Reduction of late stillbirth with the introduction of fetal movement information and guidelines – a clinical quality improvement
© Tveit et al; licensee BioMed Central Ltd. 2009
Received: 25 February 2009
Accepted: 22 July 2009
Published: 22 July 2009
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Women experiencing decreased fetal movements (DFM) are at increased risk of adverse outcomes, including stillbirth. Fourteen delivery units in Norway registered all cases of DFM in a population-based quality assessment. We found that information to women and management of DFM varied significantly between hospitals. We intended to examine two cohorts of women with DFM before and during two consensus-based interventions aiming to improve care through: 1) written information to women about fetal activity and DFM, including an invitation to monitor fetal movements, 2) guidelines for management of DFM for health-care professionals.
All singleton third trimester pregnancies presenting with a perception of DFM were registered, and outcomes collected independently at all 14 hospitals. The quality assessment period included April 2005 through October 2005, and the two interventions were implemented from November 2005 through March 2007. The baseline versus intervention cohorts included: 19,407 versus 46,143 births and 1215 versus 3038 women with DFM, respectively.
Reports of DFM did not increase during the intervention. The stillbirth rate among women with DFM fell during the intervention: 4.2% vs. 2.4%, (OR 0.51 95% CI 0.32–0.81), and 3.0/1000 versus 2.0/1000 in the overall study population (OR 0.67 95% CI 0.48–0.93). There was no increase in the rates of preterm births, fetal growth restriction, transfers to neonatal care or severe neonatal depression among women with DFM during the intervention. The use of ultrasound in management increased, while additional follow up visits and admissions for induction were reduced.
Improved management of DFM and uniform information to women is associated with fewer stillbirths.
Maternal perception of fetal movements (FM) is a universally implemented self-screening, administered and interpreted individually by all pregnant women, with or without guidance from health care professionals . Maternal reporting of decreased fetal movements (DFM) is a frequent reason for unplanned health consultations through the third trimester ranging between 4%–16% in various populations [1–3] and 5% in a previous report . Pregnancies affected by DFM are at increased risk of adverse outcome such as fetal growth restriction (FGR), preterm birth and fetal death [4–9].
There is no universally accepted methodology for assessing DFM. Every method has its limitations and a "gold standard" is difficult to define. Maternal perception of FM arises first and foremost as a result of pressure against body-wall structures, and thus the mother's perception reflects gross FM or limb movements [10, 11]. The proportion of movements perceived by the mother and documented during ultrasound monitoring at the same time ranges from 37% to 88% . A common factor in these studies is that the mother is lying down and focusing on fetal activity. This is the only situation in which we know that maternal perception and objective measures of FM are strongly correlated with objective measures of fetal activity. Outside such a setting, both the actual frequency of movements as well as the mother's ability to perceive them are influenced by factors such as maternal position , activity and exercise , anxiety , stress , blood sugar , smoking , placenta localization , and obesity . Parity has not been found to affect maternal perception of FM in the third trimester , but multiparous might be able to perceive FM earlier in pregnancy than primiparous . There are significant diurnal variations in normal fetal activity, which changes gradually with gestation [10, 20].
Among the attempts to define DFM, a variety of methods of FM counting with different alarm limits have been published [1, 6, 7]. Among these, the rule of "ten movements within 2 hours" . This is the only definition of DFM based on focused maternal counting which has been both developed and tested as a screening tool in a total population, and currently the definition of DFM recommended by the American Academy of Pediatrics and the American College of Obstetricians and Gynecologists if maternal movement counting is performed . Other definitions of DFM have mostly been based on counting through both rest and activity and have little evidence in support of their association with actual fetal activity. The most important clinical understanding of DFM is still the mother's own perception of a decrease [1, 23–26].
There are no universally accepted guidelines for the management of DFM [7, 12]. Although several studies have presented guidelines including non-stress test (NST), ultrasound examination and Doppler [2, 3, 5, 7, 22, 27], most of these recommendations are based on limited evidence, as we have reviewed elsewhere [7, 12].
We intended to examine two cohorts of women with DFM before and during a quality improvement intervention by implementing guidelines for management of DFM and uniform information on fetal activity to women.
