Academic literature on the topic 'Metabolic decompensation'

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Journal articles on the topic "Metabolic decompensation"

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Morris, A. A. M., and J. V. Leonard. "Early recognition of metabolic decompensation." Archives of Disease in Childhood 76, no. 6 (1997): 555–56. http://dx.doi.org/10.1136/adc.76.6.555.

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Cravino, Maria Marta, Felice Urso, Giuliana Arzilli, and Antonio Sechi. "Acute glyco-metabolic decompensation during septic shock." Emergency Care Journal 6, no. 3 (2010): 29. http://dx.doi.org/10.4081/ecj.2010.3.29.

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Starostina, E. G. "Acute metabolic decompensation in diabetes mellitus (lecture)." Problems of Endocrinology 44, no. 6 (1998): 32–39. http://dx.doi.org/10.14341/probl11667.

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The treatment of acute metabolic decompensation in diabetes mellitus (DM), especially its extreme manifestations - diabetic com - still presents significant difficulties for many endocrinologists, resuscitators and other doctors, although in practice they often have to deal with this. In the scope of this lecture, we are not able to dwell in detail on the pathogenesis, biochemical and clinical features of acute diabetic decompensation of metabolism, therefore, it will mainly examine the most important principles of its treatment and the most frequently encountered diagnostic and tactical errors.
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Roth, B., A. Younossi-Hartenstein, H. Skopnik, J. V. Leonard, and W. Lehnert. "Haemodialysis for metabolic decompensation in propionic acidaemia." Journal of Inherited Metabolic Disease 10, no. 2 (1987): 147–51. http://dx.doi.org/10.1007/bf01800040.

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Helmer, Drew A., Chin-Lin Tseng, Mangala Rajan, et al. "Can Ambulatory Care Prevent Hospitalization for Metabolic Decompensation?" Medical Care 46, no. 2 (2008): 148–57. http://dx.doi.org/10.1097/mlr.0b013e31815b9d66.

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Elpeleg, Orly N., Adina Joseph, David Branski, et al. "Recurrent metabolic decompensation in profound carnitine palmitoyltransferase II deficiency." Journal of Pediatrics 122, no. 6 (1993): 917–19. http://dx.doi.org/10.1016/s0022-3476(09)90019-1.

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Wathen, C. G., and I. R. Starkey. "Survival from Extreme Lactic and Keto-Acidosis in Diabetes Mellitus." Scottish Medical Journal 31, no. 4 (1986): 243–44. http://dx.doi.org/10.1177/003693308603100408.

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Feinstein, Jeffrey A., and Kevin OʼBrien. "Acute Metabolic Decompensation in an Adult Patient with Isovaleric Acidemia." Southern Medical Journal 96, no. 5 (2003): 500–503. http://dx.doi.org/10.1097/01.smj.0000051141.03668.1d.

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Burlina, Silvia, Maria Grazia Dalfrà, and Annunziata Lapolla. "Clinical and biochemical approach to predicting post-pregnancy metabolic decompensation." Diabetes Research and Clinical Practice 145 (November 2018): 178–83. http://dx.doi.org/10.1016/j.diabres.2018.02.035.

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Zwickler, Tamaris, Gisela Haege, Alina Riderer, et al. "Metabolic decompensation in methylmalonic aciduria: which biochemical parameters are discriminative?" Journal of Inherited Metabolic Disease 35, no. 5 (2012): 797–806. http://dx.doi.org/10.1007/s10545-011-9426-1.

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Dissertations / Theses on the topic "Metabolic decompensation"

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Sabbah, E. (Emad). "Role of antibodies to glutamic acid decarboxylase in type 1 diabetes:relation to other autoantibodies, HLA risk markers and clinical characteristics." Doctoral thesis, University of Oulu, 2000. http://urn.fi/urn:isbn:951425628X.

