Conditions: Traumatic Brain Injury Critical Illness Sleep
Keywords: pediatric traumatic brain injury melatonin sleep intervention
Allocation: RANDOMIZED | Intervention model: PARALLEL
Enrollment: 21
Healthy volunteers: no

Brief summary:
Sleep wake disturbances compound recovery in over half of pediatric traumatic brain injury survivors, leading to impaired quality of life, and few effective interventions exist to treat this important morbidity. Therefore, this study will conduct a randomized controlled trial evaluating a melatonin intervention started during hospitalization and continued after discharge compared to placebo. The trial will investigate if this intervention is feasible, acceptable, and effective at reducing sleep wake disturbances as measured on the Sleep Disturbances Scale for Children 1-month after hospital discharge.

Participants will be randomly assigned to receive the intervention (melatonin) or to the control group (placebo) with a goal of equal numbers of participants in each group and all will receive sleep education. Participants will be followed closely after consent and outcomes will be assessed at hospital discharge, and 1-month. Outcomes will focus on feasibility (ability to recruit patients into the trial) and acceptability (patient safety and satisfaction), but will also assess the effectiveness of the intervention to reduce sleep disturbances after discharge. The investigators will assess sleep using questionnaires and actigraphy (watch-like activity monitors). Exploratory outcomes will include global health outcomes.

Detailed description:

Arms:
arm 1: (melatonin doses of 3mg or 5mg based on patient size given nightly 1 hour prior to bedtime every night for 30 days) arm 2: Placebo

Interventions: intervention 1: melatonin intervention 2: placebo
Intervention descriptions: intervention 1: melatonin supplementation intervention 2: microcrystalline cellulose filled capsule

Protocol document:
Prot_SAP_000.pdf: 
 
Page 1 of 20 
 
 
 
Study Protocol 
 
 
1. Protocol Title 
Sleep Management And Recovery after Trauma in Kids (SMART-Kids): Melatonin Pilot Trial 
NCT04932096 
IND reference number 157247 
 
PI: Cydni N. Williams, MD, MCR 
                     707 SW Gaines St, CDRC-P 
 
       Oregon Health & Science University 
 
       Department of Pediatrics, Division of Pediatric Critical Care 
                     Portland, OR 97239 
                     (503) 494-5522 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 


 
Page 2 of 20 
 
2. Objectives 
This is a randomized controlled phase II intervention trial evaluating early melatonin and a sleep 
educational intervention versus placebo following pediatric traumatic brain injury (TBI). No 
changes to typical TBI care will be made. This single center trial will focus on feasibility and 
acceptability outcomes of a real world pragmatic sleep intervention frequently utilized in the 
outpatient setting among pediatric TBI patients when employed earlier in the recovery process 
during hospitalization. We will also obtain data on effectiveness to reduce sleep disturbances at 
30-day outcomes assessment to help inform a larger trial that would be powered to evaluate 
effectiveness among a heterogeneous population.   
 
3. Background 
Sleep wake disturbances (SWD) affect over 50% of the 50,000 children surviving critical care 
hospitalization for traumatic brain injury (TBI) each year in the United States.[1-5] SWD are known to 
significantly impair quality of life and persist for years after TBI of all severities and in children of all 
ages.[6-13] SWD place these children at risk for long-term adverse health outcomes as recognized in 
Healthy People 2020.[14-16] However, interventions for SWD after pediatric TBI are poorly studied and 
clinicians are left with little evidence base to guide care for this debilitating morbidity after TBI.[17-19] 
Despite known benefits of healthy sleep on brain development and healing,[20-25] it remains unknown 
how SWD impact recovery in other physical, cognitive, and psychosocial outcomes after pediatric TBI, 
especially among children hospitalized with complicated mild, moderate, and severe injuries. Our 
research shows 52% of these TBI patients have SWD and 84% with SWD have phenotypes consistent 
with insomnia and circadian disturbance, though multiple SWD phenotypes often coexist.[5] SWD may 
be particularly important in recovery of executive functions after TBI that are linked to poor academic 
and functional outcomes.[11, 26-29] Therefore, we will conduct a pilot randomized controlled trial of an 
early sleep management intervention (melatonin and a sleep education handout) to determine 
acceptability and feasibility of an intervention directly applicable to the pediatric TBI population. We will 
also explore clinical effectiveness outcomes of this real-world intervention to provide preliminary data 
for a larger trial with the long-term goal of improving quality of life and multimodal outcomes through 
sleep interventions. 
 