The registration period included 7 months of baseline observation followed by 17 months of intervention: from April 1, 2005 to March 31, 2007. In Norway, almost all pregnant women attend the antenatal program which is free of charge and covered by the public health-care services. The Norwegian antenatal care program is following contemporary guidelines composed by the National Institute of Clinical Excellence . The community midwives and general practitioners are in charge of the antenatal program, and without the possibility to perform an NST or ultrasound examinations locally, they usually refer the concerned mothers to the nearby hospital with a maternity ward. Hence, the pregnant women in Norway typically contact maternity wards directly with any acute concerns for DFM. There are no private delivery wards in Norway. Women fulfilling the inclusion criteria were registered prospectively by the caregiver at the time the woman presented to the hospital. Pregnancy outcome were collected independently after delivery from the medical files by study coordinator at each hospital. Data were anonymized and submitted to the study-coordinating centre. DFM was defined as any woman presenting with concerns for DFM, irrespective of whether this was based on her subjective opinion or it emerged during an antenatal visit for other reasons. In addition to the registrations by our study protocol, the numbers of births and stillbirths from our population were obtained from the Medical Birth Registry in Norway to assess overall trends in stillbirth, for the most updated period available: April 2005 to December 2006.
Our observations of pregnancies with DFM prior to the intervention identified significant differences in management between hospitals – none had provided the women with written information – and there were indications of co-variation between management and pregnancy outcomes . Almost all hospitals would perform an NST, about half performed an ultrasound scanning, and some carried out an umbilical artery Doppler examinations . The risk of adverse outcomes increased with the severity (perceived absence of DFM) and duration of DFM. Undesirable behavior was frequent, with one-third of the women did not present before an absence of FM was perceived: one-quarter of these women waited for more that 24 hours . An initial survey of all 55 birth clinics in Norway found a wide range of definitions of DFM used to inform women, varying from three kicks per hour to an absence of more than 24 hours . Among the fourteen participating clinics, the women received a wide range of advice in terms of normal frequency of FM: varying from 25 kicks per hour to 3 kicks per 24 hours .
With this in mind, a systematic review of all currently published literature was undertaken to determine the optimal management for women with DFM. A group of experts together with Chairs of midwifery and obstetrics of all participating hospitals developed a best- practice- and consensus-based approach to the best-practice management of DFM and the information provided to pregnant women. In our own quality assessment of care prior to the intervention, NST and ultrasound examination were found to be the most useful tools for fetal surveillance in DFM, while an umbilical artery Doppler examination failed to add significant information among 3014 cases of DFM. Ultrasound scanning was, by comparison, the most important tool, being the source of information in 86.2% of cases where abnormalities were detected . In brief, our implemented guidelines recommended: a standard clinical evaluation for all women reporting DFM, an NST, and an ultrasound scan to quantify FM, amniotic fluid volume, and fetal anatomy and growth. A mother presenting with a concern of DFM was to be examined within two 2 hours if absence of FM was suspected, otherwise within 12 hours (guidelines published in detail) .
Information for women
We developed a brochure of information that aimed to increase maternal awareness and vigilance to significant decreases in fetal activity, and to aid health-promoting behavior. This was provided as a part of the routine information given to women at the standard ultrasound assessment at 17–19 weeks of pregnancy (to which 98% of the population adhere). In addition to Norwegian, the brochure was available in Somali, Urdu, English, Turkish, and Arabic. The brochure included certain "rules of thumb" about fetal activity (additional files 1, 2, 3, 4, 5 and 6). The primary indicator of DFM was defined as her perception of a major and lasting reduction in the normal activity of her baby. In some situations the woman was advised to contact health-professionals for further examinations: 1) never to wait to the next day if the baby did not kick one day or, 2) if the baby kicked less and less in the course of a day/days, or 3) if she felt less than ten FM in 2 hours at a time of the day when the baby was usually active, and she perceived this as a reduction. As a guide to help the women to identify DFM, an invitation to use a kick chart was included. The informational brochure on FM for the mothers and new guidelines for health-care professionals were implemented in November 2005 in all hospitals included in the Femina trial.