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Abstract The purpose of this research was to assess the role of antibodies to glutamic acid decarboxylase (GAD) in children with newly diagnosed type 1 diabetes in relation to other disease-associated autoantibodies and HLA-defined genetic disease susceptibility, to evaluate the role of GAD antibodies (GADA) in relation to clinical characteristics at the diagnosis of type 1 diabetes and to compare the frequency and levels of GADA between adult and childhood onset type 1 diabetes.The study population comprised altogether 999 children and adolescents with type 1 diabetes, 100 affected adult subjects and more than 370 non-diabetic controls. GADA were measured with a liquid radioligand assay, and a similar assay was used for the analysis of antibodies to the islet antigen 2 (IA-2) molecule. Islet cell antibodies (ICA) were determined with conventional immunofluorescence and insulin autoantibodies (IAA) with a liquid phase radioimmunoassay either in a tube or a plate format (microassay). GADA were detected at diagnosis in 68 to 73% of the children and adolescents with type 1 diabetes. GADA were more frequent in girls and in those older than 10 years of age at clinical disease manifestation. Subjects testing positive for GADA had higher levels of ICA and IAA than those negative for GADA. Multiple antibodies ( 2) were observed more often in girls and in children under the age of 5 years. Children with the HLA DR3/non-DR4 phenotype had the highest GADA levels, significantly higher than those seen in children with the DR4/non-DR3 combination. The highest prevalence of multiple autoantibodies was seen in subjects heterozygous for DR3/4. When studying HLA DQB1 genotypes those with the DQB1*02/y (y = other than *0302) genotype had the highest GADA levels as expected since DQB1*02 and DR3 are in strong linkage disease equilibrium. The same group had the lowest frequency of multiple antibodies among the children younger than 10 years of age.Patients diagnosed with type 1 diabetes before the age of 20 had a higher frequency of all four autoantibodies analysed than those presenting with clinical disease after the age of 20. The proportion of subjects testing negative for all four antibodies was substantially higher among adults than in those under the age of 20. The smallest age-related difference in antibody frequencies was observed for GADA, and the GADA-positive adult patients had on an average about three times higher antibody levels than the GADA-positive children. No association was observed between positivity for GADA and the degree of metabolic decompensation at the clinical presentation of type 1 diabetes. No significant differences were either seen between the subjects who tested positive for GADA at diagnosis and those who were negative in serum C-peptide concentrations, metabolic control or exogenous insulin requirement over the first 2 years of observation. The proportion of children in clinical remission was, however, lower among GADA-positive subjects than in GADA-negative patients at 18 months after the clinical manifestation. Positivity for multiple antibodies was associated with accelerated beta-cell destruction and increased exogenous insulin requirements over the 2-year observation period. The observations that GADA are related to female gender, older age and the HLA-DR3/ DQB1*02 haplotype suggest that a strong humoral immune response to GAD may reflect a propensity to general autoimmunity rather than specific beta-cell destruction.
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Books on the topic "Metabolic decompensation"

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Morris, Andrew A. M. Disorders of Ketogenesis and Ketolysis. Oxford University Press, 2016. http://dx.doi.org/10.1093/med/9780199972135.003.0009.

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Disorders of ketone body metabolism are characterized by episodes of metabolic decompensation. The initial episode usually occurs in the newborn period or early childhood during an infection with vomiting. The disorders of ketogenesis cause hypoglycemia and encephalopathy. Decompensation leads to severe ketoacidosis in defects of ketone body utilization (including MCT1 transporter deficiency). Treatment aims to prevent the catabolism that leads to decompensation. Prolonged fasting is avoided and glucose is provided, orally or intravenously, during illnesses. The risk of decompensation falls with age, particularly for disorders of ketolysis. There have, however, been some fatal episodes in adults with HMG-CoA lyase deficiency, including during pregnancy.
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Lachmann, Robin H., and Elaine Murphy. Emergencies. Oxford University Press, 2016. http://dx.doi.org/10.1093/med/9780199972135.003.0076.

