Neurocognitive Symptoms Due to Respiratory infections: Comparison
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Please note this is a comparison between Version 2 by Beatrix Zheng and Version 1 by Karen Bohmwald.

Respiratory infections are among the major public health burdens, especially during winter. Along these lines, the human respiratory syncytial virus (hRSV) is the principal viral agent causing acute lower respiratory tract infections leading to hospitalization. The pulmonary manifestations due to hRSV infection are bronchiolitis and pneumonia, where the population most affected are infants and the elderly. However, recent evidence suggests that hRSV infection can impact the mother and fetus during pregnancy. Studies have indicated that hRSV can infect different cell types from the placenta and even cross the placenta barrier and infect the fetus. In addition, it is known that infections during the gestational period can lead to severe consequences for the development of the fetus due not only to a direct viral infection but also because of maternal immune activation (MIA). Furthermore, it has been described that the development of the central nervous system (CNS) of the fetus can be affected by the inflammatory environment of the uterus caused by viral infections. Increasing evidence supports the notion that hRSV could invade the CNS and infect nervous cells, such as microglia, neurons, and astrocytes, promoting neuroinflammation. Moreover, it has been described that the hRSV infection can provoke neurological manifestations, including cognitive impairment and behavioral alterations.

  • human respiratory syncytial virus
  • maternal immune activation
  • central nervous system
  • neurological alterations

1. Introduction

Globally, respiratory infections are a major public health burden due to the high hospitalizations, morbidity, and mortality rates [1,2][1][2]. One of the viruses responsible for causing acute lower respiratory tract infections (ALRTI) is the human respiratory syncytial virus (hRSV) [1,3][1][3]. This virus belongs to the Pneumoviridae family and contains a negative-sense, single-strain enveloped RNA molecule [4,5][4][5]. The respiratory pathologies associated with hRSV infection can vary from rhinorrhea, cough, congestion, low-grade fever, and respiratory distress, leading to more severe symptoms such as bronchiolitis and pneumonia [1,3,5][1][3][5]. The populations affected more severely are infants and the elderly, and the positive cases in infants can reach up to 33 million per year worldwide [6,7][6][7]. Virtually all infants under two years old have been infected at least once by hRSV, and the rate of reinfection in these infants is nearly 40% [6,8][6][8]. Annually, hRSV infection causes more than three million hospitalizations in children under five years old. Children that are more likely to develop complications during hospitalization are the group possessing high-risk factors, such as preterm birth, chronic lung pathologies, and immunosuppression [2,5][2][5]. Since the identification of hRSV, it was established that this virus circulates during the fall-winter period, but lately, some reports have indicated a circulation delay beginning in spring and lasting until summer [9,10,11,12][9][10][11][12]. These changes in the circulations have been associated with an increase of positive cases [13], which could lead to augmented hospitalization rates. Even though there have been numerous efforts to control infections by this virus, there is no vaccine approved for human use, and the only specific prophylaxis used against hRSV infection is the monoclonal antibody Palivizumab [14,15][14][15].
Although the primary targets of the infection with hRSV are the epithelial lung cells, it has been demonstrated that hRSV can also infect cells in the central nervous system (CNS) and the placenta [16,17,18][16][17][18]. Several reports suggest that the infection with hRSV can cause neurological symptoms, such as encephalitis and encephalopathies, leading to long-term neurological consequences [19,20,21][19][20][21]. In addition, some reports evidence that the infection with hRSV can severely affect pregnant women, leading to more severe symptoms during pregnancy [22,23][22][23]. Even more, it has been suggested that through the placenta, hRSV can infect the fetus and cause them to develop long-term neurological sequels [24].

2. Neurological Consequences due to hRSV Infection

The hRSV-infection not only affects the respiratory tract but can also develop neurological manifestations, which might lead in some cases to long-term neurological sequels [19]. Since the infection with hRSV promotes a more severe disease in infants, the neurological complications that this virus can produce are generally studied in this population [6,19][6][19]. In this section, it will be discussed the consequences related to the infection with hRSV on the CNS.
