Utility of Ascitic Fluid Cholesterol Levels in Diagnosis of Malignant Ascites to Prove the Efficacy of These Parameters with the Help of Cytology & Biopsy
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Guidelines on the Diagnosis and Management of Pericardial
European Heart Journal (2004) Ã, 1–28 ESC Guidelines Guidelines on the Diagnosis and Management of Pericardial Diseases Full Text The Task Force on the Diagnosis and Management of Pericardial Diseases of the European Society of Cardiology Task Force members, Bernhard Maisch, Chairperson* (Germany), Petar M. Seferovic (Serbia and Montenegro), Arsen D. Ristic (Serbia and Montenegro), Raimund Erbel (Germany), Reiner Rienmuller€ (Austria), Yehuda Adler (Israel), Witold Z. Tomkowski (Poland), Gaetano Thiene (Italy), Magdi H. Yacoub (UK) ESC Committee for Practice Guidelines (CPG), Silvia G. Priori (Chairperson) (Italy), Maria Angeles Alonso Garcia (Spain), Jean-Jacques Blanc (France), Andrzej Budaj (Poland), Martin Cowie (UK), Veronica Dean (France), Jaap Deckers (The Netherlands), Enrique Fernandez Burgos (Spain), John Lekakis (Greece), Bertil Lindahl (Sweden), Gianfranco Mazzotta (Italy), Joa~o Morais (Portugal), Ali Oto (Turkey), Otto A. Smiseth (Norway) Document Reviewers, Gianfranco Mazzotta, CPG Review Coordinator (Italy), Jean Acar (France), Eloisa Arbustini (Italy), Anton E. Becker (The Netherlands), Giacomo Chiaranda (Italy), Yonathan Hasin (Israel), Rolf Jenni (Switzerland), Werner Klein (Austria), Irene Lang (Austria), Thomas F. Luscher€ (Switzerland), Fausto J. Pinto (Portugal), Ralph Shabetai (USA), Maarten L. Simoons (The Netherlands), Jordi Soler Soler (Spain), David H. Spodick (USA) Table of contents Constrictive pericarditis . 9 Pericardial cysts . 13 Preamble . 2 Specific forms of pericarditis . 13 Introduction. 2 Viral pericarditis . 13 Aetiology and classification of pericardial disease. 2 Bacterial pericarditis . 14 Pericardial syndromes . ..................... 2 Tuberculous pericarditis . 14 Congenital defects of the pericardium . 2 Pericarditis in renal failure . 16 Acute pericarditis . 2 Autoreactive pericarditis and pericardial Chronic pericarditis . 6 involvement in systemic autoimmune Recurrent pericarditis . 6 diseases . 16 Pericardial effusion and cardiac tamponade . -
Hepatic Hydrothorax Without Apparent Ascites and Dyspnea - a Case Report
Case Report DOI: 10.7860/JCDR/2018/37185.12181 I nternal Medicine Hepatic Hydrothorax without Apparent S ection Ascites and Dyspnea - A Case Report JING HE1, RASHA HAYKAL2, HONGCHUAN COVILLE3, JAYA PRAKASH GADIKOTA4, CHRISTOPHER BRAY5 ABSTRACT A 78-year-old female with a past medical history of alcoholic cirrhosis was hospitalised with recurrent lower gastrointestinal bleeding due to rectal ulcers. The ulcers were successfully treated with cautery and placement of clips. However, a recurrent large right-sided pleural effusion without apparent ascites and dyspnea were found incidentally during the hospitalisation. The initial fluid analysis was exudate based on Light’s criteria with high protein. The fluid analysis was repeated five days later, after rapid reaccumulation which revealed transudates. Other causes of pleural effusion like heart failure, renal failure or primary pulmonary diseases were excluded. Hepatic hydrothorax was considered and the patient was started with the treatment of Furosemide and Spironolactone. The atypical presentation of hepatic hydrothorax may disguise the diagnosis and delay the treatment. Therefore, for a patient with recurrent, unexplained unilateral pleural effusions, even with atypical fluid characterisation and in the absence of ascites, hepatic hydrothorax should still remain on the top differential with underlying cirrhosis to ensure optimal treatment. Keywords: Cirrhosis, Light criteria, Liver, Pleural effusion CASE REPORT Haemogram Levels Normal range A 78-year-old Caucasian female, with a past medical history of alcoholic cirrhosis, admitted for recurrent rectal bleeding secondary WBC 6.9 (4.5-11.0 thousands/mm3) to rectal ulcers and was successfully treated with cautery and Neutrophils % 78 H (50.0-75.0 %) placement of clips. -
Cerebrospinal Fluid in Critical Illness