The main outcome measures were all antepartum, intrapartum and neonatal death in the delivery room (i.e., the death occurred immediately after completion of delivery) from 28 completed weeks of gestation in women who were previously registered as having one or more episodes of DFM. As there was only one neonatal death, all deaths are called "stillbirths" in the following. The number of births and third trimester stillbirths (singleton and multiples) in the Norwegian population from the years 1999–2004 ranges between 56,374 to 59,927 births, and 2.9/1000 to 3.9/1000 stillbirths, respectively. However, as an additional 0.2/1000 to 0.4/1000 of stillbirths during the same period are registered as of unknown gestational age, this may be underestimates . Secondary outcomes for women with DFM were: severe neonatal depression, defined as Apgar score of < 3 at 5 minutes postpartum; symptoms of multisystem organ failure and pH < 7 in the umbilical artery or fetal capillary scalp, if obtained; preterm birth (28° – 366 weeks); FGR (< 10th percentile of birthweight adjusted for gender and mother's height, weight, parity, and ethnicity) ; fetal heart rate tracings judged clinically as nonreassuring and leading to intervention in labor; oligohydramnios defined as an amniotic fluid index of < 5 cm or at < 2.5th percentile; polyhydramnios defined as an amniotic fluid index of > 25 cm or at > 97.5th percentile; investigations undertaken for reduced FM; and examinations of DFM resulting in immediate admission for induction of labor or caesarean section. Outcomes related to maternal behavior were: the number of women waiting more than 24 hours with an absence of FM or more than 48 hours with a decrease of FM before contacting health-care professionals.
All statistical analysis were performed with SPSS version 15.0. (SPSS Chicago, IL, USA) using cross tabulations, with χ2 tests and logistic regressions to find crude (unadjusted) and adjusted odds ratios (OR) with 95% confidence intervals (CI). The level of statistical significance was set at p < 0.05. In the multivariate analysis, all outcomes were adjusted for potential confounding factors – such as maternal age, body mass index (BMI), smoking habits, parity, and ethnicity – due to prior knowledge of their impact on pregnancy outcomes and health-promoting behavior.
Number of cases included in the baseline and intervention cohorts are described in figure 1.
The number of women presenting with DFM remained unchanged during intervention at 6.3% versus 6.6% (OR 1.05; 95% CI 0.98–1.12, p = 0.19), respectively. The rate of unplanned repeat visits for DFM was consistently very low, but increased from 0.3% to 0.5%, p = 0.002.
Outcomes of the quality improvement intervention, N = 4253
Baseline % (n)
Intervention % (n)
MATERNAL BEHAVIOR IN DFM
Consultation rate of DFM
Time to contact > 24 hours in absent fetal movements
Time to contact ≥ 48 hours in DFM
E XAMINATIONS AT CONSULTATION FOR DFM
C ONSEQUENCES OF THE EXAMINATION FOR DFM
No follow up
Admissions for induction
Admissions for emergency section
P REGNANCY OUTCOMES
Non-reassuring heart rate tracings in labor (DFM)
Severe neonatal depression (DFM)
Admitted to neonatal care (DFM)
Preterm births 28°- 36 6 weeks (DFM)
FGR < 10 percent (DFM)
Normally formed stillbirths (DFM)
Stillbirths (rate in total population)
Normally formed stillbirths (rate in total population)
Descriptive characteristics: women with DFM before and during the intervention
Women with DFM before the intervention* n = 1215 n (%)†
Women with DFM during the intervention* n = 3038 n (%)†
Age, y mean (SD)
BMI, kg/m 2
Country of origin
At consultations for DFM the use of ultrasound increased while there were no differences in frequency of umbilical artery Doppler examinations. The complete detection rate of FGR following consultations for DFM and subsequent follow up was not captured, only diagnoses set at the initial consultation. This detection rate rose by 83% from 2.4% to 4.4%, p = 0.020 in term (> 36 weeks) pregnancies, and remained unchanged in the preterm (4.5% versus 4.0%, p = 0.604). The use of additional follow up consultations and admissions for induction as a consequence of the initial consultation for DFM was reduced and the number of emergency caesarean sections remained unchanged (table 1). No difference was seen in any other pre-specified secondary outcomes (data not shown).