The neurological complications in infants infected by hRSV were firstly reported during a study performed on febrile infants in 1970 [77][25]. Among these infants, the patients infected with hRSV presented facial palsy and hemiplegia [77][25]. To date, several reports indicate that the infection with hRSV on infants can lead to the development of ataxia, febrile or epileptic state, encephalitis, and encephalopathies, among other symptoms [19,78,79,80,81][19][26][27][28][29]. Among these patients with neurological symptoms, the genetic material of hRSV was found on the cerebrospinal fluid (CSF) and presented elevated cytokines [82,83][30][31]. The percentage of acute encephalitis or encephalopathy cases in infants due to the infection with hRSV can reach up to 6.5% [84][32]. Unfortunately, not all children can recover entirely from the neurological symptoms, and even 7% of the cases result in the death of the patient [84][32]. Recently, a rare manifestation that contributes to neurological symptoms due to the infection with hRSV was reported [85][33]. In this report, the two-month-old infant infected by hRSV developed seizures, encephalopathy, and the syndrome of inappropriate antidiuretic hormone secretion (SIADH) [85][33]. The follow-up performed ten months after the onset of the symptoms showed problems in the patient regarding neuromotor development, mobility, and visual functions [85][33].
The neuropathologies caused by a viral agent can lead to long-term sequels, such as cognitive and psychiatric disorders, even after the infection has been cleared [86][34]. In the case of hRSV, patients infected with the virus might develop neuromotor impairment, as previously mentioned, or present learning impairment [85,87][33][35]. Among the learning complications reported for hRSV positive cases, a study evaluated the difficulties in learning the native language of infants that suffered from a severe infection within their first six-month-old [87][35]. During this study, it was observed that patients with severe hRSV-infection under six months of age lead to poor differentiation between native and non-native phonetic, associating the lack of ability to learn the language with memory impairments [87][35]. Even more, this phenotype lasted up to twelve-month-old and was associated with a detrimental development of communication abilities [87][35]. A possible explanation for these cognitive consequences comes from a case of an infant infected with hRSV who showed abnormal magnetic resonance imaging (MRI) regarding the hippocampus, which is a zone of the brain that plays a significant role in long-term memory. Its damage contributes to long-term memory impairments [88,89][36][37]. Since the ability to learn a language and phonetics is performed through short- and long-term memory [90][38], it can be suggested that hRSV could have infected the cells located in the hippocampus, which affected the long-term memory, leading to learning language impairment.
Based on what was previously described, it has been suggested that the hippocampus might be involved in developing long-term neurologic consequences due to the infection with hRSV, and in vivo studies were able to demonstrate it [91][39]. This in vivo study showed that hRSV could reach the brain and be detected in several brain zones, such as the olfactory bulb, cortex, hippocampus, and ventromedial hypothalamic nucleus [91][39]. The evaluation of the long-term learning impairment was through the Morris water maze (MWM), which demonstrated that 30 days post-infection with hRSV, the rats developed difficulties in spatial learning capacities [91][39]. It was also shown that the rats infected with hRSV presented a defective long-term potentiation (LTP) response, which is a process that potentiates the long-lasting signaling between the CA3 and CA1 neurons in the hippocampus [91,92][39][40]. This finding provided valuable information regarding the brain region that might be responsible for the long-term memory consequence of the infection with hRSV [91][39].
Additionally, in vivo studies evaluated the behavioral impairment through the Marble Burying test (MB), which measures the spontaneous and natural behavior of the mice related to the ventral hippocampus function [17,91][17][39]. These studies demonstrated that behavioral impairment in the infected mice could be present from 30 to 60 days post-infection with hRSV [17,91][17][39]. However, at 90 days post-infection, the mice infected with hRSV showed similar behavior to the control [17,91][17][39]. Interestingly, the infection with hRSV modifies the permeability of the blood-brain barrier (BBB) of the mice, which leads to the infiltration of immune cells into the brain and an increased level of pro-inflammatory cytokines, possibly contributing to the behavioral alterations on the mice infected with hRSV [17].