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Patients with an inherited metabolic disease can present acutely either with a metabolic decompensation, or due to an emerging complication. In either case, it is important to recognize the underlying metabolic condition as disease specific management is likely to be necessary. In this chapter we discuss some of the more prequent acute presentations which can be seen in adults with IMDs.
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Fraser, Jamie L., Frédéric Sedel, and Charles P. Vendetti. Disorders of Cobalamin and Folate Metabolism. Oxford University Press, 2016. http://dx.doi.org/10.1093/med/9780199972135.003.0027.

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Cobalamin C deficiency (cblC) and related disorders of intracellular cobalamin metabolism may present at any time from the prenatal period through adolescence/adulthood and are due to deficiency of the cobalamin cofactors adenosylcobalamin and methylcobalamin. Chronic complications of cblC depend on the age at presentation and may include poor growth, renal dysfunction, neuropsychiatric manifestations, intellectual disability, strokes, progressive leukoencephalopathy and spinal cord degeneration, psychiatric manifestations and executive function deficits, and optic nerve and retinal anomalies. While less common than in isolated MMA, acute metabolic decompensation may occur in cblC patients due to accumulation of methylmalonic acid and associate metabolites and should be managed as in isolated MMA in conjunction with a metabolic consultant. The most common inborn error of folate (vitamin B9) metabolism relevant for adult patients is methylenetetrahydrofolate reductase (MTHFR) deficiency. Manifestations are primarily neurological, but the disorder may present in a substantial number of adults with psychiatric symptoms. Early recognition with adequate treatment is crucial.
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Gropman, Andrea L., Belen Pappa, and Nicholas Ah Mew. The Urea Cycle Disorders. Oxford University Press, 2017. http://dx.doi.org/10.1093/med/9780199937837.003.0063.

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The urea cycle is the primary nitrogen disposal pathway in humans. The urea cycle requires the coordinated function of six enzymes and two mitochondrial transporters to catalyze the conversion of a molecule of ammonia, the α-nitrogen of aspartate and bicarbonate into urea. Whereas ammonia is toxic, urea is relatively inert, soluble in water, and readily excreted by the kidney in the urine. The accumulation of ammonia and other toxic intermediates of the cycle lead to predominantly neurological sequelae. All of the genes have been identified. The disorders may present at any age from the neonatal period to adulthood, with the more severe patients presenting earlier in life. Patients are at risk for metabolic decompensation throughout life, often triggered by illness, fasting, surgery and postoperative states, peripartum, stress, and increased exogenous protein load. This chapter addresses common somatic and neurological presentation, differential diagnosis, laboratory testing, and treatments.
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Prunty, Helen, Jamie L. Fraser, Charles P. Venditti, and Robin H. Lachmann. Branched Chain Amino Acids. Oxford University Press, 2016. http://dx.doi.org/10.1093/med/9780199972135.003.0016.

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This chapter describes the four most common disorders affecting the degradation of branched chain amino acids: maple syrup urine disease, methylmalonic acidemia, propionic acidemia and isovaleric acidemia. These conditions most commonly present with encephalopathy in the newborn period, although cases with later onset have also been described. Although adult patients are less prone to acute metabolic decompensations, they do develop a number of long-term complications, both neurological and visceral. Management shares features with other disorders of protein metabolism and centers on a low-protein diet and the use of disease-specific amino acid supplements.
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Book chapters on the topic "Metabolic decompensation"

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Paolisso, Giuseppe, and Michelangela Barbieri. "Metabolic decompensation in older people." In Diabetes in Old Age. John Wiley & Sons, Ltd, 2017. http://dx.doi.org/10.1002/9781118954621.ch17.

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Shanmugam, Naresh, and Roshni Vara. "Acute Metabolic Decompensation: Crisis Management." In Pediatric Liver Intensive Care. Springer Singapore, 2018. http://dx.doi.org/10.1007/978-981-13-1304-2_9.

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Parini, R., F. Furlan, A. Brambilla, et al. "Severe Neonatal Metabolic Decompensation in Methylmalonic Acidemia Caused by CblD Defect." In JIMD Reports. Springer Berlin Heidelberg, 2013. http://dx.doi.org/10.1007/8904_2013_232.

