Literature DB >> 32365485

Complementary Feeding in Preterm Infants: Where Do We Stand?

Maria Elisabetta Baldassarre1, Maria Lorella Giannì2,3, Antonio Di Mauro1, Fabio Mosca2,3,4, Nicola Laforgia1.   

Abstract

Currently, about 15 million preterm births occur annually worldwide; over 500,000 in Europe and 32,000 in Italy, accounting for 7-11% of total births, with the highest incidence in low-income states [...].

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Year:  2020        PMID: 32365485      PMCID: PMC7281965          DOI: 10.3390/nu12051259

Source DB:  PubMed          Journal:  Nutrients        ISSN: 2072-6643            Impact factor:   5.717


Currently, about 15 million preterm births occur annually worldwide; over 500,000 in Europe and 32,000 in Italy, accounting for 7–11% of total births, with the highest incidence in low-income states. Most babies are born before 32 weeks of gestation, whereas 1.58% are born earlier [1]. Great effort has been made to decrease the burden of mortality and morbidity of prematurity [2]. Preterm infants experience the impaired development of the structure and function of key organs and systems due to the interruption of the physiological intrauterine organogenesis with consequent exposure to the extrauterine environment at a time when organ plasticity is exceptionally high. Preterm infants are at increased risk of adverse health outcomes, further exacerbated by the frequent association of different co-morbidities [2,3,4]. Early nutrition and growth are key contributors to the modulation of both short and long-term infant health outcomes [5]. Preterm infants have different nutritional needs to their term peers in terms of energy, macronutrients and micronutrients intake [6]. Besides, they frequently develop significant postnatal growth retardation [7] with altered body composition [8,9]. Preterm infants develop a relative reduction in fat free mass with increased adiposity, which, respectively, may contribute to adverse neuro and metabolic outcomes [8,9,10,11]. Accordingly, both the prevention and recovery of any nutritional deficits accounting for growth pattern and body composition alterations should be a priority for the nutritional care of infants born preterm. The introduction of solid foods (thereafter referred to as weaning) is associated with major changes in both macronutrients and micronutrients intake, with the risk of nutritional deficits or excesses for infants undergoing a rapid growth and development during this period of life [12]. Yet, surprisingly, relatively little attention has been paid to defining both the ideal age and the detailed content of weaning and to their future possible effects on later health and development [13]. No evidence-based guidelines are available regarding the most appropriate time and method of weaning preterm infants—a much-debated issue, partly because of the postnatal cumulative nutritional deficits reported in this very vulnerable population [14]. In 1974 and 1980, the English Department of Health suggested that “few infants should require solids before 3 months and most by 6 months” [15,16]. Then, in 1994, the Committee on Medical Aspects of Food and Nutrition Policy recommended the introduction of solid foods between 5 and 8 months of age, but the individual differences among infants, in terms of either acquired development milestones or specific nutritional needs, were not evaluated [17]. The Joint Consensus Statement on weaning of preterm infants in 2008 suggested “preterm infants should be considered for weaning between 5 and 8 months of uncorrected age to ensure that sensitive periods for the acceptance of solids are not missed and to allow development of appropriate feeding skills” [18]. In 2012, Palmer and Makrides, on the basis of limited available evidence, concluded that starting weaning at three months of corrected age could be appropriate for the majority of preterm infants, including those of lowest gestational ages [19]. Moreover, weaning too early (before 16 weeks of chronological age) may cause an increased risk of allergy and anemia whereas a delayed weaning (after 7 to 10 months of chronological age) may lead to the development of avoidance feeding behavior [19]. Norris et al. evaluated current infant feeding practices among caregivers of preterm infants: two hundred fifty-three infants born preterm were recruited in southeast England over a 2-year period [20]. They reported that the introduction of solid foods varied widely, and that compliance with the few existing general recommendations on weaning was poor [20]. In accordance with these findings, an Italian study demonstrated that, in the absence of a general consensus, primary-care pediatricians have very different approaches to the weaning of healthy preterm infants [21]. Although the early introduction of weaning foods has been suggested for promoting weight gain and recovery of nutritional deficits [22], there is general concern regarding the association between weight gain and the increased risk of obesity and metabolic syndrome later in life [23]. Previous studies have reported inconsistent findings regarding the relationship between the start of weaning and growth, probably because preterm infants of different gestational ages and birth weights were included. In a blinded randomized clinical trial including preterm infants <37 weeks of gestation, Marriot et al. found, in infants weaned at 14.9 weeks postnatal age (intervention group) compared to infants weaned at 17.8 weeks postnatal age (control group), between term and 12 months of corrected age, a greater increase in length growth velocity and higher mean hemoglobin and serum iron levels at 6 months of corrected age [24]. Spiegler et al., in a prospective cohort study, reported that at two years of corrected age, a positive effect of the early introduction of complementary foods on length and weight: very low birth weight infants were on average ~0.4 cm taller (95% CI −0.1 to −0.6) and 100 g heavier (95% CI −0.02 to −0.2) for each month of earlier introduction of complementary food [25]. A positive association between weaning before four months of corrected age and weight gain at 18 to 24 months of corrected age, in very preterm infants born with a gestational age <32 weeks, was reported by Rodriguez et al. [26]. Instead, Gupta et al. reported similar growth parameters at 12 months of corrected age in preterm infants (<34 weeks of gestation) randomized to start weaning either at 4 or 6 months of corrected age [27]. They have also investigated motor and mental development, lipid profile, insulin resistance, blood pressure and serum ferritin showing no differences among groups. However, it must be considered the work of Gupta et al. was conducted in a low-income country and, as a result, their findings may not be applicable to different situations [27]. Morgan et al. evaluated two trials of preterm infants (<37 weeks of gestational age), weaned either early (≤12 weeks) or late (>12 weeks), reporting comparable growth rates between 3 and 9 months post-term; moreover, the attained weight and length at 18 months post-term did not differ between both groups [28]. A systematic review of five studies was not able to perform a meta-analysis, because the outcomes evaluated were not comparable [14]. Two studies evaluated body mass index (BMI): one did not report any significant difference of BMI index Z-score at 1 year between early- and late-weaned infants [27], whereas the other study concluded that, at 1 year of age, the risk of higher BMI was lower when weaning started ≤4 months of age [29]. Morgan et al. found a greater gain in the subscapular skinfold thickness between 3 and 9 months post-term in the early weaned group (before 12 weeks post term) [28]. At the moment, no clear conclusion can be drawn on the relationship between weaning and infants’ later risk of overweight and obesity.