Since it has been established that hRSV is capable of infecting different types of cells from the placenta of pregnant women and cells of the fetus, such as Hofbauer cells [42][41], it can be suggested that the infection can be passed on to the fetus and cause detrimental development of the CNS from the fetus. These problems in the development of the CNS might make the infants more susceptible to developing neurological symptoms and long-term neurological sequels after infection with hRSV, such as memory and behavioral impairment (Figure 21) [19,87][19][35]. Therefore, this option needs to be further evaluated.
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Figure 21. Possible consequences of the infection with hRSV during pregnancy on the fetus and infant. The infection with hRSV on a pregnant woman can develop mild symptoms such as cough, congestion, and in the more severe cases, the mother might need ICU-level care. Additionally, the infection with hRSV has been associated with preterm birth. This infection might cause alterations in the development of the fetus and promote more cases of neurological consequences on the infants, which can develop encephalitis, encephalopathy, and impaired language learning.

3. Conclusions

Respiratory infections are a public health problem that causes high rates of hospitalization worldwide every winter season. According to this, hRSV is responsible for ALTRI leading to morbidity and mortality principally in infants and the elderly [1,2][1][2]. Besides the knowledge about the hRSV infection in the risk population usually studied, pregnant women have shown that they can suffer a severe respiratory illness caused by hRSV with poorly studied consequences [22,34,93][22][42][43].
Importantly, recent evidence shows that hRSV can infect placental cells, cross the placental barrier, and, therein, be vertically transmitted to the fetus [18,24,40][18][24][44]. One of the unknown relevant issues is the MIA effect on hRSV infection, which is essential since MIA has been associated with cognitive and behavioral impairment and neuropsychiatric illnesses such as SCZ and ASD [32,53,57,94][45][46][47][48]. The critical information about the harmful effect of MIA on the neurodevelopment of the fetus with neurological consequences in adulthood came from the Poly: IC model, which provides valuable evidence of the alteration of neurotransmitters pathways and cytokines expression that affect brain development [95,96][49][50]. However, this model cannot be extrapolated to a specific viral infection in humans. What is known is that the Influenza virus, which infects pregnant women and impacts the fetus principally in the second and third trimester of pregnancy, can trigger MIA in animal models [69,97][51][52]. Accordingly, prenatal Influenza virus infections increase maternal cytokines promoting an imbalance in the fetus cytokines that alter the normal neurodevelopment and neurotransmitters signaling, as was observed in SCZ and ASD [31,50][53][54].
Regarding the role of MIA in hRSV infection and its impact on the fetus, no studies have been performed. The current knowledge about the hRSV and neurological alterations came from reports showing that patients with hRSV infection have seizures, encephalitis, and encephalopathies [19,98,99][19][55][56]. Besides, elevated cytokines and viral RNA were found in CSF from patients with neurological manifestations [82,83][30][31]. In this context, evaluations of the neurological effects of hRSV infection in animal models showed that viral RNA and proteins could be detected in the brain of infected animals [91][39]. Additionally, the hRSV infection induces an increase in the BBB permeability, allowing the infiltration of immune cells and increased levels of cytokines in the brain of infected animals [17]. Cognitive and behavioral impairments were observed 30 to 60 days post-infection, which could be explained by the possible hRSV effect on infected CNS cells [17]. Due to these results, the first study regarding the possible neurological effects of the hRSV infection was conducted in infants was impairment of language acquisition impairment was found [87][35]. All these data showed the potential harm that the hRSV infection could be for normal brain development, but there is not enough research in this field.
Importantly, antibodies generated against a virus can be passed towards the offspring, and by doing so, they can confer neurological protection to the fetus [99][56]. This neuroprotection is achieved since the antibodies can reach the placenta and spread via the umbilical cord to the CNS on the fetus, accumulating these antibodies on the neural tissue [99][56]. Based on this, the possibility of immunizing women during pregnancy is an area that needs to be evaluated as a possible solution to avoid possible neurological consequences on the infant.

References

  1. Barr, R.; Green, C.A.; Sande, C.J.; Drysdale, S.B. Respiratory syncytial virus: Diagnosis, prevention and management. Ther. Adv. Infect. Dis. 2019, 6, 204993611986579.