We found that our interventions combining improved guidelines for management of DFM to health professionals and uniform information on fetal activity to expecting women improved the quality of care and was associated with a reduction of stillbirth rates in our population.
With a large prospective population-based cohort, a low "loss to follow-up" rate, a design with low risk of recruitment bias by outcome, ability to correct for anticipated confounders, large effects on hard outcomes, and confirmation of effects from independent data sources, the assessment of our intervention appear robust. Our quality assessment was conducted as a multi-intervention bundle that aimed to improve the in-hospital management of DFM, including clinical examination, the use of NST and ultrasound, recommended time-lines for health-care professionals, and excluding the use of Doppler. It included general information about fetal activity, recommendations for maternal care-seeking, several rules of thumb for recognizing DFM, and an FM chart as a supportive tool. It also included awareness among health-care professionals, since all obstetricians, general practitioners, community midwives, and others contributing to antenatal care in our population were informed in writing about the ongoing intervention. The exact effect size can only be estimated in randomized trials, which may be challenging and of moderate value unless each individual component of the bundle is tested in a separate trial [1, 25]. Implementing only parts of the bundle as a response to the findings of our initial quality-assurance data was not an option in our high-resource setting with a highly educated population. It was considered unacceptable to inform women about DFM without securing professional management of DFM according to the consensus of best practice, and equally unacceptable to perform quality assurance of management of DFM without informing the women to the best of our knowledge about their important role in identifying and reporting DFM.
A much-debated issue is whether women should receive uniform information about FM, and whether this should include formal fetal movement counting (FMC) . This is a method used by the mother to quantify FM, and the source of quantitative definitions of DFM, also called "alarm limits". Two main groups of counting methods exist, using either a "fixed time" or "fixed number" approach. The "Daily Movement Count"  reflects 12 hours of maternal FMC through an entire day (i.e., "fixed time"). This method was later modified to shorter and repeated periods of counting . The "Count to ten" or "Cardiff" method uses the time it takes to perceive ten movements (i.e., "fixed number") . The latter method is the most user-friendly, since a shorter time is needed to perform counting for normal pregnancies. This method has also been shown to have the highest compliance and acceptance rates [6, 35, 36]. While three controlled trials (one randomized) of FMC counting versus no counting has suggested benefit in preventing stillbirths [21, 37–39], a large cluster multicentred cluster-randomized controlled trial reported by Grant, Valentin, Elbourne & Alexander in 1989 failed to demonstrate the same benefit using a "Kick Chart" for all pregnancies versus only for risk pregnancies . This is the most referred-to and influential publication on maternal counting, and as such is often cited as evidence against FMC [1, 28, 41]. However, this trial had several of limitations [1, 6]. Of greatest importance is the issue of contamination between the groups through the use of "within-hospital" clusters. The problem of contamination is compounded by the use of Kick Charts for control-group women on the basis of clinical discretion as a part of the trial design. While no difference was shown in the stillbirth rate across the study groups, the overall late-gestation stillbirth rate fell during the study period from 4/1000 to 2.8/1000 .
The lowered overall stillbirth rates seen in the observational cohorts and during the cluster-randomized trial might, however, be attributable equally to increased awareness and vigilance, as to the actual FMC methods and alarm limits. Indeed, the cluster-randomized trial used extreme limits (ten movements in 10 hours for two days or no movements for one full day) and based their "count to ten" method on the mother's perception through the day, and not on focused counting while lying down. Thus, the women needed 162 minutes to count ten movements versus the average of 20 minutes reported in focused counting [20, 21, 42]. Despite the extreme nature of such limits, they are still widely used . There is no evidence that formal FMC with their fixed alarm limits are superior to maternal common sense, no evidence to support the introduction of such counting in any total population, and no rationale to perform trials using the existing alarm limits of FMC . Better tools to identify the pregnancy at risk by assessing FM patterns are needed, and they will have to be individually adjusted to identify change, not fixed levels, to reflect what pregnant women are actually reporting. However, the routine of daily FMC in the third trimester could provide additional vigilance in the individual pregnancy, and help the expectant mother to identify significant changes. Our information highlighted the importance of the woman's subjective perception of a significant and sustained reduction in FM as the primary indicator of DFM, and a cause to seek professional help. We suggested daily FMC only as a tool to aid monitor FM, and guided the woman with "ten FM within 2 hours" as a secondary rule of thumb in situations where she felt in doubt.