Early sleep intervention may be particularly important for children suffering TBI as sleep 
promotes neuronal healing and reduces inflammation that could maximize functional 
recovery.[30-35] However, two recent systematic reviews show no studies evaluating 
interventions to improve sleep after TBI hospitalization in children.[17, 36] Melatonin and 
behavioral/educational interventions are safe, first line therapies for multiple SWD phenotypes 
in pediatric primary care and sleep clinics.[37-46] In our multidisciplinary Pediatric Critical Care 
and Neurotrauma Recovery Program at OHSU, standard clinical care for SWD after TBI in the 
outpatient setting includes melatonin and sleep educational interventions used together as first 
line treatments for difficulty initiating and maintaining sleep starting at the first outpatient visit 
typically 4-6 weeks after hospital discharge (see uploaded example of actual clinical 
recommendations in supporting documents). Our research shows children with TBI have high 
rates of difficulty with onset and maintenance of sleep.[5] Our recently accepted publication 
showed that SWD occurred in 2/3 of pediatric TBI patients and were associated with 
significantly worse objective and subjective measures of cognitive function 1-3months after 
pediatric TBI hospitalization; interestingly in this cohort of 131 children, 12% of patients had 
already started melatonin after hospital discharge prior to the appointment without a clinical 
prescription, and we prescribed melatonin together with sleep education targeting behavioral 
modifications to address sleep newly in 43% at the clinical visit.[47] This is also in line with 
research showing up to 1 in 17 school aged children from the general population have used 
melatonin more than once a week within the last 6months.[48] Both melatonin and educational 


 
Page 3 of 20 
 
sleep  interventions targeting improvements in sleep hygiene, which are most often used in 
combination to provide the greatest benefit, are shown to improve SWD in multiple other 
pediatric populations, including improvements in sleep latency, efficiency, and duration directly 
applicable to our TBI cohort.[37, 38, 40, 42, 44, 46, 49-54] In most instances, melatonin is 
utilized in the 1-2 hours before bedtime for soporific effects in pediatric patients in conjunction 
with education about the importance of a good sleep routine, environmental changes to 
promote sleep, and recommendations for behavioral modifications to promote sleep.[51, 55] 
Melatonin levels and circadian rhythms are known to be altered in hospitalized patients and TBI 
patients, and could contribute to ongoing circadian disturbance, which may be another way 
melatonin could be helpful.[56-61] Additionally, melatonin has analgesic, anti-oxidant, anti-
inflammatory, and anti-apoptotic effects relevant to TBI outcomes.[33, 34, 36, 44, 62-69] 
Inflammation in particular is chronic after TBI, is linked to SWD including insomnia, and targeting 
inflammation may improve SWD.[31, 34, 70-73] A randomized trial in 33 adults with TBI and 
SWD approximately 46 months after injury showed melatonin improved subjective sleep quality, 
fatigue, and sleep efficiency on actigraphy compared to placebo.[74] A retrospective study of 
adolescent concussion showed 67% reported improved sleep subjectively with melatonin 
prescribed in clinic.[75] A recent randomized controlled trial in outpatient pediatric concussion 
in children aged 8-18years found no evidence of improvement in overall post-concussive 
symptoms, but did improve sleep efficiency on actigraphy, and there were no serious adverse 
events.[76, 77] Improved sleep latency and duration with melatonin after non-traumatic 
pediatric acquired brain injuries are also reported.[44, 46, 78] A recent randomized trial of 
pediatric cancer survivors, including those with brain tumors, showed 3mg of melatonin 
improved aspects of sleep and cognition, and also noted that the addition of interventions 
targeting behavioral changes based in cognitive behavioral therapy for insomnia (CBT-I) could 
have improved gains further based on results in prior trials.[79] 
A 2022 systematic review that included analyses of recent randomized controlled trials in 
pediatric neurodevelopment populations reported no adverse events with short term <3month 
use and few mild side effects even with prolonged usage in pediatric patients.[80] While some 
healthy children may respond to behavioral interventions targeting sleep hygiene alone, those 
with neurodevelopmental and neurologic diagnoses are more likely to need additional 
interventions, with melatonin combination being the first line treatment to address sleep 
latency and maintenance.[42, 52, 54, 81] It should be noted that TBI patients have high rates of 
baseline neurodevelopmental disorders, which also increases the risk for post-traumatic SWD 
after hospital discharge.[47, 82] A recent literature review and expert consensus panel 
convened in 2019 additionally endorsed the safety of melatonin and recommended use in 
conjunction with educational and behavioral interventions (sleep hygiene, routines, family 
education, etc) in children; this review specifically highlighted the safety of melatonin in short 
and long-term use in pediatric patients and the fact that melatonin is used in conjunction with 
sleep education targeting improved sleep hygiene.[83] A recent study also showed a >200% 
increase in the use of melatonin among hospitalized children of all diagnoses in a large tertiary 
academic children’s hospitals between 2016 and 2020, showing the increasingly ubiquitous use 
of melatonin in pediatrics; most of the doses were scheduled nightly during hospitalization, 
were used in ICU and non-ICU areas, ages ranged from 2months of age to >18years of age, doses 
ranged from <1mg to 30mg depending on age and indication targeted.[84] A dose finding trial in 
pediatric oncology showed melatonin was well tolerated at doses up to 0.3mg/kg (max 
20mg).[85] Melatonin and sleep educational interventions are most often used in conjunction, 
though the combination has not been studied for SWD in hospitalized pediatric TBI populations. 
These interventions are promising given safety and pleiotropic effects with respect to sleep 
onset, maintenance, and anti-inflammatory properties, as well as potential for easy 
dissemination and implementation, directly applicable to the pediatric TBI population. This 


