4 results match your criteria: "Zealand University College[Affiliation]"
J Neonatal Perinatal Med
January 2023
Department of Clinical Biochemistry, Naestved Hospital, Zealand University College, Naestved, Denmark.
Objective: To define criteria based on iron status parameters for the identification of healthy women who do need/do not need iron supplementation during normal pregnancy.
Methods: Randomized, double-blind, placebo-controlled study of 113 women (62 iron-, 51 placebo treated) and their newborns. Iron dose was 66 mg elemental iron as ferrous fumarate daily from 14-18 weeks gestation to delivery.
J Neonatal Perinatal Med
December 2022
Department of Clinical Biochemistry, Naestved Hospital, Zealand University College, Naestved, Denmark.
Objective: To assess effects of iron supplementation, 66 mg elemental iron daily as ferrous fumarate, on iron status markers during normal pregnancies.
Methods: Randomized, double-blind, placebo-controlled study of 119 women (62 iron-, 57 placebo -treated) and their newborns. Hemoglobin (Hb), serum (S)-ferritin, S-transferrin saturation percentage (TSAT) and S-erythropoietin (S-EPO) were measured at 14-18, 24-27 weeks of gestation, prepartum, 1 and 8 weeks postpartum.
Vet Pathol
May 2016
Department of Sport and Exercise Science, University of Auckland, Auckland, New Zealand.
The third carpal bone (C3) responds to exercise by adaptive modeling of bone and articular calcified cartilage along the dorsal load path. Canals penetrating articular calcified cartilage, thought to contain vascular tissue, are reported in numerous species. Their significance remains unclear.
View Article and Find Full Text PDFJ Physiol
June 2014
Auckland Bioengineering Institute, University of Auckland, Auckland, New Zealand University College London, London, UK.
Phylogenetic analyses based on models of molecular sequence evolution have driven to industrial scale the generation, cataloguing and modelling of nucleic acid and polypeptide structure. The recent application of these techniques to study the evolution of protein interaction networks extends this analytical rigour to the study of nucleic acid and protein function. Can we further extend phylogenetic analysis of protein networks to the study of tissue structure and function? If the study of tissue phylogeny is to join up with mainstream efforts in the molecular evolution domain, the continuum field description of tissue biophysics must be linked to discrete descriptions of molecular biochemistry.
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