The goal of antepartum fetal surveillance is to exclude imminent fetal jeopardy, identify risk pregnancies and aid in the prevention of adverse outcomes . Controlled trials of management of DFM are lacking [7, 12]. While the behaviour of health-care professionals related to the time of referral or examination remained unchanged during the intervention, the use of ultrasound changed. This was in accordance with the consensus-based guidelines of our study  indicating that NST and ultrasound examination were the most useful tools for fetal surveillance in DFM, and consistent with the evidence for antepartum testing in other risk pregnancies [12, 44–46]
A weakness of the assessment of the intervention is that there are no codes for visits due to consultations for DFM in the electronic medical files of the Norwegian hospital system. Thus, no validation of the completeness of registrations of cases of DFM was possible with the anonymous of files used. Bias may have been introduced through the health professionals' inclusion of cases either by registration fatigue over time or increased enthusiasm by the general awareness caused by the intervention. This would, however, not affect the results on stillbirth rates in the total population, and not the outcomes among cases with DFM. Only a systematically skewed registration towards more or less severe cases of DFM would affect these results, and our design separating inclusion from outcome registration would counteract such effects. An additional weakness of the intervention is that we do not have the overall caesarean section and induction rate in the total population. However, it is unlikely that there would be any increase in the total population as the caesarean section rate following consultations for DFM remained unchanged and the induction rate was reduced. Clinical quality interventions in a population are based on the existing imperfections found by prior data collections of quality indicators, as we have demonstrated in our community. The results may thus not be directly transferable to other populations. Yet, reports from a variety of locations suggest that significant variability in the management of DFM and of information given to expecting women is a wide-spread quality issue in obstetric care [2, 5, 12, 29].
There may be concerns that such a quality improvement intervention would increase interventions and iatrogenic injuries. This was not observed in our population. There was no increase in consultations for DFM, and, while no formal cost analysis was performed, it is likely that the added cost of ultrasound was compensated by reduced use of admissions for induction and repeated follow up consultations. Increased confidence in the adequacy of the management plan could have contributed to this change in behavior among health-care professionals.
Improved quality of management of DFM and uniform information to improve the value of the existing "self-screening" of fetal activity was associated with a reduction in stillbirth rates in our population. For further improvements, new and individually adjusted definitions of DFM are needed, as well as randomized controlled trials to determine the optimal management and information to pregnant women with DFM. Further research is required to identify optimal methods for detecting important reductions in FM if DFM is to be an effective screening tool for adverse pregnancy outcomes.
Body mass index
Decreased fetal movements
Fetal growth restriction
Fetal Movement Counting
We want to express a special gratitude to all the participating hospitals and their coordinators for collecting the presented material: Live Grindaker Ask, Ingrid Borthen, Cecilie Bryn, Elisabeth Hals, Nora Pran Halvorsen, Kari Haugødegård, Elisabeth Heiberg, Lina Herstad, Ann Holstvoll, Berit Jacobsen, Åse Kari Kringlåk, Kristine Lem, Hege Lundring, Hårek Lysberg, Zelalem Mengistu, Mette Nordbø, Cecilie Nordklev, Lill Nyfløt, Richard Olsson, Inger-Lise Paulsen, Torill O'Reilly, Kjersti Rimstad, Åse Karin Rondestveit, Siri Skrøppa, Ruth Svarstad, Asbjørn Myren Svendsen, Torgrim Sørnes, Ursula Teufel, Ameli Trope, Ellen-Sofie Trovik, Christin Wendt, Stian Westad and Line Aaby.