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Habets, D. D. J., N. C. Schaper, H. Rogozinski, et al. "Biochemical Monitoring and Management During Pregnancy in Patients with Isovaleric Acidaemia is Helpful to Prevent Metabolic Decompensation." In JIMD Reports. Springer Berlin Heidelberg, 2011. http://dx.doi.org/10.1007/8904_2011_66.

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Rodney, S., and A. Boneh. "Amino Acid Profiles in Patients with Urea Cycle Disorders at Admission to Hospital due to Metabolic Decompensation." In JIMD Reports. Springer Berlin Heidelberg, 2012. http://dx.doi.org/10.1007/8904_2012_186.

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Kannan, C. R. "Metabolic Decompensations in the Diabetic." In Essential Endocrinology. Springer US, 1986. http://dx.doi.org/10.1007/978-1-4899-1692-1_49.

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Barcat, Lucile, Patricia Monnier, Franz Schaefer, and Philippe Jouvet. "Dialytic Therapy of Inborn Errors of Metabolism in Case of Acute Decompensation." In Pediatric Dialysis. Springer International Publishing, 2021. http://dx.doi.org/10.1007/978-3-030-66861-7_47.

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Sen, S., C. Steiner, A. Alisa, D. Kapoor, R. Williams, and R. Jalan. "Molecular Adsorbents Recirculating System (MARS) for acute decompensation of chronic liver disease: an early clinical experience." In Encephalopathy and Nitrogen Metabolism in Liver Failure. Springer Netherlands, 2003. http://dx.doi.org/10.1007/978-94-010-0159-5_39.

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Ravikumar, Nakul, Geoffrey R. Sheinfeld, and William T. McGee. "Hemodynamic Perspectives in Anemia." In Hemodynamics [Working Title]. IntechOpen, 2021. http://dx.doi.org/10.5772/intechopen.99725.

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Oxygen delivery in normal physiologic states is determined by cardiac output, hemoglobin, oxygen saturation, and to a lesser extent, dissolved oxygen in the blood. Compensatory mechanisms such as an increase in stroke volume, heart rate, and re-distribution of blood flow helps in scenarios with increased oxygen demand. In cases of acute hemodynamic decompensation, this pre-existing physiologic relation between oxygen delivery and oxygen consumption is altered, resulting in tissue hypoxia and resultant anaerobic metabolism. A persistent state of sub-critical O2 delivery correlates with increased mortality. Oxygen consumption itself is usually independent of delivery unless a critical threshold is unmet. We can use various parameters such as serum lactate, oxygen extraction, and central venous oxygen saturation to determine this pathology. A basic understanding of this physiology will help better tailor therapy to improve outcomes in critically ill patients.
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Fdil, Naima, Es-Said Sabir, Karima Lafhal, et al. "Insights Into the COVID-19 Infection Related to Inherited Metabolic Diseases." In Handbook of Research on Pathophysiology and Strategies for the Management of COVID-19. IGI Global, 2022. http://dx.doi.org/10.4018/978-1-7998-8225-1.ch012.

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People with respiratory problems and people prone to decompensations are particularly vulnerable to COVID-19. These characteristics are often present in patients with inherited metabolic diseases (IMDs). It is therefore conceivable that patients with IMDs are at a greater risk of infection and may present a more serious form of COVID-19 disease. Currently available data about the impact of COVID-19 on patients suffering from IMDs are very scarce and no study has been able to confirm this hypothesis. In this chapter, the authors have tried to show that the severity of COVID-19 infection in patients with IMDs is specific to the group that the disease belongs. Indeed, lysosomal storage diseases caused by impaired degradation and accumulation of metabolites in lysosomes leads to dysfunction of lysosomal and possible impairment of the COVID-19 egress process. The fact that COVID-19 disease may be considered itself as an IMD was also discussed to highlight the interference which can exist between COVID-19 disease and IMDs in a patient.
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