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PubMed This is a summary of 24 peer-reviewed journal articles Updated
Neurosurgery

Living with Hydrocephalus: Long-Term Care and Quality of Life

At a Glance

Long-term hydrocephalus care continues even when surgery has gone well: regular neurosurgical follow-up, individualized imaging, rehabilitation, activity guidance, and a plan for adult care help detect problems early and support daily life.

While surgery is a major milestone, hydrocephalus is a lifelong journey. Success is not just about the procedure, but about the surveillance and support that follow. Establishing a routine of regular check-ups and monitoring can help you or your child live an active life while ensuring that any issues are caught early [1][2].

The Lifelong Surveillance Schedule

Surveillance is more than just getting a scan; it is a clinical partnership. Even when you are feeling well, long-term follow-up is essential because both shunts and Endoscopic Third Ventriculostomy (ETV) can fail years after a successful surgery [3][4]. There is no single universal schedule; follow-up must be individualized by your neurosurgical team based on your cause, age, and device.

  • Early Post-Op: This is a critical window. Frequent visits are standard as the team assesses healing, and for infants, head circumference [5][6].
  • Routine Stability: Once stable, neurosurgeons often recommend regular clinical visits (e.g., annually or bi-annually), depending on the patient’s individual risk factors [1].
  • The “Stable Baseline”: It is vital to have an imaging scan (MRI or CT) from a time when you were feeling perfectly healthy. If you ever suspect a malfunction later, doctors will compare your new scan to this “baseline” to see if your ventricles have changed [7][1].

Managing “Scan Anxiety”: MRI vs. CT

Frequent imaging is sometimes necessary, but it can bring concerns about radiation and the need for sedation in young children. The imaging choice depends on the urgency, age, suspected complication, and device compatibility.

  • Rapid-Sequence (Fast) MRI: Often used for routine monitoring, it is a specialized MRI that takes only a few minutes. It avoids ionizing radiation and may sometimes avoid sedation in children [8][9][10]. However, it is not adequate for every clinical question (like evaluating a suspected tumor or ETV patency) and may still require sedation for some [11].
  • CT Scans: While CT involves radiation, it is often chosen as a first-line study in emergencies because it is fast and highly effective at detecting acute bleeding or a skull fracture [12][13].
  • Reminder: If you have a programmable valve, the settings must be checked after every MRI.

Developmental and Rehabilitative Support

Hydrocephalus can sometimes affect how the brain processes information or moves the body. Early and ongoing support can significantly improve quality of life.

  • Children: Many children with hydrocephalus benefit from Physical Therapy (PT) and Occupational Therapy (OT) to address delays in motor skills or coordination [14][15]. Regular neurodevelopmental screenings help identify needs for speech therapy or educational support early on [16][17].
  • Adults: Deficits in memory, concentration, or “executive function” (planning and organizing) can occur, especially in cases of iNPH. Neuropsychological testing is a valuable tool to measure these areas and create a plan for cognitive support [18][19].

Daily Life: School, Sports, and Activity

One of the most common questions is: “What am I allowed to do?” In general, the goal of treatment is to return you to your normal life.

  • Physical Activity: Most people with a shunt or ETV can participate in school, gym class, swimming, and travel [20].
  • Contact Sports: While there is no universal “ban,” decisions about high-impact contact sports (like football or hockey) should be made individually with your neurosurgeon [21]. They will consider your specific device, your history of seizures, and your overall balance.
  • Vigilance, Not Fear: If a head injury occurs during play, you should be evaluated promptly, even if the shunt seems fine [20].

Transitioning to Adult Care

The move from a pediatric neurosurgeon to an adult specialist is a process, not a single appointment. This transition usually begins in the mid-to-late teens [22].

  • Building Independence: Best-practice models emphasize learning your own medical history, knowing your shunt type/settings, and understanding your specific warning signs [22][23].
  • A Personal Care Plan: Keep a centralized record of your operative reports, device cards, baseline scans, and individualized emergency instructions. As you move into the adult medical system, being your own advocate ensures that your lifelong care remains seamless [24][22].