Funding: This work has been supported by grants from The Norwegian Research Council, The Norwegian Women's Public Health Association, The Norwegian Medical Association, The Norwegian SIDS and Stillbirth Society, Unger Vetlesen Medical Foundation, Blix Foundation, Odd Fellow Foundation, Fulbright Foundation, American Women's Club of Oslo and Medinnova, The Norwegian Foundation for Health and Rehabilitation and National Resource Centre for Women's Health, Rikshospitalet University Hospital.
The funding sources had no involvement in the authors' work.
- Frøen JF: A kick from within – fetal movement counting and the cancelled progress in antenatal care. J Perinat Med. 2004, 32: 13-24. 10.1515/JPM.2004.003.View ArticlePubMedGoogle Scholar
- Frøen JF, Saastad E, Tveit JV, Børdahl PE, Stray-Pedersen B: [Clinical practice variation in reduced fetal movements]. Tidsskr Nor Laegeforen. 2005, 125: 2631-2634.PubMedGoogle Scholar
- Sergent F, Lefevre A, Verspyck E, Marpeau L: [Decreased fetal movements in the third trimester: what to do?]. Gynecol Obstet Fertil. 2005, 33: 861-869. 10.1016/j.gyobfe.2005.07.041.View ArticlePubMedGoogle Scholar
- Frøen JF, Arnestad M, Frey K, Vege Å, Saugstad OD, Stray-Pedersen B: Risk factors for sudden intrauterine unexplained death: Epidemiologic characteristics of singleton cases in Oslo, Norway, 1986–1995. Am J Obstet Gynecol. 2001, 184: 694-702. 10.1067/mob.2001.110697.View ArticlePubMedGoogle Scholar
- Heazell AE, Sumathi GM, Bhatti NR: What investigation is appropriate following maternal perception of reduced fetal movements?. J Obstet Gynaecol. 2005, 25: 648-650. 10.1080/01443610500278303.View ArticlePubMedGoogle Scholar
- Mangesi L, Hofmeyr GJ: Fetal movement counting for assessment of fetal wellbeing. Cochrane Database of Systematic Reviews. 2007, CD004909-Google Scholar
- Olesen AG, Svare JA: Decreased fetal movements: background, assessment, and clinical management. Acta Obstet Gynecol Scand. 2004, 83: 818-26. 10.1111/j.0001-6349.2004.00603.x.View ArticlePubMedGoogle Scholar
- Sadovsky E, Ohel G, Havazeleth H, Steinwell A, Penchas S: The definition and the significance of decreased fetal movements. Acta Obstet Gynecol Scand. 1983, 62 (5): 409-13. 10.3109/00016348309154211.View ArticlePubMedGoogle Scholar
- Sinha D, Sharma A, Nallaswamy V, Jayagopal N, Bhatti N: Obstetric outcome in women complaining of reduced fetal movements. J Obstet Gynaecol. 2007, 27: 41-43. 10.1080/01443610601016909.View ArticlePubMedGoogle Scholar
- Tuffnell DJ, Cartmill RS, Lilford RJ: Fetal movements; factors affecting their perception. European Journal of Obstetrics, Gynecology, & Reproductive Biology. 1991, 39: 165-7. 10.1016/0028-2243(91)90052-M.View ArticleGoogle Scholar
- Velazquez MD, Rayburn WF: Antenatal evaluation of the fetus using fetal movement monitoring. [Review] [48 refs]. Clinical Obstetrics & Gynecology. 2002, 45: 993-1004. 10.1097/00003081-200212000-00006.View ArticleGoogle Scholar
- Frøen JF, Tveit JV, Saastad E, Børdahl P, Stray-Pedersen B, Heazell AE, et al: Management of decreased fetal movements. Seminars in Perinatalogy. 2008, 32: 307-311. 10.1053/j.semperi.2008.04.015.View ArticleGoogle Scholar
- Cito G, Luisi S, Mezzesimi A, Cavicchioli C, Calonaci G, Petraglia F: Maternal position during non-stress test and fetal heart rate patterns. Acta Obstet Gynecol Scand. 2005, 84: 335-338. 10.1111/j.0001-6349.2005.00644.x.View ArticlePubMedGoogle Scholar