  2. Caballero, M.T.; Polack, F.P. Respiratory syncytial virus is an “opportunistic” killer. Pediatr. Pulmonol. 2018, 53, 664–667.
  3. Mammas, I.N.; Drysdale, S.B.; Rath, B.; Theodoridou, M.; Papaioannou, G.; Papatheodoropoulou, A.; Koutsounaki, E.; Koutsaftiki, C.; Kozanidou, E.; Achtsidis, V.; et al. Update on current views and advances on RSV infection (Review). Int. J. Mol. Med. 2020, 46, 509–520.
  4. Amarasinghe, G.K.; Ayllón, M.A.; Bào, Y.; Basler, C.F.; Bavari, S.; Blasdell, K.R.; Briese, T.; Brown, P.A.; Bukreyev, A.; Balkema-Buschmann, A.; et al. Taxonomy of the order Mononegavirales: Update 2019. Arch. Virol. 2019, 164, 1967–1980.
  5. Bohmwald, K.; Espinoza, J.A.; Rey-Jurado, E.; Gómez, R.S.; González, P.A.; Bueno, S.M.; Riedel, C.A.; Kalergis, A.M. Human Respiratory Syncytial Virus: Infection and Pathology. Semin. Respir. Crit. Care Med. 2016, 37, 522–537.
  6. Andeweg, S.P.; Schepp, R.M.; van de Kassteele, J.; Mollema, L.; Berbers, G.A.M.; van Boven, M. Population-based serology reveals risk factors for RSV infection in children younger than 5 years. Sci. Rep. 2021, 11, 8953.
  7. Shi, T.; McAllister, D.A.; O’Brien, K.L.; Simoes, E.A.F.; Madhi, S.A.; Gessner, B.D.; Polack, F.P.; Balsells, E.; Acacio, S.; Aguayo, C.; et al. Global, regional, and national disease burden estimates of acute lower respiratory infections due to respiratory syncytial virus in young children in 2015: A systematic review and modelling study. Lancet 2017, 390, 946–958.
  8. Kazakova, A.; Kakkola, L.; Päkkilä, H.; Teros-Jaakkola, T.; Soukka, T.; Peltola, V.; Waris, M.; Julkunen, I. Serological Array-in-Well Multiplex Assay Reveals a High Rate of Respiratory Virus Infections and Reinfections in Young Children. mSphere 2019, 4, e00447-19.
  9. Hervé, P.L.; Deloizy, C.; Descamps, D.; Rameix-Welti, M.A.; Fix, J.; McLellan, J.S.; Eléouët, J.F.; Riffault, S. RSV N-nanorings fused to palivizumab-targeted neutralizing epitope as a nanoparticle RSV vaccine. Nanomed. Nanotechnol. Biol. Med. 2017, 13, 411–420.
  10. Opek, M.W.; Yeshayahu, Y.; Glatman-Freedman, A.; Kaufman, Z.; Sorek, N.; Brosh-Nissimov, T. Delayed respiratory syncytial virus epidemic in children after relaxation of COVID-19 physical distancing measures, Ashdod, Israel, 2021. Eurosurveillance 2021, 26, 2100706.
  11. Agha, R.; Avner, J.R. Delayed Seasonal RSV Surge Observed During the COVID-19 Pandemic. Pediatrics 2021, 148, e2021052089.
  12. Foley, D.A.; Yeoh, D.K.; Minney-Smith, C.A.; Martin, A.C.; Mace, A.O.; Sikazwe, C.T.; Le, H.; Levy, A.; Moore, H.C.; Blyth, C.C. The Interseasonal Resurgence of Respiratory Syncytial Virus in Australian Children Following the Reduction of Coronavirus Disease 2019–Related Public Health Measures. Clin. Infect. Dis. 2021, 73, e2829–e2830.
  13. Ujiie, M.; Tsuzuki, S.; Nakamoto, T.; Iwamoto, N. Resurgence of Respiratory Syncytial Virus Infections during COVID-19 Pandemic, Tokyo, Japan. Emerg. Infect. Dis. 2021, 27, 2969–2970.