Cerebrospinal Fluid in Critical Illness B. VENKATESH, P. SCOTT, M. ZIEGENFUSS Intensive Care Facility, Division of Anaesthesiology and Intensive Care, Royal Brisbane Hospital, Brisbane, QUEENSLAND ABSTRACT Objective: To detail the physiology, pathophysiology and recent advances in diagnostic analysis of cerebrospinal fluid (CSF) in critical illness, and briefly review the pharmacokinetics and pharmaco- dynamics of drugs in the CSF when administered by the intravenous and intrathecal route. Data Sources: A review of articles published in peer reviewed journals from 1966 to 1999 and identified through a MEDLINE search on the cerebrospinal fluid. Summary of review: The examination of the CSF has become an integral part of the assessment of the critically ill neurological or neurosurgical patient. Its greatest value lies in the evaluation of meningitis. Recent publications describe the availability of new laboratory tests on the CSF in addition to the conventional cell count, protein sugar and microbiology studies. Whilst these additional tests have improved our understanding of the pathophysiology of the critically ill neurological/neurosurgical patient, they have a limited role in providing diagnostic or prognostic information. The literature pertaining to the use of these tests is reviewed together with a description of the alterations in CSF in critical illness. The pharmacokinetics and pharmacodynamics of drugs in the CSF, when administered by the intravenous and the intrathecal route, are also reviewed. Conclusions: The diagnostic utility of CSF investigation in critical illness is currently limited to the diagnosis of an infectious process. Studies that have demonstrated some usefulness of CSF analysis in predicting outcome in critical illness have not been able to show their superiority to conventional clinical examination. -
Basic Skills in Interpreting Laboratory Data, 5Th Edition
CHAPTER 1 DEFINITIONS AND CONCEPTS KAREN J. TIETZE This chapter is based, in part, on the second edition chapter titled “Definitions and Concepts,” which was written by Scott L. Traub. Objectives aboratory testing is used to detect disease, guide treatment, monitor response Lto treatment, and monitor disease progression. However, it is an imperfect sci ence. Laboratory testing may fail to identify abnormalities that are present (false After completing this chapter, negatives [FNs]) or identify abnormalities that are not present (false positives, the reader should be able to [FPs]). This chapter defines terms used to describe and differentiate laboratory • Differentiate between accuracy tests and describes factors that must be considered when assessing and applying and precision laboratory test results. • Distinguish between quantitative, qualitative, and semiqualitative DEFINITIONS laboratory tests Many terms are used to describe and differentiate laboratory test characteristics and • Define reference range and identify results. The clinician should recognize and understand these terms before assessing factors that affect a reference range and applying test results to individual patients. • Differentiate between sensitivity and Accuracy and Precision specificity, and calculate and assess Accuracy and precision are important laboratory quality control measures. Labora these parameters tories are expected to test analytes with accuracy and precision and to document the • Identify potential sources of quality control procedures. Accuracy of a quantitative assay is usually measured in laboratory errors and state the terms of an analytical performance, which includes accuracy and precision. Accuracy impact of these errors in the is defined as the extent to which the mean measurement is close to the true value. -
Ascites and Related Disorders
AscitesAscites andand RelatedRelated DisordersDisorders LuisLuis S.S. Marsano,Marsano, MDMD ProfessorProfessor ofof MedicineMedicine DirectorDirector ofof HepatologyHepatology UniversityUniversity ofof LouisvilleLouisville CausesCauses ofof AscitesAscites Malignant Neoplasia 10% Cardiac Insufficiency 3% Tuberculous Peritonitis Chronic hepatic 2% disease Nephrogenic 81% a scite s (dia lysis) 1% Pancreatic ascites 1% Biliary ascites 1% Others 1% PathophysiologyPathophysiology ofof CirrhoticCirrhotic AscitesAscites Hepatic sinusoidal pressure Activation of hepatic baroreceptors Compensated Peripheral arterial vasodilation with hypervolemia, (normal renin, aldosterone, vasopressin, or norepinephrine) Peripheral arterial vasodilation (“underfilling”) Decompensated Neurally mediated Na+ retention, (with elevated renin, aldosterone, vasopressin, or norepinephrine) ClassificationClassification ofof AscitesAscites SerumSerum--ascitesascites albuminalbumin gradientgradient (SAAG)(SAAG) SAAGSAAG (g/dl)(g/dl) == albuminalbumins –– albuminalbumina GradientGradient >>1.11.1 g/dlg/dl == portalportal hypertensionhypertension Serum globulin > 5 g/dl:: – SAAG correction = (SAAG mean)(0.21+0.208 serum globulin g/dl) AscitesAscites withwith HighHigh SAAGSAAG >>1.11.1 g/dlg/dl == portalportal hypertensionhypertension Cirrhosis Alcoholic Hepatitis Cardiac ascites Massive hepatic metastasis Fulminant hepatic failure Budd-Chiari syndrome Portal vein thrombosis Veno-occlusive disease Acute fatty liver of pregnancy Myxedema Mixed ascites LowLow SAAGSAAG <1.1<1.1 -
