Introduction: This study aimed to develop and validate a reliable, multidomain scale for assessing childhood hydrocephalus severity and to enhance communication, guide treatment decisions, and improve patient care. Methods: A stepwise consensus approach informed by a modified Delphi technique was employed. Healthcare professionals participated in anonymous surveys and face-to-face meetings to define the core domains of the scale. Content validity, internal consistency, and inter-rater reliability were assessed. Results: The Delphi process yielded a refined 7-item, 10-point Childhood Hydrocephalus Severity Scale (CHS) focusing on age, Evans index, associated malformations, neurological deficit, intraventricular hemorrhage, and mid-arm circumference. Content validity analysis using the Content Validity Index (CVI) demonstrated strong agreement (mean I-CVI = 0.91) among experts regarding the relevance of CHS items. All individual item CVI scores exceeded 0.8, supporting the inclusion of each factor. The CHS exhibited excellent internal consistency (Cronbach’s alpha = 0.988). High intraclass correlation coefficients (ICCs) were observed for both single measures (ICC = 0.902, 95% CI: 0.862–0.931) and average measures (ICC = 0.985, 95% CI: 0.978–0.990), indicating near-perfect agreement between raters. Both ICC values were statistically significant (p < 0.001). Conclusion: The CHS demonstrates promising potential as a reliable and valid tool for childhood hydrocephalus severity assessment. This scale has the potential to enhance communication, guide treatment decisions, and improve patient care in childhood hydrocephalus.

Hydrocephalus in children results from excessive fluid buildup in the brain. Current methods for assessing its severity often provide an incomplete picture of a child’s condition, especially before intervention. This study developed a new scale called the Childhood Hydrocephalus Severity Scale (CHS) to address this limitation. Unlike traditional methods that focus solely on single parameters like head size, the CHS considers multiple factors, including the child’s age, brain imaging findings, other brain abnormalities, and nutritional status. Experts collaborated to create and refine the CHS, and rigorous testing confirmed its accuracy and reliability. The results demonstrate that the CHS can effectively measure hydrocephalus severity, providing valuable insights for doctors to enhance treatment planning and improve patient care. By offering families a clearer understanding of their child’s condition, the CHS can also empower them to participate more actively in decision-making. Ultimately, the widespread use of the CHS has the potential to significantly improve outcomes for children with hydrocephalus.

1.
Idowu
O
,
Olumide
A
.
Etiology and cranial CT scan profile of nontumoral hydrocephalus in a tertiary black African hospital
.
J Neurosurg Pediatr
.
2011
;
7
(
4
):
397
400
.
2.
Hochstetler
A
,
Raskin
J
,
Blazer-Yost
BL
.
Hydrocephalus: historical analysis and considerations for treatment
.
Eur J Med Res
.
2022
;
27
(
1
):
168
.
3.
Dewan
MC
,
Rattani
A
,
Mekary
R
,
Glancz
LJ
,
Yunusa
I
,
Baticulon
RE
, et al
.
Global hydrocephalus epidemiology and incidence: systematic review and meta-analysis
.
J Neurosurg
.
2019
;
130
(
4
):
1065
79
.
4.
Simon
TD
,
Riva-Cambrin
J
,
Srivastava
R
,
Bratton
SL
,
Dean
JM
,
Kestle
JRW
, et al
.
Hospital care for children with hydrocephalus in the United States: utilization, charges, comorbidities, and deaths
.
J Neurosurg Pediatr
.
2008
;
1
(
2
):
131
7
.
5.
Abdella
A
,
Deginet
E
,
Weldegebreal
F
,
Ketema
I
,
Eshetu
B
,
Desalew
A
.
Tuberculous meningitis in children: treatment outcomes at discharge and its associated factors in eastern Ethiopia: a five years retrospective study
.
Infect Drug Resist
.
2022
;
15
:
2743
51
.
6.