  14. Kalergis, A.M.; Soto, J.A.; Gálvez, N.M.S.; Andrade, C.A.; Fernandez, A.; Bohmwald, K.; Bueno, S.M. Pharmacological management of human respiratory syncytial virus infection. Expert Opin. Pharmacother. 2020, 21, 2293–2303.
  15. Mac, S.; Sumner, A.; Duchesne-Belanger, S.; Stirling, R.; Tunis, M.; Sander, B. Cost-effectiveness of Palivizumab for Respiratory Syncytial Virus: A systematic review. Pediatrics 2019, 143, e20184064.
  16. Andrade, C.A.; Pacheco, G.A.; Gálvez, N.M.S.; Soto, J.A.; Bueno, S.M.; Kalergis, A.M. Innate immune components that regulate the pathogenesis and resolution of hRSV and hMPV infections. Viruses 2020, 12, 637.
  17. Bohmwald, K.; Soto, J.A.J.A.; Andrade-Parra, C.; Fernández-Fierro, A.; Espinoza, J.A.J.A.; Ríos, M.; Eugenin, E.A.E.A.E.A.; González, P.A.P.A.; Opazo, M.C.M.C.; Riedel, C.A.; et al. Lung pathology due to hRSV infection impairs blood–brain barrier permeability enabling astrocyte infection and a long-lasting inflammation in the CNS. Brain. Behav. Immun. 2021, 91, 159–171.
  18. Velázquez-Cervantes, M.A.; Martínez-Castillo, M.; González-García, L.D.; Vargas-Pavía, T.A.; Martínez-Salazar, M.G.; Mancilla-Herrera, I.; León-Reyes, G.; García-Cordero, J.; Helguera-Repetto, A.C.; León-Juárez, M. The BeWo cell line derived from a human placental choriocarcinoma is permissive for respiratory syncytial virus infection. Virus Genes 2019, 55, 406–410.
  19. Bohmwald, K.; Gálvez, N.M.S.; Ríos, M.; Kalergis, A.M. Neurologic Alterations Due to Respiratory Virus Infections. Front. Cell. Neurosci. 2018, 12, 386.
  20. Park, A.; Suh, S.I.; Son, G.R.; Lee, Y.H.; Seo, H.S.; Eun, B.L.; Lee, N.J.; Seol, H.Y. Respiratory syncytial virus-related encephalitis: Magnetic resonance imaging findings with diffusion-weighted study. Neuroradiology 2014, 56, 163–168.
  21. Xu, L.; Gao, H.; Zeng, J.; Liu, J.; Lu, C.; Guan, X.; Qian, S.; Xie, Z. A fatal case associated with respiratory syncytial virus infection in a young child. BMC Infect. Dis. 2018, 18, 217.
  22. Regan, A.K.; Klein, N.P.; Langley, G.; Drews, S.J.; Buchan, S.; Ball, S.; Kwong, J.C.; Naleway, A.; Thompson, M.; Wyant, B.E.; et al. Respiratory Syncytial Virus Hospitalization During Pregnancy in 4 High-income Countries, 2010–2016. Clin. Infect. Dis. 2018, 67, 1915–1918.
  23. Wheeler, S.M.; Dotters-Katz, S.; Heine, R.P.; Grotegut, C.A.; Swamy, G.K. Maternal Effects of Respiratory Syncytial Virus Infection during Pregnancy. Emerg. Infect. Dis. 2015, 21, 1951.
  24. Piedimonte, G.; Walton, C.; Samsell, L. Vertical Transmission of Respiratory Syncytial Virus Modulates Pre- and Postnatal Innervation and Reactivity of Rat Airways. PLoS ONE 2013, 8, e61309.
  25. Zeafley, J. Neurological, Electroencephalographic, and Virological Findings in Febrile Children Ages at Admission, and Sex Incidence Age at Time of Group A Group B Group C Group D Admission (28 cases) (25 cases) (18 cases) (7 cases). Arch. Dis. Child. 1970, 45, 611.
  26. Bohmwald, K.; Espinoza, J.A.; González, P.A.; Bueno, S.M.; Riedel, C.A.; Kalergis, A.M. Central nervous system alterations caused by infection with the human respiratory syncytial virus. Rev. Med. Virol. 2014.