Assessing Acute Collapse for Presentation Powerpoint and Handouts
“I’ve Fallen and [email protected] I Can’t Get Up” Assessing Acute Collapse For Presentation PowerPoint and Handouts: http://wendyblount.com Wendy Blount, DVM Kinds of Shock [email protected] Anaphylactic Shock •Obstructed airway •Acute allergic reaction •Lung Disease •Mast Cell Tumor Degranulation •Pleural air or effusion Cardiovascular Shock Neurogenic shock •Arrhythmia •Forebrain and brainstem - For Presentation PowerPoint •Left Heart Failure decreased consciousness •Right Heart Failure •Spinal cord – flaccid paralysis and Handouts: •Pericardial Disease Septic Shock http://wendyblount.com Hypovolemic Shock •Overwhelming infection •Dehydration Traumatic Shock •Hemorrhage •Due to pain •Hypoproteinemia Toxic Shock Hypoxic Shock •Due to inflammatory mediators, •Anemia endogenous and exogenous •Hemoglobin Pathology toxins Collapse Other Than Shock Assessment of Inability or Unwillingness to get up Collapse Profound Weakness Ataxia – lack of coordination •Metabolic weakness •Vestibular ataxia Quick Assessment •Hypercalcemia •Cerebellar ataxia Life Saving Treatment •Hypokalemia •Sensory ataxia •Hypoglycemia Paresis - loss of voluntary Physical Exam •Neurotoxins motor Emergency Diagnostics •Polyneuropathy •Lower Motor Neuron •Junctionopathy •CNS Lesion at level of History •Myopathy paresis Pain •Flaccid paresis In House Diagnostics •Spinal Cord/Nerve Pain •Upper Motor Neuron •Orthopedic Pain •CNS Lesion above paresis •Muscular Pain •Spastic paresis 1 Assessment of Assessment of Collapse Collapse Quick Assessment Life Saving Treatment -
Hyperchloremia – Why and How
Document downloaded from http://www.elsevier.es, day 23/05/2017. This copy is for personal use. Any transmission of this document by any media or format is strictly prohibited. n e f r o l o g i a 2 0 1 6;3 6(4):347–353 Revista de la Sociedad Española de Nefrología www.revistanefrologia.com Brief review Hyperchloremia – Why and how Glenn T. Nagami Nephrology Section, Department of Medicine, VA Greater Los Angeles Healthcare System and David Geffen School of Medicine at UCLA, United States a r t i c l e i n f o a b s t r a c t Article history: Hyperchloremia is a common electrolyte disorder that is associated with a diverse group of Received 5 April 2016 clinical conditions. The kidney plays an important role in the regulation of chloride concen- Accepted 11 April 2016 tration through a variety of transporters that are present along the nephron. Nevertheless, Available online 3 June 2016 hyperchloremia can occur when water losses exceed sodium and chloride losses, when the capacity to handle excessive chloride is overwhelmed, or when the serum bicarbonate is low Keywords: with a concomitant rise in chloride as occurs with a normal anion gap metabolic acidosis Hyperchloremia or respiratory alkalosis. The varied nature of the underlying causes of the hyperchloremia Electrolyte disorder will, to a large extent, determine how to treat this electrolyte disturbance. Serum bicarbonate Published by Elsevier Espana,˜ S.L.U. on behalf of Sociedad Espanola˜ de Nefrologıa.´ This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/ licenses/by-nc-nd/4.0/). -
1 Molecular Physiology and Pathophysiology of Bilirubin Handling by the Blood, Liver