Conclusions

The increased nutritional needs of preterm infants should be adequately met for storage and to maintain and support catch-up growth during the first year of life [11]. The lack of scientific evidence regarding the optimal age and content of weaning result in different, sometime conflicting, indications by caregivers, often leaving parents and caregivers alone and confused. According to the available data, there is no definite positive effect of early weaning on infant growth and nutritional outcomes, but, at the same time, early weaning seems to not be associated with an increased risk of overweight/obesity later in life.
  25 in total

1.  Does weaning influence growth and health up to 18 months?

Authors:  J B Morgan; A Lucas; M S Fewtrell
Journal:  Arch Dis Child       Date:  2004-08       Impact factor: 3.791

2.  Body composition in late preterm infants according to percentile at birth.

Authors:  Maria Lorella Giannì; Paola Roggero; Nadia Liotto; Francesca Taroni; Antonio Polimeni; Laura Morlacchi; Pasqua Piemontese; Dario Consonni; Fabio Mosca
Journal:  Pediatr Res       Date:  2015-12-30       Impact factor: 3.756

Review 3.  Global burden of prematurity.

Authors:  Margo S Harrison; Robert L Goldenberg
Journal:  Semin Fetal Neonatal Med       Date:  2015-12-28       Impact factor: 3.926

Review 4.  Improving growth in preterm infants during initial hospital stay: principles into practice.

Authors:  Richard J Cooke
Journal:  Arch Dis Child Fetal Neonatal Ed       Date:  2016-02-11       Impact factor: 5.747

5.  Length and weight of very low birth weight infants in Germany at 2 years of age: does it matter at what age they start complementary food?

Authors:  J Spiegler; N Eisemann; S Ehlers; T Orlikowsky; O Kannt; E Herting; W Göpel
Journal:  Eur J Clin Nutr       Date:  2015-04-15       Impact factor: 4.016

Review 6.  Epidemiology of preterm birth.

Authors:  Stephanie E Purisch; Cynthia Gyamfi-Bannerman
Journal:  Semin Perinatol       Date:  2017-09-01       Impact factor: 3.300

Review 7.  Weaning and complementary feeding in preterm infants: management, timing and health outcome.