  27. Tison-Chambellan, C.; Cheuret, E.; Cances, C.; Karsenty, C.; Le Camus, C.; Sevely, A.; Chaix, Y. Rhombencéphalite liée au virus respiratoire syncytial chez un garçon de 7 ans. Arch. Pediatr. 2013, 20, 657–660.
  28. Moriyama, K.; Takahashi, Y.; Shiihara, T. Another case of respiratory syncytial virus-related limbic encephalitis. Neuroradiology 2014, 56, 435–436.
  29. Millichap, J.J.; Wainwright, M.S. Neurological complications of respiratory syncytial virus infection: Case series and review of literature. J. Child Neurol. 2009, 24, 1499–1503.
  30. Kawashima, H.; Ioi, H.; Ushio, M.; Yamanaka, G.; Matsumoto, S.; Nakayama, T. Cerebrospinal fluid analysis in children with seizures from respiratory syncytial virus infection. Scand. J. Infect. Dis. 2009, 41, 228–231.
  31. Otake, Y.; Yamagata, T.; Morimoto, Y.; Imi, M.; Mori, M.; Aihara, T.; Ichiyama, T.; Momoi, M.Y. Elevated CSF IL-6 in a patient with respiratory syncytial virus encephalopathy. Brain Dev. 2007, 29, 117–120.
  32. Saravanos, G.L.; King, C.L.; Deng, L.; Dinsmore, N.; Ramos, I.; Takashima, M.; Crawford, N.; Clark, J.E.; Dale, R.C.; Jones, C.A.; et al. Respiratory Syncytial Virus–Associated Neurologic Complications in Children: A Systematic Review and Aggregated Case Series. J. Pediatr. 2021, 239, 39–49.e9.
  33. Picone, S.; Mondì, V.; Di Palma, F.; Martini, L.; Paolillo, P. Neonatal Encephalopathy and SIADH during RSV Infection. Am. J. Perinatol. 2019, 36, S106–S109.
  34. Van den Pol, A.N. van den Viral infection leading to brain dysfunction: More prevalent than appreciated? Neuron 2009, 64, 17.
  35. Peña, M.; Jara, C.; Flores, J.C.; Hoyos-Bachiloglu, R.; Iturriaga, C.; Medina, M.; Carcey, J.; Espinoza, J.; Bohmwald, K.; Kalergis, A.M.; et al. Severe respiratory disease caused by human respiratory syncytial virus impairs language learning during early infancy. Sci. Rep. 2020, 10, 22356.
  36. Bird, C.M.; Burgess, N. The hippocampus and memory: Insights from spatial processing. Nat. Rev. Neurosci. 2008, 9, 182–194.
  37. Miyamoto, K.; Fujisawa, M.; Tsuboi, T.; Hirao, J.I.; Sugita, K.; Arisaka, O.; Hozumi, H.; Kuwashima, S.; Tsuboi, T. Systemic inflammatory response syndrome and prolonged hypoperfusion lesions in an infant with respiratory syncytial virus encephalopathy. J. Infect. Chemother. 2013, 19, 978–982.
  38. Bogaerts, L.; Szmalec, A.; Hachmann, W.M.; Page, M.P.A.; Duyck, W. Linking memory and language: Evidence for a serial-order learning impairment in dyslexia. Res. Dev. Disabil. 2015, 43–44, 106–122.
  39. Espinoza, J.A.; Bohmwald, K.; Cespedes, P.F.; Gomez, R.S.; Riquelme, S.A.; Cortes, C.M.; Valenzuela, J.A.; Sandoval, R.A.; Pancetti, F.C.; Bueno, S.M.; et al. Impaired learning resulting from Respiratory Syncytial Virus infection. Proc. Natl. Acad. Sci. USA 2013, 11, 9112–9117.
  40. Kumar, A. Long-term potentiation at CA3-CA1 hippocampal synapses with special emphasis on aging, disease, and stress. Front. Aging Neurosci. 2011, 3, 1–20.