1 1 MOLECULAR PHYSIOLOGY AND PATHOPHYSIOLOGY OF BILIRUBIN HANDLING BY THE BLOOD, LIVER, 2 INTESTINE, AND BRAIN IN THE NEWBORN 3 THOR W.R. HANSEN1, RONALD J. WONG2, DAVID K. STEVENSON2 4 1Division of Paediatric and Adolescent Medicine, Institute of Clinical Medicine, Faculty of Medicine, 5 University of Oslo, Norway 6 2Department of Pediatrics, Stanford University School of Medicine, Stanford CA, USA 7 __________________________________________________________________________________ 8 2 9 I. Introduction 10 II. Bilirubin in the Body 11 A. Bilirubin Chemistry 12 1. Bilirubin structure 13 2. Bilirubin solubility 14 3. Bilirubin isomers 15 4. Heme degradation 16 5. Biliverdin and biliverdin reductase (BVR) 17 B. Bilirubin as an Antioxidant 18 C. Bilirubin as a Toxin 19 1. Bilirubin effects on enzyme activity 20 2. Toxicity of bilirubin conjugates and isomers 21 D. Other Functions/Roles 22 1. Drug displacement by bilirubin 23 2. Bilirubin interactions with the immune system and 24 inflammatory/infectious mechanisms 25 III. The Production of Bilirubin in the Body 26 A. Heme Catabolism and Its Regulation 27 1. Genetic variants in bilirubin production 28 B. The Effect of Hemolysis 29 1. Disorders associated with increased bilirubin production 30 IV. Bilirubin Binding and Transport in Blood 31 V. Bilirubin in the Liver 32 A. Hepatocellular Uptake and Intracellular Processing 33 B. Bilirubin Conjugation 34 1. Genetic variants in bilirubin conjugation 3 35 a. Crigler-Najjar syndrome type I 36 b. Crigler-Najjar syndrome type II 37 c. Gilbert syndrome 38 2. Genetic variants in transporter proteins 39 C. Bilirubin Excretion 40 VI. Bilirubin in the Intestines 41 A. -
Routine Cerebrospinal Fluid (CSF) Analysis
CHAPTER4 Routine cerebrospinal fluid (CSF) analysis a b a ) F. Deisenhammer, A. Bartos, R. Egg, Albumin CSF/serum ratio (Qalb should be pre- N. E. Gilhus,c G. Giovannoni,d S. Rauer,e ferred to total protein measurement and normal F. Sellebjergf upper limits should be related to patients’ age. Elevated Qalb is a non-specific finding but occurs mainly in bacterial, cryptococcal, and tubercu- Background A great variety of neurological diseases lous meningitis, leptomingeal metastases as well require investigation of the cerebrospinal fluid as acute and chronic demyelinating polyneu- (CSF) to prove the diagnosis or to rule out relevant ropathies. differential diagnoses. Pathological decrease of the CSF/serum glu- cose ratio or an increase in lactate concentration Objectives To evaluate the theoretical background indicates bacterial or fungal meningitis or lep- and provide guidelines for clinical use in rou- tomeningeal metastases. tine CSF analysis including total protein, albumin, Intrathecal immunoglobulin G synthesis is best immunoglobulins, glucose, lactate, cell count, demonstrated by isoelectric focusing followed by cytological staining, and investigation of infec- specific staining. tious CSF. Cellular morphology (cytological staining) should be evaluated whenever pleocytosis is found or Methods Systematic Medline search for the above leptomeningeal metastases or pathological bleed- mentioned variables. Review of appropriate publi- ing is suspected. Computed tomography-negative cations by one or more of the task force members. intrathecal bleeding should be investigated by Grading of evidence and recommendations was bilirubin detection. based on consensus by all task force members. Introduction CSF should be analysed immediately after collec- tion. If storage is needed 12 ml of CSF should The cerebrospinal fluid (CSF) is a dynamic, be partitioned into three to four sterile tubes. -
6. Fluid and Hemodynamic Disorders
6. Fluid and hemodynamic disorders Background Total Body Water [Fig. 6-1] • Human body is 60 % fluid (water) by weight – Total Body Water (TBW) = 42 liters (70kg M) • Body has two major compartments (inside cell or outside) • 2/3 of TBW is located inside cells – intracellular fluid compartment [28 l] • 1/3 of TBW is located outside cells – extra-cellular fluid compartment [14 l] • 1/4 ECF is located inside blood vessels (intra-vascular) [3.5 l] • 3/4 ECF is located in extra-vascular (interstitial) space [9.5 l] Movement of fluid • Distribution of water between ICF and ECF compartments is determined by distribution of electrolytes • Distribution of water within the ECF between the intra-vascular and interstitial space is determined by proteins • Fluid constantly moves between compartments – fluid moves out of capillaries due to hydrostatic pressure in the capillary and osmotic pressure in ECF – fluid moves into capillaries due to oncotic pressure in the vessel and hydrostatic pressure in the ECF • Lymphatics remove excess fluid not returned to vessels Fluid and hemodynamic disorders Edema • Edema is the accumulation of excess fluid in ECF space – edema may be localized or systemic – edema fluid may be a Transudate or an Exudate • Exudate – an exudate has a high protein content and lots of white blood cells – an exudate forms due to inflammation • Transudate – a transudate has a low protein content and few white blood cells – a transudate forms due to imbalance of forces across vessel walls • The cause of edema is often multifactorial • Terminology – anasarca is severe generalized edema – ascites is excess fluid in abdominal cavity – hydrothorax is excess fluid in pleural cavity – hydrocardia is excess fluid in pericardial cavity • Edema may have serious consequences – cerebral edema may result in herniation of the brain and death – pulmonary edema may result in impaired air exchange and death Fluid and hemodynamic disorders Edema pathogenesis [Fig. -