Common questions in this guide

How often does someone with hydrocephalus need follow-up?
There is no single schedule for everyone. Visits are usually more frequent soon after surgery, then may occur yearly or twice yearly once a person is stable, depending on age, cause, device, and individual risks. Follow-up remains important even when someone feels well because a shunt or ETV can fail years later.
Is a fast MRI better than a CT scan for hydrocephalus monitoring?
A rapid-sequence MRI avoids radiation and is often useful for routine monitoring, especially in children. CT is faster and may be preferred in an emergency to look for bleeding or a skull fracture. Fast MRI is not suitable for every clinical question and may still require sedation; programmable valve settings should be checked after every MRI.
Can I swim, travel, or play sports with a hydrocephalus shunt or ETV?
Most people can return to school, gym class, swimming, and travel after treatment. High-impact contact sports should be considered individually with a neurosurgeon based on the device, seizure history, balance, and overall health. Any head injury during activity should be evaluated promptly, even if the shunt appears to be working normally.
What therapies can help children or adults living with hydrocephalus?
Children may benefit from physical or occupational therapy for movement and coordination delays, along with speech therapy or educational support when needed. Adults with memory, concentration, or planning difficulties, including some people with iNPH, may benefit from neuropsychological testing and cognitive support.
What records should I keep when managing hydrocephalus long term?
Keep copies of operative reports, the device card, valve settings, baseline scans, and individualized emergency instructions. Knowing your warning signs and sharing this information with new doctors can make emergency care and the transition to adult neurosurgical care more seamless.

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References

References (24)
  1. 1

    Hydrocephalus surveillance following CSF diversion: a modified Delphi study.

    Hersh DS, Martin JE, Bristol RE, et al.

    Journal of neurosurgery. Pediatrics 2022; (30(2)):177-187 doi:10.3171/2022.5.PEDS22116.

    PMID: 35901763
  2. 2

    The Burden of Ionizing Radiation Studies in Children with Ventricular Shunts.

    Antonucci MC, Zuckerbraun NS, Tyler-Kabara EC, et al.

    The Journal of pediatrics 2017; (182()):210-216.e1 doi:10.1016/j.jpeds.2016.11.051.

    PMID: 27989409
  3. 3

    Long-term follow-up of endoscopic third ventriculostomy performed in the pediatric population.

    Stovell MG, Zakaria R, Ellenbogen JR, et al.

    Journal of neurosurgery. Pediatrics 2016; (17(6)):734-8 doi:10.3171/2015.11.PEDS15212.

    PMID: 26870897
  4. 4

    Long-Term Outcomes of Endoscopic Third Ventriculostomy in Adults.

    Waqar M, Ellenbogen JR, Stovell MG, et al.

    World neurosurgery 2016; (94()):386-393 doi:10.1016/j.wneu.2016.07.028.

    PMID: 27436208
  5. 5

    Endoscopic Third Ventriculostomy And Choroid Plexus Coagulation in Infants: Current Concepts and Illustrative Cases.

    Baticulon RE, Dewan MC

    Neurology India 2021; (69(12 Suppl 2)):S514-S519 doi:10.4103/0028-3886.332270.

    PMID: 35103010
  6. 6

    Mortality and complications 1 year after treatment of hydrocephalus with endoscopic third ventriculostomy and ventriculoperitoneal shunt in children at Queen Elizabeth Central Hospital, Malawi.

    Chimaliro S, Hara C, Kamalo P

    Acta neurochirurgica 2023; (165(1)):61-69 doi:10.1007/s00701-022-05392-7.

    PMID: 36282428
  7. 7

    [Ventriculoperitoneal shunt dysfunction in children: various clinical presentations].

    Buis DR, Slot KM, Bakker DP, et al.

    Nederlands tijdschrift voor geneeskunde 2022; (166()).

    PMID: 36036683
  8. 8

    [Magnetic resonance imaging of the brain in neonates and infants].

    Ertl-Wagner B, Wagner MW

    Der Radiologe 2019; (59(12)):1097-1106 doi:10.1007/s00117-019-00610-3.

    PMID: 31748980
  9. 9

    Clinical Utility of Rapid-Sequence Magnetic Resonance Imaging (rMRI) in Pediatric Neurosurgery: Enhancing Assessment of Hydrocephalic Changes.

    Krämer J, Ueding N, Ott C, et al.

    Children (Basel, Switzerland) 2026; (13(5)) doi:10.3390/children13050699.

    PMID: 42194225
  10. 10

    Test characteristics of quick brain MRI for shunt evaluation in children: an alternative modality to avoid radiation.

    Yue EL, Meckler GD, Fleischman RJ, et al.

    Journal of neurosurgery. Pediatrics 2015; (15(4)):420-6 doi:10.3171/2014.9.PEDS14207.

    PMID: 25634816
  11. 11

    Replacing Computed Tomography with "Rapid" Magnetic Resonance Imaging for Ventricular Shunt Imaging.

    Marin JR, Tyler-Kabara EC, Anderson C, et al.

    Pediatric quality & safety 2021; (6(4)):e441 doi:10.1097/pq9.0000000000000441.

    PMID: 34345754
  12. 12

    Beyond the scan: quick MRI's emergence in pediatric emergency care.