 
Page 4 of 20 
 
study will primarily evaluate feasibility and acceptability of a real-world sleep intervention 
frequently employed in the pediatric TBI population within the outpatient setting. We will also 
explore whether earlier inpatient employment of standard SWD interventions (melatonin and 
sleep education) commonly administered in the outpatient setting can provide benefit when 
employed earlier in the disease course as an adjuvant to clinical TBI care. 
4. Study Design 
This is a pilot randomized controlled phase II intervention trial evaluating early melatonin and sleep 
education via handouts versus placebo following pediatric traumatic brain injury (TBI) in two parallel 
study arms. This single center trial will focus on feasibility and acceptability outcomes, but will also 
obtain data on clinical effectiveness to reduce sleep wake disturbances at 30-day outcomes assessment. 
Sleep disturbances (with questionnaires and actigraphy data from Fitbits), feasibility (with clinical data 
collection, participant survey), and acceptability (survey, medical chart review) outcomes will be 
collected. 
 
The intervention of this study uses a dietary supplement (melatonin) and an educational intervention 
administered via handouts. This study is not designed to evaluate melatonin’s therapeutic efficacy or 
potential to diagnose, cure, mitigate, or otherwise treat a specific medical disorder, only to evaluate 
potential benefits to the bodily function of sleep when used with sleep education.  The combined 
intervention of melatonin and sleep education was designed to mirror real world clinical care employed 
in this population within the outpatient setting in order to be generalizable to a heterogeneous 
population that is representative of the pediatric TBI population; therefore, our trial is designed to be 
pragmatic and will be exploring effectiveness outcomes for SWD relevant to this population, rather than 
efficacy of any one part of the intervention. A primary focus will be feasibility and acceptability 
(including intervention usage) to inform a larger longitudinal trial that would be needed to account for 
unavoidable population heterogeneity in clinical characteristics and adherence to intervention 
recommendations within the clinical setting. 
 
5. Study Population 
 
a. Number of Subjects 
We expect to enroll between 30-50 patients based on eligibility over 2.5 years of recruitment. This 
estimate is based on the most recent hospital admissions data since the start of the COVID-19 pandemic 
estimating approximately 100 patients will qualify for the study over 2.5 years. Participants will be 
randomized 1:1 to receive the intervention. Recruitment and retention will be assessed during the trial 
as outcomes.  
 
b. Inclusion and Exclusion Criteria 
Children ≥6 years and <19 years of age admitted with TBI (defined as injury to the head from 
external forces with severity mild, moderate, or severe classified by Glasgow Coma Scale) will be 
included.  
 
Children under the age of 6 years will be excluded due to increased variability in baseline sleep 
patterns, daytime napping, and lack of standardized tools identifying sleep outcomes between 
children younger and older than 6 years.  Patients over age 18 years will be excluded as they are 
primarily treated in adult care units and the study focus is pediatric. Patients unable to tolerate 
enteral medications within 72 hours of hospital admission, as defined by the clinical care 
Attending Physician, will be excluded from the study. Patients undergoing dialysis, requiring 
extracorporeal life support, or with significant liver dysfunction (defined as aspartate 
aminotransferase (AST) or alanine aminotransferase (ALT) more than 2 times the upper limit of 
normal for age) will be excluded. Patients about whom the Attending Physician has any safety 


 
Page 5 of 20 
 
concerns regarding use of melatonin as per clinical judgement will be excluded from the study. 
Patients with abusive trauma will be excluded.  Suspected or known prisoners are excluded. 
Pregnant patients are excluded. There will be no requirement for contraception during the trial 
in female patients of child-bearing age. Patients must have a parent or guardian with whom they 
reside in order to participate in the study given the parent-reported measures used for 
outcomes.  
 
There is inherent heterogeneity in the pediatric TBI population, and this study is designed to be 
inclusive of the representative clinical population, including those with pre-existing conditions. 
Given the ubiquitous use of melatonin in pediatric clinical care and research studies in a variety 
of pediatric populations with medical, developmental, and psychiatric disorders, no patients will 
be excluded for underlying medical conditions or concomitant medication use outside of the 
above exclusion criteria unless clinical judgement by the Attending Physician on the clinical care 
team would preclude use of melatonin for safety concerns. 
 