Authors:  Roberta Barachetti; Elisabetta Villa; Mario Barbarini
Journal:  Pediatr Med Chir       Date:  2017-12-22

8.  Introducing solid foods to preterm infants in developed countries.

Authors:  D J Palmer; M Makrides
Journal:  Ann Nutr Metab       Date:  2012-04-30       Impact factor: 3.374

Review 9.  Complementary Feeding: A Position Paper by the European Society for Paediatric Gastroenterology, Hepatology, and Nutrition (ESPGHAN) Committee on Nutrition.

Authors:  Mary Fewtrell; Jiri Bronsky; Cristina Campoy; Magnus Domellöf; Nicholas Embleton; Nataša Fidler Mis; Iva Hojsak; Jessie M Hulst; Flavia Indrio; Alexandre Lapillonne; Christian Molgaard
Journal:  J Pediatr Gastroenterol Nutr       Date:  2017-01       Impact factor: 2.839

10.  The Impact of Timing of Introduction of Solids on Infant Body Mass Index.

Authors:  Cong Sun; Rebecca J Foskey; Katrina J Allen; Shyamali C Dharmage; Jennifer J Koplin; Anne-Louise Ponsonby; Adrian J Lowe; Melanie C Matheson; Mimi L K Tang; Lyle Gurrin; Melissa Wake; Matthew Sabin
Journal:  J Pediatr       Date:  2016-09-20       Impact factor: 4.406

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  7 in total

1.  Introduction and feeding practices of solid food in preterm infants born in Salzburg!

Authors:  Edda Hofstätter; Verena Köttstorfer; Patricia Stroicz; Sebastian Schütz; Lorenz Auer-Hackenberg; Johannes Brandner; Martin Wald
Journal:  BMC Pediatr       Date:  2021-01-27       Impact factor: 2.125

2.  Complementary Feeding in the Preterm Infants: Summary of Available Macronutrient Intakes and Requirements.

Authors:  Guglielmo Salvatori; Ludovica Martini; On Behalf Of The Study Group On Neonatal Nutrition And Gastroenterology-Italian Society Of Neonatology
Journal:  Nutrients       Date:  2020-11-30       Impact factor: 5.717

Review 3.  Overview of Important Micronutrients Supplementation in Preterm Infants after Discharge: A Call for Consensus.

Authors:  Laura Ilardi; Alice Proto; Federica Ceroni; Daniela Morniroli; Stefano Martinelli; Fabio Mosca; Maria Lorella Giannì
Journal:  Life (Basel)       Date:  2021-04-10

Review 4.  Preterm's Nutrition from Hospital to Solid Foods: Are We Still Navigating by Sight?

Authors:  Beatrice Letizia Crippa; Daniela Morniroli; Maria Elisabetta Baldassarre; Alessandra Consales; Giulia Vizzari; Lorenzo Colombo; Fabio Mosca; Maria Lorella Giannì
Journal:  Nutrients       Date:  2020-11-27       Impact factor: 5.717

5.  Premature Birth is an Independent Risk Factor for Early Adiposity Rebound: Longitudinal Analysis of BMI Data from Birth to 7 Years.

Authors:  Maria Elisabetta Baldassarre; Antonio Di Mauro; Margherita Caroli; Federico Schettini; Valentina Rizzo; Raffaella Panza; Alessia De Giorgi; Manuela Capozza; Margherita Fanelli; Nicola Laforgia
Journal:  Nutrients       Date:  2020-11-27       Impact factor: 5.717

Review 6.  Complementary feeding in preterm infants: a position paper by Italian neonatal, paediatric and paediatric gastroenterology joint societies.

Authors:  Maria Elisabetta Baldassarre; Raffaella Panza; Francesco Cresi; Guglielmo Salvatori; Luigi Corvaglia; Arianna Aceti; Maria Lorella Giannì; Nadia Liotto; Laura Ilardi; Nicola Laforgia; Luca Maggio; Paolo Lionetti; Carlo Agostoni; Luigi Orfeo; Antonio Di Mauro; Annamaria Staiano; Fabio Mosca
Journal:  Ital J Pediatr       Date:  2022-08-05       Impact factor: 3.288

7.  Complementary Feeding and Growth in Infants Born Preterm: A 12 Months Follow-Up Study.

Authors:  Giovanni Boscarino; Maria Giulia Conti; Federica Pagano; Maria Di Chiara; Chiara Pannucci; Elisa Onestà; Rita Prota; Giorgia Deli; Lucia Dito; Daniela Regoli; Salvatore Oliva; Gianluca Terrin
Journal:  Children (Basel)       Date:  2021-11-24
  7 in total

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