- Manders MA, Sonder GJ, Mulder EJ, Visser GH: The effects of maternal exercise on fetal heart rate and movement patterns. Early Human Development. 1997, 48: 237-47. 10.1016/S0378-3782(96)01858-0.View ArticlePubMedGoogle Scholar
- Sjostrom K, Valentin L, Thelin T, Marsal K: Maternal anxiety in late pregnancy: effect on fetal movements and fetal heart rate. Early Hum Dev. 2002, 67: 87-100. 10.1016/S0378-3782(01)00256-0.View ArticlePubMedGoogle Scholar
- DiPietro JA, Costigan KA, Gurewitsch ED: Fetal response to induced maternal stress. Early Hum Dev. 2003, 74: 125-138. 10.1016/j.earlhumdev.2003.07.001.View ArticlePubMedGoogle Scholar
- Eller DP, Stramm SL, Newman RB: The Effect of Maternal Intravenous Glucose-Administration on Fetal Activity. Am J Obstet Gynecol. 1992, 167: 1071-1074.View ArticlePubMedGoogle Scholar
- Coppens M, Vindla S, James DK, Sahota DS: Computerized analysis of acute and chronic changes in fetal heart rate variation and fetal activity in association with maternal smoking. American Journal of Obstetrics & Gynecology. 2001, 185: 421-426. 10.1067/mob.2001.115992.View ArticleGoogle Scholar
- Sebire NJ, Jolly M, Harris JP, Wadsworth J, Joffe M, Beard RW, et al: Maternal obesity and pregnancy outcome: a study of 287 213 pregnancies in London. International Journal of Obesity & Related Metabolic Disorders. 2001, 25: 1175-82. 10.1038/sj.ijo.0801670.View ArticleGoogle Scholar
- Valentin L, Lofgren O, Marsal K, Gullberg B: Subjective recording of fetal movements. I. Limits and acceptability in normal pregnancies. Acta Obstet Gynecol Scand. 1984, 63: 223-8. 10.3109/00016348409155501.View ArticlePubMedGoogle Scholar
- Moore TR, Piacquadio K: A Prospective Evaluation of Fetal Movement Screening to Reduce the Incidence of Antepartum Fetal Death. Am J Obstet Gynecol. 1989, 160: 1075-1080.View ArticlePubMedGoogle Scholar
- American Academy of Pediatrics, The American College of Obstetricians Gynecologists. Guidelines for perinatal care. 2002, Washington, DC:AAP and ACOG, 5
- Berbey R, Manduley A, Vigil-De Gracia P: Counting fetal movements as a universal test for fetal wellbeing. International Journal of Gynaecology & Obstetrics. 2001, 74: 293-5. 10.1016/S0020-7292(01)00438-6.View ArticleGoogle Scholar
- Flenady V, Gardener G, MacPhail J, Chadha Y, King J, Cole S, et al: Fetal Movement Monitoring: Practice in Australia and New Zealand. Proceedings of the Perinatal Society of Australia and New Zealand 9th Annual Congress, Perth. 2006Google Scholar
- Frøen , Heazell AE, Tveit JV, Saastad E, Fretts RC, Flenady V: Fetal movement assessment. Seminars in Perinatalogy. 2008, 32: 243-246. 10.1053/j.semperi.2008.04.004.View ArticleGoogle Scholar
- Heazell AE, Green M, Wright C, Flenady V, Froen JF: Midwives' and obstetricians' knowledge and management of women presenting with decreased fetal movements. Acta Obstet Gynecol Scand. 2008, 87: 331-339. 10.1080/00016340801902034.View ArticlePubMedGoogle Scholar
- ACOG: ACOG practice bulletin. Antepartum fetal surveillance. Number 9, October 1999 (replaces Technical Bulletin Number 188, January 1994). Clinical management guidelines for obstetrician-gynecologists. Int J Gynaecol Obstet. 2000, 68: 175-185. 10.1016/S0020-7292(00)80016-8.View ArticleGoogle Scholar
- National Institute for Clinical Excellence: Antenatal care: routine care for the healthy pregnant women. 2003, NICE, [http://www.nice.org.uk/CG62]Google Scholar