Potential participants will be screened on arrival through the OHSU Emergency Department (all 
traumas, suspected traumas, and trauma referrals from other institutions are evaluated by the 
Trauma Surgery team in the Emergency Department per OHSU policy prior to admission). 
Medical records will be reviewed by the study team to determine eligibility; a waiver of consent 
under “Activities Preparatory to Research” for participant eligibility determination by research 
coordinators will be obtained. Research coordinators with the Trauma Research Group are 
present in the Emergency Department and are available to screen all TBI admissions for 
inclusion into active research studies 24hours/day. Screening information regarding 
inclusion/exclusion criteria will be retained for further analysis of recruitment outcomes. 
  
c. Vulnerable Populations 
The aims of this study are entirely focused on children ≥6 years to <19 years old.  Inclusion of children is 
appropriate given the proposal focus on sleep outcomes in pediatric traumatic brain injury.  Traumatic 
brain injury is a significant problem for children, including the leading cause of death and disability over 
1 year of age. Dr. Williams is a Pediatric Critical Care physician with significant expertise in caring for 
children of all ages with critical illnesses, including traumatic brain injury, during the acute 
hospitalization.  Dr. Williams also has unique expertise in the longitudinal care of these children after 
discharge, directing the Pediatric Critical Care and Neurotrauma Recovery Program. Age will be 
evaluated as a covariate in the analysis of both aims. Pregnant patients and prisoners are excluded. 
 
d. Setting 
Patients will be recruited from OHSU and Doernbecher Children’s Hospital 
 
e. Recruitment Methods 
Screening: Children with traumatic brain injury (TBI) will be screened for inclusion in the study 
by the Trauma Research Group (TRG) on admission to Oregon Health and Science University or 
Doernbecher Children’s Hospital. Research coordinators with the TRG are available to screen all 
TBI admissions for inclusion into active research studies 24 hours per day. Screening activities 
will take place under a HIPAA waiver per the “Activities Preparatory to Research” policy at 
OHSU. Given the extensive experience and training of the TRG, we expect very few if any screen 
failures of TBI admissions, and this will be actively monitored throughout the study period.  
Recruitment Procedures: Recruitment will be maximized by using consistent trained staff within 
the TRG that have extensive experience consenting subjects and surrogates for research, 
including critically injured children. The recruitment process will be overseen by Dr. Williams, a 
Pediatric Critical Care physician, with expertise in caring for critically injured children. TRG staff 


 
Page 6 of 20 
 
are trained and mindful of the critical nature of traumatic brain injury and will ensure the 
appropriate time and conditions for obtaining informed consent. Individual staff are monitored 
to ensure adherence to TRG standard operating procedures and study protocols.  
The appropriate time to approach patients will be determined by study staff and clinical care 
staff, and consent will be obtained within 72 hours of Pediatric Intensive Care Unit admission to 
ensure starting the intervention as early as possible. Delaying consent for critically ill patients 
will not adversely affect the study outcomes, but will allow for acute stabilization of patients 
prior to consideration of study inclusion, ensure ability to administer enteral medications, and to 
allow for determination by the primary clinical care team of a patient’s likelihood of survival. 
Consent procedures will be reviewed at least quarterly during TRG coordinator meetings to 
ensure ongoing consistency. The minimum goal set for recruitment is 50% of eligible patients.  
Retention: All patients consenting for inclusion will have phone, address, email contact 
information collected at time of consent.  Outcomes will be obtained at 1-month follow-up as 
described.  
Participants will be compensated $25 for time related to completion of study procedures at 
baseline and $50 for time to complete study procedures at 30-days (total $75 per participant). 
The FitBit account will be transferred to their participant preferred email account at study 
completion (cutting off research team access automatically) and can keep the FitBit device. 
f. Consent Process 
This intervention study is considered more than minimal risk, but with potential to directly benefit the 
participant and uses a low-risk intervention frequently employed in the care of pediatric TBI patients in 
the outpatient setting. Therefore, written informed consent for study inclusion will be obtained from 
one parent or legal guardian able to provide consent for minors, and those <18 years meeting criteria 
under Oregon law to be considered adults and unable to provide consent themselves. As above, 
participants must have a parent or legal guardian with whom they reside in order to participate. 
Additionally, acute TBI is likely to affect participants’ ability to provide informed consent. Therefore, 
minors will not be allowed to consent for themselves during this study, though we will require assent for 
those able to provide. Children who come of age or meet criteria under Oregon law to be considered 
adults during the study period will be re-consented for study inclusion.  The logistics will be determined 
according to the convenience of the families considering enrollment. Every effort will be made to ensure 
that the consent discussion occurs in a private environment, when the subject/parent/guardian duress is 
minimized to the extent possible. Participants will be approached for the study within 72 hours of 
admission, after acute stabilization from the critical illness (defined by clinical care Attending Physicians 
assessment as likely to survive to hospital discharge and able to tolerate enteral medications), either 
while in the PICU or on the acute care ward prior to discharge. All consent forms, documentation, and 
discussion will be conducted in the parents’ native language. We are aware that, under the 
circumstances, the study often needs extra-careful and repeated explanation. We routinely follow our 
explanation of the study protocol by a period for parents to ask questions, but in addition we also ask 
the parents questions to gauge their level of understanding. If it is our impression that parents remain 
unclear about aspects of the study, we spend extra time clarifying these specific issues. In this manner, 
all elements of the informed consent process will be discussed until the investigator is assured of the 
subject’s or parent’s (and, when appropriate the child’s) full understanding. 
 