  41. Bokun, V.; Moore, J.J.; Moore, R.; Smallcombe, C.C.; Harford, T.J.; Rezaee, F.; Esper, F.; Piedimonte, G. Respiratory syncytial virus exhibits differential tropism for distinct human placental cell types with Hofbauer cells acting as a permissive reservoir for infection. PLoS ONE 2019, 14, e0225767.
  42. Englund, J.A.; Chu, H.Y. Respiratory Virus Infection During Pregnancy: Does It Matter? J. Infect. Dis. 2018, 218, 512–515.
  43. Hause, A.M.; Panagiotakopoulos, L.; Weintraub, E.S.; Sy, L.S.; Glenn, S.C.; Tseng, H.-F.; McNeil, M.M. Adverse Outcomes in Pregnant Women Hospitalized With Respiratory Syncytial Virus Infection: A Case Series. Clin. Infect. Dis. 2021, 72, 138–140.
  44. Manti, S.; Cuppari, C.; Lanzafame, A.; Salpietro, C.; Betta, P.; Leonardi, S.; Perez, M.K.; Piedimonte, G. Detection of respiratory syncytial virus (RSV) at birth in a newborn with respiratory distress. Pediatr. Pulmonol. 2017, 52, E81–E84.
  45. Shi, L.; Fatemi, S.H.; Sidwell, R.W.; Patterson, P.H. Maternal Influenza Infection Causes Marked Behavioral and Pharmacological Changes in the Offspring. J. Neurosci. 2003, 23, 297–302.
  46. Quagliato, L.A.; de Matos, U.; Nardi, A.E. Maternal immune activation generates anxiety in offspring: A translational meta-analysis. Transl. Psychiatry 2021, 11, 1–6.
  47. Estes, M.L.; McAllister, A.K. Maternal immune activation: Implications for neuropsychiatric disorders. Science 2016, 353, 772–777.
  48. Brown, A.S.; Meyer, U. Maternal Immune Activation and Neuropsychiatric Illness: A Translational Research Perspective. Am. J. Psychiatry 2018, 175, 1073–1083.
  49. Shi, L.; Smith, S.E.P.; Malkova, N.; Tse, D.; Su, Y.; Patterson, P.H. Activation of the maternal immune system alters cerebellar development in the offspring. Brain Behav. Immun. 2009, 23, 116–123.
  50. Eisenhut, M. Extrapulmonary manifestations of severe respiratory syncytial virus infection--a systematic review. Crit. Care 2006, 10, R107.
  51. Somerville, L.K.; Basile, K.; Dwyer, D.E.; Kok, J. The Impact of Influenza Virus Infection in Pregnancy. Future Microbiol. 2018, 13, 263–274.
  52. Reisinger, S.; Khan, D.; Kong, E.; Berger, A.; Pollak, A.; Pollak, D.D. The Poly(I:C)-induced maternal immune activation model in preclinical neuropsychiatric drug discovery. Pharmacol. Ther. 2015, 149, 213–226.
  53. Moreno, J.L.; Kurita, M.; Holloway, T.; López, J.; Cadagan, R.; Martínez-Sobrido, L.; García-Sastre, A.; González-Maeso, J. Maternal influenza viral infection causes schizophrenia-like alterations of 5-HT2Aand mGlu2 receptors in the adult offspring. J. Neurosci. 2011, 31, 1863–1872.
  54. Bohmwald, K.; Andrade, C.A.; Kalergis, A.M. Contribution of Pro-Inflammatory Molecules Induced by Respiratory Virus Infections to Neurological Disorders. Pharmaceuticals 2021, 14, 340.
  55. Kawasaki, Y.; Suyama, K.; Go, H.; Hosoya, M. Clinical manifestations of respiratory syncytial virus-associated encephalopathy in Fukushima, Japan. Pediatr. Int. 2019, 61, 802–806.
  56. Jiang, Y.; Patel, C.D.; Manivanh, R.; North, B.; Backes, I.M.; Posner, D.A.; Gilli, F.; Pachner, A.R.; Nguyen, L.N.; Leib, D.A. Maternal antiviral immunoglobulin accumulates in neural tissue of neonates to prevent HSV neurological disease. MBio 2017, 8, e00678-17.
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