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Therapeutic hypothermia (TH) using servo-controlled cooling devices has proved to be a safe and effective method to reduce mortality and sequelae in neonates with hypoxic-ischemic encephalopathy (HIE). However, such cooling devices can be expensive and have limited availability in low-and middle-income countries. To evaluate the feasibility and effectiveness of low-cost cooling devices (ice packs) to reach and maintain the target temperature in newborns with moderate or severe HIE. Descriptive retrospective cross-sectional study, including newborns with gestational age ≥35 weeks, weight ≥1800 g, with diagnosis of moderate or severe HIE, submitted to whole body hypothermia using ice packs for 72 hr. Data was obtained from medical records and databases. The thermal curves of each patient, time spent at the target temperature and rewarming time were evaluated. Complications directly related to therapeutic hypothermia, evolution, and early outcomes before hospital discharge were analyzed. Seventy-one newborns met the criteria for TH, and 61 completed the entire cooling period and were included in the final analysis. The average time to reach the target temperature was 1.50 ± 1.3 hr. The mean temperature during the cooling period was 33.5 C (±0.62). 82.32% of the measurements were within the target temperature range (from 33 to 34 C). The following adverse events were observed during TH: pulmonary hypertension 11.3%, arrhythmia 4.2%, and coagulopathy 26.7%. Whole body hypothermia using low-cost devices proved to be an effective method in the absence of availability of servo-controlled devices, representing a plausible option in restricted resource settings.

Neonatology has experienced a significant reduction in mortality rates of the preterm population and critically ill infants over the last few decades. Now, the emphasis is directed toward improving long-term neurodevelopmental outcomes and quality of life. Brain-focused care has emerged as a necessity. The creation of neonatal neurocritical care units, or Neuro-NICUs, provides strategies to reduce brain injury using standardized clinical protocols, methodologies, and provider education and training. Bedside neuromonitoring has dramatically improved our ability to provide assessment of newborns at high risk. Non-invasive tools, such as continuous electroencephalography (cEEG), amplitude-integrated electroencephalography (aEEG), and near-infrared spectroscopy (NIRS), allow screening for seizures and continuous evaluation of brain function and cerebral oxygenation at the bedside. Extended and combined uses of these techniques, also described as multimodal monitoring, may allow practitioners to better understand the physiology of critically ill neonates. Furthermore, the rapid growth of technology in the Neuro-NICU, along with the increasing use of telemedicine and artificial intelligence with improved data mining techniques and machine learning (ML), has the potential to vastly improve decision-making processes and positively impact outcomes. This article will cover the current applications of neuromonitoring in the Neuro-NICU, recent advances, potential pitfalls, and future perspectives in this field.

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