Bot
GM
,
Ismail
NJ
,
Usman
B
,
Shilong
DJ
,
Obande
JO
,
Aliu
SO
, et al
.
Subpericranial shunt valve placement: a technique in patients with friable skin
.
Childs Nerv Syst
.
2014
;
30
(
8
):
1431
3
.
7.
Muir
RT
,
Wang
S
,
Warf
BC
.
Global surgery for pediatric hydrocephalus in the developing world: a review of the history, challenges, and future directions
.
Neurosurg Focus
.
2016
;
41
(
5
):
E11
.
8.
Kulkarni
AV
,
Schiff
SJ
,
Mbabazi-Kabachelor
E
,
Mugamba
J
,
Ssenyonga
P
,
Donnelly
R
, et al
.
Endoscopic treatment versus shunting for infant hydrocephalus in Uganda
.
N Engl J Med
.
2017
;
377
(
25
):
2456
64
.
9.
Dorner
RA
,
Burton
VJ
,
Allen
MC
,
Robinson
S
,
Soares
BP
.
Preterm neuroimaging and neurodevelopmental outcome: a focus on intraventricular hemorrhage, post-hemorrhagic hydrocephalus, and associated brain injury
.
J Perinatol
.
2018
;
38
(
11
):
1431
43
.
10.
Schiff
SJ
,
Kulkarni
AV
,
Mbabazi-Kabachelor
E
,
Mugamba
J
,
Ssenyonga
P
,
Donnelly
R
, et al
.
Brain growth after surgical treatment for infant postinfectious hydrocephalus in Sub-Saharan Africa: 2-year results of a randomized trial
.
J Neurosurg Pediatr
.
2021
;
28
(
3
):
326
34
.
11.
Zhou
F
,
Yang
Z
,
Tang
Z
,
Zhang
Y
,
Wang
H
,
Sun
G
, et al
.
Outcomes and prognostic factors of infantile acquired hydrocephalus: a single-center experience
.
BMC Pediatr
.
2023
;
23
(
1
):
260
.
12.
Mohamed
M
,
Mediratta
S
,
Chari
A
,
da Costa
CS
,
James
G
,
Dawes
W
, et al
.
Post-haemorrhagic hydrocephalus is associated with poorer surgical and neurodevelopmental sequelae than other causes of infant hydrocephalus
.
Childs Nerv Syst
.
2021
;
37
(
11
):
3385
96
.
13.
Notarianni
C
,
Vannemreddy
P
,
Caldito
G
,
Bollam
P
,
Wylen
E
,
Willis
B
, et al
.
Congenital hydrocephalus and ventriculoperitoneal shunts: influence of etiology and programmable shunts on revisions
.
J Neurosurg Pediatr
.
2009
;
4
(
6
):
547
52
.
14.
Christensen
JH
,
Hansen
LK
,
Garne
E
.
Medfødt hydrocephalus: forekomst og prognose. Mortalitet og morbiditet i en populationsbaseret opgørelse [Congenital hydrocephalus--prevalence and prognosis. Mortality and morbidity in a population-based study]
.
Ugeskr Laeger
.
2003
;
165
(
5
):
466
9
.
15.
Rayens
MK
,
Hahn
EJ
.
Building consensus using the policy Delphi method
.
Pol Polit Nurs Pract
.
2000
;
1
(
4
):
308
15
.
16.
McMillan
SS
,
King
M
,
Tully
MP
.
How to use the nominal group and Delphi techniques
.
Int J Clin Pharm
.
2016
;
38
(
3
):
655
62
.
17.
Braun
V
,
Clarke
V
.
Using thematic analysis in psychology
.
Qual Res Psychol
.
2006
;
3
(
2
):
77
101
.
18.
Evans
WA
.
An encephalographic ratio for estimating ventricular enlargement and cerebral atrophy
.
Arch Neurol Psychiatry
.
1942
;
47
(
6
):
931
7
.
19.
Levene
MI
.
Measurement of the growth of the lateral ventricles in preterm infants with real-time ultrasound
.