Evaluation of Pleural Effusion Type Determination Based on Light's and Heffner's Criteria
PAGE 76 2019 Nov; 26(1): 1-128 p-ISSN 0854-4263 e-ISSN 2477-4685 Available at www.indonesianjournalofclinicalpathology.org EVALUATION OF PLEURAL EFFUSION TYPE DETERMINATION BASED ON LIGHT'S AND HEFFNER'S CRITERIA Nordjannah1, Ani Kartini2, Darmawaty ER3 1 Specialization Program of Medical Pathology, Faculty of Medicine, University of Hassanudin/Dr. Wahidin Sudirohusodo General Hospital, Makassar, Indonesia. E-mail: [email protected] 2 Department of Clinical Pathology, Faculty of Medicine, University of Hassanudin/Labuang Baji Hospital Makassar, Indonesia 3 Department of Clinical Pathology, Faculty of Medicine, University of Hassanudin/Islamic Faisal General Hospital, Makassar, Indonesia ABSTRACT Pleural effusion is an abnormal accumulation of pleural fluid in the pleural cavity due to excessive transudation or exudation. Light's criteria is used as the standard method to distinguish between exudates and transudates. Some recent studies reported misclassifications which led to development of several alternative criteria, such as Heffner's criteria. The purpose of this study was to determine the sensitivity and specificity of Heffner's criteria to determine the type of pleural effusion. This research was an observational study with a cross-sectional method using a pleural effusion of patients at the Clinical Pathology Laboratory Installation at the Wahidin Sudirohusodo Hospital in July 2018. Total protein, LDH, and cholesterol levels were measured in all samples that met the inclusion and exclusion criteria. There were 45 pleural effusion samples that consisted of 30 transudate and 15 exudate samples. Based on clinical diagnosis, the Light's criteria showed 3 misclassifications and Heffner's criteria obtained showed 2 misclassifications. Based on the data above, the statistical data showed that Light's criteria had a sensitivity of 96.7% and specificity of 86.7%. -
The Pathophysiology of 'Happy' Hypoxemia in COVID-19
Dhont et al. Respiratory Research (2020) 21:198 https://doi.org/10.1186/s12931-020-01462-5 REVIEW Open Access The pathophysiology of ‘happy’ hypoxemia in COVID-19 Sebastiaan Dhont1* , Eric Derom1,2, Eva Van Braeckel1,2, Pieter Depuydt1,3 and Bart N. Lambrecht1,2,4 Abstract The novel coronavirus disease 2019 (COVID-19) pandemic is a global crisis, challenging healthcare systems worldwide. Many patients present with a remarkable disconnect in rest between profound hypoxemia yet without proportional signs of respiratory distress (i.e. happy hypoxemia) and rapid deterioration can occur. This particular clinical presentation in COVID-19 patients contrasts with the experience of physicians usually treating critically ill patients in respiratory failure and ensuring timely referral to the intensive care unit can, therefore, be challenging. A thorough understanding of the pathophysiological determinants of respiratory drive and hypoxemia may promote a more complete comprehension of a patient’sclinical presentation and management. Preserved oxygen saturation despite low partial pressure of oxygen in arterial blood samples occur, due to leftward shift of the oxyhemoglobin dissociation curve induced by hypoxemia-driven hyperventilation as well as possible direct viral interactions with hemoglobin. Ventilation-perfusion mismatch, ranging from shunts to alveolar dead space ventilation, is the central hallmark and offers various therapeutic targets. Keywords: COVID-19, SARS-CoV-2, Respiratory failure, Hypoxemia, Dyspnea, Gas exchange Take home message COVID-19, little is known about its impact on lung This review describes the pathophysiological abnormal- pathophysiology. COVID-19 has a wide spectrum of ities in COVID-19 that might explain the disconnect be- clinical severity, data classifies cases as mild (81%), se- tween the severity of hypoxemia and the relatively mild vere (14%), or critical (5%) [1–3].