Assent from children ≥7years of age for study inclusion will be obtained when possible:  
• 
Children younger than 7 years: Assent is not required because the subjects are so young 
they cannot reasonably be consulted. However, a simple verbal explanation of the study 
procedures should be given if appropriate.  


 
Page 7 of 20 
 
• 
Children ages 7 – 14 years: Researchers may obtain assent verbally and document this 
on the consent form or elsewhere in the research record, or researchers may ask the 
subject to sign an assent form after discussing the study with the subject at a level 
appropriate to the subject’s understanding. Researchers will use the OHSU assent 
template.  
• 
Children ages 15 – 17 years: The subject may sign the consent form along with his or her 
parent(s) or guardian as documentation of assent. A separate assent form is not needed. 
 
For non-English speaking participants, we have 24/7 available translators over the phone that will assist 
with the consent process. We will submit short consent form(s) for IRB review and approval as 
appropriate. An interpreter will assist with the initial consent process and subsequent study visits for all 
non-English speaking subjects. 
 
Other than screening procedures described above, no modifications to the written consent process will 
be used.  
 
6. Procedures Involved 
Data Collection: Patients meeting inclusion criteria (see Eligibility Criteria) will be approached within 
72hours of hospital admission to provide written consent and assent where appropriate. Parents will be 
asked to complete “baseline” assessments retrospectively to reflect the patient’s pre-injury status at the 
time of consent. Additional information will be collected by the study team from parents via survey and 
medical record review for demographic and clinical variables. Our goal recruitment and completion is for 
30-50 patients.  
Randomization: Patients will be randomized 1:1 to intervention and control arms using a covariate 
adaptive design through the randomize.net website. Given heterogeneity in age and TBI severity, we 
aim to balance these patient characteristics across the arms with a relatively small sample size. A 
covariate-adaptive design will achieve better balance than one based on block stratification, as such a 
scheme will increase a subject’s probability of being assigned to the arm that improves overall balance 
in age and TBI severity (Glasgow Coma Scale Score groups: mild 13-15, moderate 9-12, severe ≤8). 
Initially, we will assign patients 1:1 to each arm by simple randomization, until six patients have been 
enrolled in each arm; this will allow us to collect sufficient information on covariates and determine the 
distribution of age and TBI severity in each arm. Once this criterion has been met, the Pocock-Simon 
minimization algorithm will be implemented and subsequent patients will be randomized with a 
probability of 0.85 to the arm that lowers overall imbalance in age and TBI severity. All patients will be 
randomized within 72 hours of hospital admission. 
Intervention: All patients will receive standard clinical care for TBI regardless of study arm. Patients 
randomized to the intervention will receive a bundled sleep intervention consisting of melatonin and 
sleep education via a handout provided in discharge paperwork. Melatonin doses of 3mg and 5mg will 
be administered as part of the intervention arm in standard doses based on patient weight to target 
approximately 0.1mg/kg and not to exceed 0.2mg/kg. Melatonin will be administered on the first night 
following consent, 1 hour prior to habitual bedtime, and continued nightly for 30-days. Each participant 
will start the melatonin or placebo intervention within 96 hours of hospital admission, varying with time 
of admission and consent. Patients randomized to receive the intervention will be given a written sleep 
education handout developed with age-based recommendations from the American Academy of Sleep 
Medicine and access to web-based sleep educational resources developed from similar materials used in 
the care of pediatric brain injury patients within the outpatient setting.  
The handouts delivered with discharge paperwork will be incorporated into the discharge instructions 
section within the electronic medical record by a research assistant. Handouts contain resources 
outlined below educating patients and families on the importance of sleep, sleep hygiene, sleep 


