Book contents
- Handbook of CTG Interpretation
- Handbook of CTG Interpretation
- Copyright page
- Dedication
- Contents
- Contributors
- Preface
- Acknowledgements
- Glossary
- 1 ‘An Eye Opener’: Perils of CTG Misinterpretation
- 2 Fetal Oxygenation
- 3 Physiology of Fetal Heart Rate Control and Types of Intrapartum Hypoxia
- 4 Understanding the CTG
- 5 Applying Fetal Physiology to Interpret CTG Traces
- 6 Avoiding Errors
- 7 Antenatal Cardiotocography
- 8 Intermittent (Intelligent) Auscultation in the Low-Risk Setting
- 9 Current Scientific Evidence on CTG
- 10 Role of Uterine Contractions and Intrapartum Reoxygenation Ratio
- 11 Intrapartum Monitoring of a Preterm Fetus
- 12 Role of Chorioamnionitis and Infection
- 13 Meconium
- 14 Intrapartum Bleeding
- 15 Labour with a Uterine Scar
- 16 Impact of Maternal Environment on Fetal Heart Rate
- 17 Use of CTG with Induction and Augmentation of Labour
- 18 Recognition of Chronic Hypoxia and the Preterminal Cardiotocograph
- 19 Unusual Fetal Heart Rate Patterns
- 20 Intrauterine Resuscitation
- 21 Management of Prolonged Decelerations and Bradycardia
- 22 ST-Analyser (STAN)
- 23 ST-Analyser
- 24 Role of a Computerized CTG
- 25 Peripheral Tests of Fetal Well-being
- 26 Operative Interventions for Fetal Compromise
- 27 Nonhypoxic Causes of CTG Changes
- 28 Neonatal Implications of Intrapartum Fetal Hypoxia
- 29 Role of the Anaesthetist in the Management of Fetal Compromise during Labour
- 30 Medico-legal Issues with CTG
- 31 Ensuring Competency in Intrapartum Fetal Monitoring
- 32 Physiology-Based CTG Training
- Appendix Rational Use of FIGO Guidelines in Clinical Practice
- Answers to Exercises
- Index
- References
27 - Nonhypoxic Causes of CTG Changes
Published online by Cambridge University Press: 25 March 2017
Edited by
Book contents
- Handbook of CTG Interpretation
- Handbook of CTG Interpretation
- Copyright page
- Dedication
- Contents
- Contributors
- Preface
- Acknowledgements
- Glossary
- 1 ‘An Eye Opener’: Perils of CTG Misinterpretation
- 2 Fetal Oxygenation
- 3 Physiology of Fetal Heart Rate Control and Types of Intrapartum Hypoxia
- 4 Understanding the CTG
- 5 Applying Fetal Physiology to Interpret CTG Traces
- 6 Avoiding Errors
- 7 Antenatal Cardiotocography
- 8 Intermittent (Intelligent) Auscultation in the Low-Risk Setting
- 9 Current Scientific Evidence on CTG
- 10 Role of Uterine Contractions and Intrapartum Reoxygenation Ratio
- 11 Intrapartum Monitoring of a Preterm Fetus
- 12 Role of Chorioamnionitis and Infection
- 13 Meconium
- 14 Intrapartum Bleeding
- 15 Labour with a Uterine Scar
- 16 Impact of Maternal Environment on Fetal Heart Rate
- 17 Use of CTG with Induction and Augmentation of Labour
- 18 Recognition of Chronic Hypoxia and the Preterminal Cardiotocograph
- 19 Unusual Fetal Heart Rate Patterns
- 20 Intrauterine Resuscitation
- 21 Management of Prolonged Decelerations and Bradycardia
- 22 ST-Analyser (STAN)
- 23 ST-Analyser
- 24 Role of a Computerized CTG
- 25 Peripheral Tests of Fetal Well-being
- 26 Operative Interventions for Fetal Compromise
- 27 Nonhypoxic Causes of CTG Changes
- 28 Neonatal Implications of Intrapartum Fetal Hypoxia
- 29 Role of the Anaesthetist in the Management of Fetal Compromise during Labour
- 30 Medico-legal Issues with CTG
- 31 Ensuring Competency in Intrapartum Fetal Monitoring
- 32 Physiology-Based CTG Training
- Appendix Rational Use of FIGO Guidelines in Clinical Practice
- Answers to Exercises
- Index
- References
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- Handbook of CTG InterpretationFrom Patterns to Physiology, pp. 155 - 161Publisher: Cambridge University PressPrint publication year: 2017
References
Kodoma, Y, Sameshima, H, Ikeda, T, Ikenoue, T. Intrapartum fetal heart rate patterns in infants (>34 weeks) with poor neurological outcome. Early Human Development 2009;85:235–8.Google Scholar
ACOG. Practice Bulletin on Intrapartum fetal heart rate monitoring: nomenclature, interpretation, and general management principles. American College of Obstetricians and Gynecologists 2009;106:192–202.Google Scholar
Yanamandra, N, Chandraharan, E. Saltatory and sinusoidal heart rate (FHR) patterns and significance of FHR ‘overshoots’. Current Women’s Health Reviews 2013;9:175–82.Google Scholar
McDonnell, S, Chandraharan, E. Fetal heart rate interpretation in the second stage of labour: pearls and pitfalls. British Journal of Medicine and Medical Research 2015;7(12):956–70.Google Scholar
Govaert, P. Prenatal stroke. Seminars in Fetal and Neonatal Medicine 2009;14:250–66.CrossRefGoogle ScholarPubMed
Rovira, N, Alarcon, A, Iriondo, M, Ibanez, M, Poo, P, Cusi, V, Agut, T, Pertierra, A, Krauel, X. Impact of histological chorioamnionitis, funisitis and clinical chorioamnionitis on neurodevelopmental outcome of preterm infants. Early Human Development 2010;87:253–7.Google Scholar
Kuypers, E, Ophelders, D, Jellema, RK, Kunzmann, S, Gavilanes, AW, Kramer, BW. White matter injury following fetal inflammatory response syndrome induced by chorioamnionitis and fetal sepsis: Lessons from experimental ovine models. Early Human Development 2012;88:931–6.CrossRefGoogle ScholarPubMed
Wang, X, Rousset, CI, Hagberg, H, Mallard, C. Lipopolysaccharide-induced inflammation and perinatal brain injury. Science Direct 2006:11:343–53.Google ScholarPubMed
Cardiotocograph interpretation: more difficult problems. Chapter in: Fetal Monitoring in Practice. 3rd ed. Gibb D, Arulkumaran S. (eds). Elsevier: Churchill Livingstone, 2008.Google Scholar
Strasburger, JF, Cheulkar, B, Wichman, HJ. Perinatal arrhythmias: diagnosis and management. Clinical Perinatology 2007;34(4):627–56.CrossRefGoogle ScholarPubMed