    Varriano B, Brumme K, Chua WJ

    Current opinion in pediatrics 2026; (38(3)):275-279 doi:10.1097/MOP.0000000000001570.

    PMID: 41969034
  13. 13

    Rapid brain MRI protocols reduce head computerized tomography use in the pediatric emergency department.

    Ramgopal S, Karim SA, Subramanian S, et al.

    BMC pediatrics 2020; (20(1)):14 doi:10.1186/s12887-020-1919-3.

    PMID: 31931764
  14. 14

    Comparing motor development in children with hydrocephalus after treatment with ventriculoperitoneal shunt and endoscopic third ventriculostomy: a cross-sectional study.

    Manda M, Nambuzi E, Kaphesi F, et al.

    Malawi medical journal : the journal of Medical Association of Malawi 2024; (36(1)):7-12 doi:10.4314/mmj.v36i1.2.

    PMID: 39086370
  15. 15

    Assessing the impact of infantile hydrocephalus on visuomotor integration through behavioural and neuroimaging studies.

    Adil D, Duerden E, Eagleson R, De Ribaupierre S

    Child neuropsychology : a journal on normal and abnormal development in childhood and adolescence 2024; (30(7)):1067-1094 doi:10.1080/09297049.2024.2307662.

    PMID: 38353096
  16. 16

    Neurodevelopmental outcomes after ventriculoperitoneal shunt placement in children with non-infectious hydrocephalus: a meta-analysis.

    Sobana M, Halim D, Aviani JK, et al.

    Child's nervous system : ChNS : official journal of the International Society for Pediatric Neurosurgery 2021; (37(4)):1055-1065 doi:10.1007/s00381-021-05051-9.

    PMID: 33479825
  17. 17

    Evaluation of developmental profiles of children with hydrocephalus.

    Gönüllü Polat B, Makharoblidze K, İpek R, et al.

    Neurocirugia 2022; (33(6)):269-274 doi:10.1016/j.neucie.2021.06.005.

    PMID: 36333085
  18. 18

    Adult Outcome in Shunted Pediatric Hydrocephalus: Long-Term Functional, Social, and Neurocognitive Results.

    Gmeiner M, Wagner H, Schlögl C, et al.

    World neurosurgery 2019; (132()):e314-e323 doi:10.1016/j.wneu.2019.08.167.

    PMID: 31479789
  19. 19

    The clinical spectrum of hydrocephalus in adults: report of the first 517 patients of the Adult Hydrocephalus Clinical Research Network registry.

    Williams MA, Nagel SJ, Luciano MG, et al.

    Journal of neurosurgery 2020; (132(6)):1773-1784.

    PMID: 31125971
  20. 20

    Long-Term Success of Endoscopic Third Ventriculostomy in the Pediatric Population with Aqueductal Stenosis.

    García-Milán V, Moreno-Madueño G, Urreta Juárez G, et al.

    World neurosurgery 2024; (189()):e364-e369 doi:10.1016/j.wneu.2024.06.056.

    PMID: 38901481
  21. 21

    Return to play in children with shunted hydrocephalus.

    Stanuszek A, Bębenek A, Milczarek O, Kwiatkowski S

    Journal of neurosurgery. Pediatrics 2022; (29(1)):1-9 doi:10.3171/2021.7.PEDS21127.

    PMID: 34653983
  22. 22

    Improving health care transition and longitudinal care for adolescents and young adults with hydrocephalus: report from the Hydrocephalus Association Transition Summit.

    Williams MA, van der Willigen T, White PH, et al.

    Journal of neurosurgery 2019; (131(4)):1037-1045 doi:10.3171/2018.6.JNS188.

    PMID: 30497160
  23. 23

    Transitioning in hydrocephalus: Current practices in Canadian Paediatric Neurosurgery centres.

    Singh N, McDonald PJ

    Paediatrics & child health 2018; (23(7)):e150-e155 doi:10.1093/pch/pxy016.

    PMID: 30374224
  24. 24

    A qualitative study of transitioning patients with hydrocephalus from pediatric to adult care: fear of uncertainty, communication gaps, independence, and loss of relationships.

    Fouladirad S, Cheong A, Singhal A, et al.

    Journal of neurosurgery. Pediatrics 2022; (30(1)):1-7 doi:10.3171/2022.2.PEDS21419.

    PMID: 35395641

This page is for informational purposes about long-term hydrocephalus care and does not constitute medical advice. Your neurosurgical team should determine your imaging schedule, activity guidance, and rehabilitation plan.

Guide contents Hydrocephalus
Research & Literature
05 Living with a Shunt or ETV