 
Page 8 of 20 
 
routines, environmental changes to facilitate sleep, and relaxation techniques; the handouts were 
adapted from standard care provided in our outpatient program for TBI management (see details 
below). Further, a study in a pediatric ICU cohort designed to directly compare modes of educational 
intervention delivery, and included parents of pediatric TBI patients, recently showed an educational 
handout was just as effective as a scripted conversation or a short video when attempting to educate 
families about morbidities after hospital discharge, but the handout was the most sustainable and 
supported by hospital staff.[86] 
Participants randomized to the control arm will receive placebo (microcrystalline cellulose) and the 
sleep education handout delivered with discharge paperwork as above. All patients will receive clinical 
care as usual for management of TBI. All traumatic brain injury patients at OHSU receive referrals for 
clinical follow up with the Pediatric Critical Care and Neurotrauma Recovery Program (PCCNRP); other 
referrals made to outpatient programs are made on an as needed basis depending on type of TBI and 
other concurrent injuries or morbidities identified during hospitalization. While in the hospital, current 
standard of care treats morbidities after TBI as needed and varies by clinical provider; there is no 
standard for treating sleep problems in the hospital. As outpatients, all hospitalized pediatric trauma 
patients at OHSU are referred to the PCCNRP clinic 4-6weeks after discharge. At this outpatient visit, a 
comprehensive assessment in physical function and morbidity is made by Dr. Cydni Williams (Pediatric 
Intensivist), which includes assessment of sleep; a brief neuropsychological assessment of cognitive 
function and a comprehensive psychological assessment are made by Dr. Trevor Hall (Pediatric 
Neuropsychologist). Given this study’s intervention is designed for 30days and we plan to make no 
changes to clinical care, all patients in the trial will still have access to these evaluations at clinic 
appointments 4-6weeks after discharge.  
As noted above, we see high rates of SWD with regard to initiation and maintenance of sleep and our 
first line recommendations at these outpatient appointments for pediatric TBI patients are a 
combination of melatonin supplementation (at doses of 1mg to 10mg targeting soporific effects 
depending on child age and size) and sleep education targeting improvements in sleep hygiene, 
routines, relaxation, and environment to facilitate sleep delivered in conjunction with each other. The 
sleep education recommendations are included in a paper report of the entire visit that includes 
education about the importance of sleep, sleep hygiene, environmental changes to promote sleep, and 
relaxation techniques. This report also includes links to videos developed by Dr. Cydni Williams, Dr. 
Trevor Hall, and Dr. Andrew Riley utilizing the CBT-I principles (links to videos found in supplemental 
documents). Both the written information and video links provided in clinic were used to develop the 
proposed sleep education handout portion of this study’s intervention delivered at hospital discharge in 
this trial; the videos for the study were placed in Qualtrics to aid in tracking usage for the study and 
generating links and QR codes for easy access, and the written information was formatted for the study 
to provide concise information across a broad population and visual appeal for children or teens. 
Participants and study staff assessing outcomes will be blinded to intervention status. Research 
assistants on the study staff will add the sleep education handouts with video links to discharge 
instructions to be delivered by the bedside nurse in concurrence with clinical care. The intervention was 
designed this way to increase feasibility and generalizability for the future by providing a means of 
information dissemination that could be easily and widely adopted if effective within different health 
systems in conjunction with clinical care. This research assistant will be notified by REDCap when a 
participant is enrolled, and will place instructions in the discharge section of the electronic health record 
that is automatically printed at discharge, without interaction with other study team members or 
families. Additionally, this portion of the intervention will be delivered at hospital discharge concurrent 
with clinical care to improve generalizability in future work by limiting change to institutional care 
practices. The sleep handout will be delivered in conjunction with standard discharge instructions 
provided to all TBI patients and other care will remain per our institutional TBI standards directed by the 


 
Page 9 of 20 
 
patient’s care team (an example of these standard TBI discharge instructions are uploaded in supporting 
documentation). 
Outcomes: We will include measures of feasibility, acceptability, and effectiveness. See Table 1 for 
summary of outcomes and schedule of collection. Outcomes will be assessed at hospital discharge, and 
a study visit at 30 days ±17 days. 30-day outcomes assessments will be defined from the time of study 
intervention initiation. The primary outcomes will be measures of feasibility and acceptability, with 
exploration of effectiveness in this pilot trial. Quantitative measures of recruitment and retention 
(feasibility), adverse events and utilization (acceptability), and total score of the Sleep Disturbances 
Scale for Children (SDSC) at 30-days (clinical effectiveness) will be used. Outcomes will be collected by 
the study team over the phone, via chart review, or via electronic survey administered through REDCap. 
Secondary and other outcome measures will be collected by activity monitor, chart review, survey, sleep 
questionnaire, and actigraphy devices. Fitbits will be worn continuously during the 30 day study period 
except when removed for charging the device.  
Text messaging will be used for system generated reminder prompts such as “Please sync your device"; 
or if battery is low, "Please charge your battery” during the 1-month study period while participants 
wear the Fitbit. Text messaging functions require sharing of participant phone numbers with the 
Fitabase platform and Twilio, Inc. 
Feasibility benchmarks will be assessed every 6 months during the trial. If feasibility benchmarks are not 
met, study procedures and the protocol will be reviewed using input from stakeholders and preliminary 
data to determine if changes are warranted.  
Table 1. Outcomes Evaluation and Analysis for Melatonin Trial 
 
Outcome (time 
collected) 
Measurement or Assessment Tool 
Analysis  
Feasibility Outcomes 
 
*Recruitment (6-
monthly feasibility 
reviews) 
Number subjects consented/approached; goal >50% 
Descriptive percent 
*Retention (6-monthly 
feasibility reviews) 
Quantitative Number completed/consented; Goal 
>90% 
Descriptive percent 
Screen failure (6-
monthly feasibility 
reviews) 
Number approached/eligible patients; expect <<5%; 
eligible patients will be derived from the OHSU 
Trauma Registry and compared to study logs 
Descriptive percent 
Reasons for 
Participation/ Non-
participation (time of 
approach/consent) 
Qualitative response to survey: “Please describe 
reasons you chose [not to or to] participate in this 
research study”; “Could the study team do 
something different in the future to increase 
chances you would participate in future studies?” 
Thematic analysis 
Reasons for drop-out 
(30-day) 
Qualitative response to survey: “We would like to 
know how we can improve our study in the 
future. Please tell us your reasons for leaving the 
trial”; “How could the study team have assisted 
you better in completing the trial?” 
Thematic analysis 
Adherence (30-day) 
Pill counts: adherent if ≥75% prescribed pills are 
taken at the follow-up study visit; will be counted 
as unknown if pill count not available 
Sleep  tracking usage: actigraphy data and sleep 
diaries will be compared to age based 
recommendations; actigraphy counted as 
Descriptive percent; Chi-
square to compare 
intervention arms 
Descriptive percent; Chi-
square to compare 
intervention arms 


