrine–peer-reviewed-article-OTT

Comparison of MRI techniques for detecting microadenomas in Cushing’s disease

1Department of Neurological Surgery and 2Department of Radiology, University of Virginia Health Science Center, University of Virginia, Charlottesville, Virginia
ABBREVIATIONS ACTH = adrenocorticotropic hormone; CMRI = conventional MRI; DMRI = dynamic contrast-enhanced MRI; FSH = follicle-stimulating hormone; IPSS = inferior petrosal sinus sampling; SE = spin echo; SGE = spoiled-gradient echo 3D T1 sequence; SPGR = spoiled gradient–recalled acquisition; VIBE = volumetric interpolated breath-hold examination.

INCLUDE WHEN CITING Published online April 28, 2017; DOI: 10.3171/2017.3.JNS163122.

Correspondence Edward H. Oldfield, Department of Neurological Surgery, University of Virginia, Box 800212, Charlottesville, VA 22908. email: .
OBJECTIVE

Many centers use conventional and dynamic contrast-enhanced MRI (DMRI) sequences in patients with Cushing’s disease. The authors assessed the utility of the 3D volumetric interpolated breath-hold examination, a spoiled-gradient echo 3D T1 sequence (SGE) characterized by superior soft tissue contrast and improved resolution, compared with DMRI and conventional MRI (CMRI) for detecting microadenomas in patients with Cushing’s disease.

METHODS

This study was a blinded assessment of pituitary MRI in patients with proven Cushing’s disease. Fifty-seven patients who had undergone surgery for Cushing’s disease (10 male, 47 female; age range 13–69 years), whose surgical findings were considered to represent a microadenoma, and who had been examined with all 3 imaging techniques were included. Thus, selection emphasized patients with prior negative or equivocal MRI on referral. The MRI annotations were anonymized and 4 separate imaging sets were independently read by 3 blinded, experienced clinicians: a neuroradiologist and 2 pituitary surgeons.

RESULTS

Forty-eight surgical specimens contained an adenoma (46 ACTH-staining adenomas, 1 prolactinoma, and 1 nonfunctioning microadenoma). DMRI detected 5 adenomas that were not evident on CMRI, SGE detected 8 adenomas not evident on CMRI, including 3 that were not evident on DMRI. One adenoma was detected on DMRI that was not detected on SGE. McNemar’s test for efficacy between the different MRI sets for tumor detection showed that the addition of SGE to CMRI increased the number of tumors detected from 18 to 26 (p = 0.02) based on agreement of at least 2 of 3 readers.

CONCLUSIONS

SGE shows higher sensitivity than DMRI for detecting and localizing pituitary microadenomas, although rarely an adenoma is detected exclusively by DMRI. SGE should be part of the standard MRI protocol for patients with Cushing’s disease.

Full text at http://thejns.org/doi/full/10.3171/2017.3.JNS163122

Medical ID Jewelry Often Lacks Clear Instructions For Adrenal Insufficiency

Rushworth RL, et al. Clin Endocrinol. 2019;doi:10.1111/cen.13985.

Only 4.8% of patients with adrenal insufficiency who use medical identification jewelry clearly indicate on their emblem the need for urgent parenteral hydrocortisone in the event of an adrenal crisis, potentially jeopardizing the ability to receive proper assistance in an emergency, according to a cross-sectional analysis published in Clinical Endocrinology.

“Although the use of medical identification jewelry is recommended for patients with adrenal insufficiency to assist in the prevention and treatment of an adrenal crisis, the results of this study indicate that this advice is taken up by only a modest proportion of patients,” R. Louise Rushworth, MBBS, PhD, FAFPHM, an adjunct professor and medical epidemiologist at the School of Medicine, Sydney, and the University of Notre Dame Australia, told Endocrine Today. “Patients with secondary adrenal insufficiency have a lower uptake than those with primary adrenal insufficiency despite their risk of an adrenal crisis approaching that people with primary adrenal insufficiency.”

In a cross-sectional analysis, Rushworth and colleagues analyzed data from 1,955 patients with adrenal insufficiency aged at least 20 years with an active subscription to a large medical jewelry provider (MedicAlert) as of September 2018. The researchers calculated subscription rates by adrenal insufficiency subtype, geographic area, age and sex using relevant population data.

The overall subscription rate was 105.79 per million, representing approximately one-third of the estimated 300 per million patients with adrenal insufficiency in the population, according to researchers. Among subscribers, 57.4% had primary adrenal insufficiency and 15.1% had a diagnosis of congenital adrenal hyperplasia. The overall subscription rate for patients with primary adrenal insufficiency was 61.72 per million, or 61.7% of the approximately 100 per million patients with primary adrenal insufficiency in the Australian population, according to researchers.

Researchers observed considerable differences in subscription rates based on geographic region, patient age and sex. Western Australia had an overall subscription rate (247 per million) that was more than four times higher than Victoria, the state with the lowest subscription rate (60.87 per million; P < .0001). Patients aged 60 to 69 years had the highest subscription rate (165.15 per million), whereas patients aged 30 to 39 years had the lowest rate (47.23 per million; P < .001). Additionally, most subscribers reporting primary adrenal insufficiency were women (69%).

The researchers found that hydrocortisone was the most common replacement therapy (41.6%), followed by cortisone acetate (25.6%) and prednisone (16.3%). They noted that few patients — only 4.8% — clearly mentioned the need for urgent parenteral hydrocortisone in the event of severe illness.

Rushworth said most patients who used medical identification jewelry did not have clear emergency instructions inscribed on the emblem, and that this may lead to delays in administration of hydrocortisone in an emergency.

“Guidelines recommend that patients with adrenal insufficiency who are at risk for adrenal crisis should wear medical identification jewelry as a form of nonverbal communication in an emergency,” Rushworth said. “These should be recommended by the treating doctor, and adherence should be encouraged and reviewed regularly. The jewelry should be inscribed with clear instructions for emergency treatment, for example: ‘Adrenal insufficiency. Give IM 100 mg hydrocortisone.’” – by Regina Schaffer

From https://www.healio.com/endocrinology/adrenal/news/online/%7Be7eef183-09a5-46aa-96e1-1feb7c8f1e05%7D/medical-id-jewelry-often-lacks-clear-instructions-for-adrenal-insufficiency?page=2