Arch Dis Child
.
1981
;
56
(
12
):
900
4
.
20.
Kockro
RA
,
Reinsberg
B
.
Assessment of ventricular size: a comparison of different indices of hydrocephalus
.
Neurosurgery
.
2000
;
46
(
1
):
51
8
.
21.
Matsuoka
H
,
Kim
Y
,
Yamashiro
K
.
Reliability of the Evans Index and alternative methods for assessing ventricular size in hydrocephalus
.
World Neurosurg
.
2021
;
146
:
e627
36
.
22.
Kulkarni
AV
,
Shams
I
,
Cochrane
DD
.
A new grading system for the appearance of the ventricles on computed tomography: a simple and reliable method to predict shunt failure
.
J Neurosurg Pediatr
.
2009
;
3
(
2
):
120
30
.
23.
Limbrick
DD
,
Raghunathan
A
,
Narayan
RK
.
Quantifying ventriculomegaly in pediatric hydrocephalus: a critical review
.
J Neurosurg Pediatr
.
2018
;
22
(
3
):
229
38
.
24.
Fleiss
JL
,
Cohen
J
.
The equivalence of weighted kappa and the intraclass correlation coefficient as measures of reliability
.
Educ Psychol Meas
.
1973
;
33
(
3
):
613
9
.
25.
Shrout
PE
,
Fleiss
JL
.
Intraclass correlations: uses in assessing rater reliability
.
Psychol Bull
.
1979
;
86
(
2
):
420
8
.
26.
Tully
HM
,
Doherty
D
,
Wainwright
M
.
Mortality in pediatric hydrocephalus
.
Dev Med Child Neurol
.
2022
;
64
(
1
):
112
7
.
27.
Tully
HM
,
Ishak
GE
,
Rue
TC
,
Dempsey
JC
,
Browd
SR
,
Millen
KJ
, et al
.
Two hundred thirty-six children with developmental hydrocephalus: causes and clinical consequences
.
J Child Neurol
.
2016
;
31
(
3
):
309
20
.
28.
McCrea
HJ
,
Ment
LR
.
The diagnosis, management, and postnatal prevention of intraventricular hemorrhage in the preterm neonate
.
Clin Perinatol
.
2008
;
35
(
4
):
777
92
.
29.
Mukerji
A
,
Shah
V
,
Shah
PS
.
Periventricular/intraventricular hemorrhage and neurodevelopmental outcomes: a meta-analysis
.
Pediatrics
.
2015
;
136
(
6
):
1132
43
.
30.
Novak
CM
,
Ozen
M
,
Burd
I
.
Perinatal brain injury: mechanisms, prevention, and outcomes
.
Clin Perinatol
.
2018
;
45
(
2
):
357
75
.
31.
Gotardo
JW
,
Volkmer
NFV
,
Stangler
GP
,
Dornelles
AD
,
Bohrer
BBA
,
Carvalho
CG
.
Impact of peri-intraventricular haemorrhage and periventricular leukomalacia in the neurodevelopment of preterms: a systematic review and meta-analysis
.
PLoS One
.
2019
;
14
(
10
):
e0223427
.
32.
Ancel
PY
,
Livinec
F
,
Larroque
B
,
Marret
S
,
Arnaud
C
,
Pierrat
V
, et al
.
Cerebral palsy among very preterm children in relation to gestational age and neonatal ultrasound abnormalities: the EPIPAGE cohort study
.
Pediatrics
.
2006
;
117
(
3
):
828
35
.
33.
Mallucci
CL
,
Jenkinson
MD
,
Conroy
EJ
,
Hartley
JC
,
Brown
M
,
Moitt
T
, et al
.
Silver-impregnated, antibiotic-impregnated or non-impregnated ventriculoperitoneal shunts to prevent shunt infection: the BASICS three-arm RCT
.
Health Technol Assess
.
2020
;
24
(
17
):
1
114
.
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