 
Page 10 of 20 
 
adherent if device worn for ≥5 nights 
consecutively; we will assess sleep routines 
through actigraphy; will be counted as unknown if 
did not participate in the actigraphy portion 
Quantitative survey: “How many nights each week did 
you take the study medication since discharge?” 
None, 1-3, 3-4, 5-7, All  
Quantitative survey response: “Did you receive sleep 
education with your hospital discharge 
paperwork?”; choices of a) did not receive 
discharge paperwork; b) I did not receive any 
sleep education at discharge; c) I received it, but 
did not use it; d) I received it, but did not find it 
helpful; e) I received it, and found it helpful; 
responses to this question will also be compared 
with the discharge instructions within the 
electronic health record to determine if the 
resource was provided as intended. 
 
 
 
 
 
 
Descriptive percent; Chi-
square to compare 
intervention arms 
Acceptability Outcomes 
 
*Adverse Events 
(discharge,  30-day) 
Qualitative response to survey: “Did you have any 
new medical problems since the last study visit?” 
Quantitative yes/no response: “Did you have any of 
the following symptoms since the last visit” 
a. Nausea 
b. Vomiting 
c. Diarrhea 
d. Drowsiness 
e. Fatigue 
f. Headache 
g. Behavioral changes 
h. Vivid dreams 
i. 
Nightmares 
j. 
Waking up at night 
k. Itchy skin 
l. 
Rash 
m. Appetite changes  
n. Bodily pain or aches 
o. Chest pain 
p. Enuresis or bedwetting 
q. Dizziness 
r. Tinnitus or ringing in the ears 
s. Feeling cold 
Evaluation of medical record, patient assessments to 
quantify adverse events and unexpected 
problems collected as a dichotomized yes/no and 
number of events 
Thematic analysis 
 
 
Descriptive percent and 
mean with standard 
deviation; Chi-square 
(yes/no) and Mann-
Whitney U test 
(continuous) to 
compare intervention 
arms 
Satisfaction (30-day) 
Quantitative rankings on a likert scale survey: 
experiences with the study overall, consent 
process, study team, study intervention, 
questionnaires, Actigraphy devices, care received 
Descriptive median and 
interquartile range; 
Mann-Whitney U tests 


 
Page 11 of 20 
 
clinically in the hospital, care received clinically 
after hospital discharge 
Qualitative response to survey: “If you were provided 
sleep education, and did not use it or find it 
helpful, please describe reasons:"; “If you were 
provided sleep education, and found it helpful, 
please describe how you utilized the resources”; 
“How can the study team improve the experience 
of participants in future studies” 
to compare 
intervention arms 
 
Thematic analysis 
Reasons for Non-
adherence (30-day) 
Qualitative responses to survey: “Please describe 
reasons for not taking the study medication”; 
“Please describe reasons for not using the sleep 
educational resources provided at hospital 
discharge”; “How could the study team improve 
the design of the study in the future”; “How could 
the study be improved in the future” 
Thematic analysis 
Exploratory Clinical Effectiveness Outcomes 
 
*Sleep wake 
disturbance (Baseline, 
30-day) 
Sleep Disturbances Scale for Children (SDSC) total 
score 
Descriptive mean and 
standard deviation; 
linear regression to 
compare intervention 
arms 
Sleep wake disturbance 
phenotypes (Baseline, 
30-day) 
SDSC subscale scores, Children’s Chronotype 
Questionnaire, actigraphy measures (total sleep 
time, sleep onset latency, wake after sleep onset, 
sleep efficiency, night sleep:total sleep time, sleep 
onset, sleep offset, daytime sleep episodes, 
duration of daytime sleep) 
Descriptive mean and 
standard deviation; 
linear regression to 
compare intervention 
arms 
Global health (Baseline, 
30-day) 
Pediatric Quality of Life Inventory (PedsQL) scales for 
core, fatigue 
Descriptive mean and 
standard deviation; 
linear regression to 
compare intervention 
arms 
Emotional health 
(Baseline, 30-day) 
PROMIS measures for anxiety and depression 
Descriptive mean and 
standard deviation; 
linear regression to 
compare intervention 
arms 
Physical function 
(Baseline, 30-day) 
PROMIS measures for pain; Functional Status Scale 
Descriptive mean and 
standard deviation; 
linear regression to 
compare intervention 
arms 
Cognitive function 
(Baseline, 30-day) 
Behavior Rating Inventory of Executive Function, 
Second Edition 
Descriptive mean and 
standard deviation; 
linear regression to 
compare intervention 
arms 
*Primary outcomes 
 


 
Page 12 of 20 
 
Subjects can withdraw from the study at any time, including discontinuation of the intervention. 
Subjects can choose to withdraw consent for use of their data during the study, and they will be fully 
removed. Subjects can also choose to withdraw from the intervention, but continue in the study where 
their data will be collected and analyzed. 
 