- Saastad E, Frøen JF: [Reduced fetal movements – clinical management, recommendations and information]. Tidsskr Nor Laegeforen. 2005, 125: 2627-2630.PubMedGoogle Scholar
- Saastad E, Ahlborg T, Frøen JF: Low Maternal Awareness of Fetal Movement is Associated With Small For Gestational Age Infants. Journal of Midwifery & Woman's Health. 2008, 53: 345-352. 10.1016/j.jmwh.2008.03.001.View ArticleGoogle Scholar
- Medical Birth Registry of Norway: 2007, [http://www.fhi.no/eway/default.aspx?pid=233&trg=MainArea_5661&MainArea_5661=5565:0:15,3278:1:0:0:::0:0]
- Gardosi J, Mongelli M, Wilcox MA, Chang A, Sahota D, Francis A: Gestation related optimal weight (GROW) program. Software version 3. 2000, WMPI, Birmingham, UK, [http://www.gestation.net]Google Scholar
- Sadovsky E, Yaffe H: Daily fetal movement recording and fetal prognosis. Obstet Gynecol. 1973, 41: 845-50.PubMedGoogle Scholar
- Pearson JF: Fetal movement recording: a guide to fetal well-being. Nurs Times. 1979, 75: 1639-1641.PubMedGoogle Scholar
- Christensen FC, Olson K, Rayburn WF: Cross-over trial comparing maternal acceptance of two fetal movement charts. J Matern Fetal Neonatal Med. 2003, 14: 118-122. 10.1080/713606554.View ArticlePubMedGoogle Scholar
- Gomez LM, De la Vega G, Padilla L, Bautista F, Villar A: Compliance with a fetal movement chart by high-risk obstetric patients in a Peruvian hospital. Am J Perinatol. 2007, 24: 89-93. 10.1055/s-2006-958160.View ArticlePubMedGoogle Scholar
- Neldam S: Fetal movements as an indicator of fetal wellbeing. Lancet. 1980, 1: 1222-4. 10.1016/S0140-6736(80)91681-5.View ArticlePubMedGoogle Scholar
- Neldam S: Fetal movements as an indicator of fetal well-being. Dan Med Bull. 1983, 30: 274-8.PubMedGoogle Scholar
- Westgate J, Jamieson M: Stillbirths and fetal movements. N Z Med J. 1986, 99: 114-6.PubMedGoogle Scholar
- Grant A, Valentin L, Elbourne D, Alexander S: Routine Formal Fetal Movement Counting and Risk of Antepartum Late Death in Normally Formed Singletons. Lancet. 1989, 2: 345-349. 10.1016/S0140-6736(89)90535-7.View ArticlePubMedGoogle Scholar
- Sosial-og Helsedirektoratet: Retningslinjer for svangerskapsomsorgen [Guidelines for antenatal care]. 2005, Sosial-og HelsedirektoratetGoogle Scholar
- Smith CV, Davis SA, Rayburn WF: Patients' acceptance of monitoring fetal movement. A randomized comparison of charting techniques. Journal of Reproductive Medicine. 1992, 37: 144-6.PubMedGoogle Scholar
- Heazell AE, Froen JF: Methods of fetal movement counting and the detection of fetal compromise. [Review] [66 refs]. Journal of Obstetrics & Gynaecology. 2008, 28: 147-154. 10.1080/01443610801912618.View ArticleGoogle Scholar
- Dubiel M, Gudmundsson S, Thuring-Jonsson A, Maesel A, Marsal K: Doppler velocimetry and nonstress test for predicting outcome of pregnancies with decreased fetal movements. Am J Perinatol. 1997, 14: 139-44. 10.1055/s-2007-994114.View ArticlePubMedGoogle Scholar
- Neilson JP, Alfirevic Z: Doppler ultrasound for fetal assessment in high risk pregnancies. Cochrane Database of Systematic Reviews. 2000, CD000073-Google Scholar
- Pattison N, McCowan L: Cardiotocography for antepartum fetal assessment. [Review] [4 refs]. Cochrane Database of Systematic Reviews. 2000, CD001068-Google Scholar
- The pre-publication history for this paper can be accessed here:http://www.biomedcentral.com/1471-2393/9/32/prepub
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