7. Data and Specimens 
Data and protected health information will be safeguarded in multiple ways. First, all study forms 
will include only a study ID number.  Actigraphy devices will be configured with only an ID number 
and will not store any identifiers. The key to study ID and patient identifiers will be maintained by 
the PI in a secure REDCap database that is password protected and hosted on the OHSU secure 
server.  All study data will be inputted into REDCap by members of the study team.  The PI will 
maintain the REDCap database and provide access only to study team members.  All exports of data 
from REDCap will be coded.  
All potential physical discomforts related to actigraphy devices will be minimized by allowing 
participants to remove the device if discomfort occurs and to withdraw from this portion of the 
study if desired. The actigraphy data will be collected using Fitbit devices. 
The Fitbit mobile app and device require the creation of individual accounts with Fitbit for all study 
participants within the Fitbit app on a smart phone or tablet. Participants will be asked to use an 
email address of their choosing and accept Terms and Conditions for use of the Fitbit app.  The data 
collected from the Fitbit devices will NOT be integrated with the medical record of the patient or 
used for clinical decision making.  FitBit data will be collected through syncing with the FitBit app on 
a smart phone or tablet at least weekly by the participant. The Fitabase platform will be used to 
remotely collect real-time physical activity and sleep data from study participants’ Fitbit accounts, 
and also to send personalized text messages to participants’ cell phones. Participants will be asked 
to accept the Fitabase Terms and Conditions for linking with the Fitbit App. Fitabase is a secure 
password-protected web-based platform hosted in a HIPAA-compliant server. Fitabase comprises 
user-friendly visualization and data exportation tools that allow key research personnel to view 
participants’ Fitbit data in the form of graphs every time participants sync their wearable tracker 
with the Fitbit mobile app. Study participants will not have access to Fitabase; they will only interact 
with the Fitbit mobile app and activity tracker. The text messaging feature is integrated with 
Fitabase and utilizes Twilio’s application programming interface to send messages via the SMS 
protocol. Participants will be consented to utilize their smart phone devices for syncing with the 
Fitbit app and to receive text messages from the platform to serve as reminders to sync devices and 
to utilize the online resources for those in the intervention phase. The only identifier shared with 
the Fitabase platform and Twilio, Inc. is the telephone number for the smart phone device the 
participant consents to utilize. Participants will be asked to use and email address of their choosing 
to create an account within the Fitbit App.  
All risks associated with the intervention will be minimized by allowing participants to discontinue 
the intervention at their discretion and the study team will regularly assess adverse effects of the 
intervention.  
If participants suffer any unforeseen harms including psychological, emotional, physical, they will be 
encouraged to contact the PI or the IRB. Contact information will be provided in the consent forms 
including telephone, mail, and email. 


 
Page 13 of 20 
 
a. Sharing of Results with Subjects 
Data from this clinical trial will not be shared directly with participants. The results of the clinical trial 
and de-identified data will be made in accordance with NIH regulations and clinicaltrials.gov.  
 
b. Data and Specimen Banking 
No specimens will be stored. Study records will be retained for the longest regulatory retention period.  
After that time, records will be destroyed in a confidential manner.  
 
8. Data Analysis 
See Table 1 for outline of data analysis planned for study outcomes. As this is a pilot intervention trial, 
the focus will be on feasibility and acceptability of the pragmatic intervention trial. We will also explore 
effectiveness outcomes, but recognized we will be underpowered for a definitive effectiveness trial 
within this heterogeneous population selected to be representative of the population of interest. We 
will use our pilot trial to inform a future larger trial that will include longitudinal real world health 
outcomes relevant to the pediatric TBI population if supported by our preliminary results. 
Prior to evaluating outcomes, we will perform a thorough descriptive analysis of participant baseline 
characteristics (age, race, ethnicity, gender, pre-injury comorbidities, TBI characteristics including 
severity, location, and type). We will examine patterns of missingness in our outcomes collected at 1-
month, differences in participant and non-participant characteristics, and differences in participants 
who completed versus dropped out of the study to ascertain potential bias. Additionally, we will 
describe and compare the distribution of patient and clinical characteristics, including age and TBI 
severity, across treatment groups to ensure our randomization protocol was successful. Comparisons 
between groups will be made using chi-square tests for categorical variables. Depending on 
characteristics of the data, t-tests and Mann-Whitney U tests will be used to compare continuous 
variables between groups. We plan to perform both intention to treat and per protocol analyses.  
Quantitative feasibility outcomes will be presented as a percentage of patients, the denominators of 
which are listed in Table 1. Comparisons between groups will be made with chi-square tests. 
Quantitative acceptability outcomes for adverse events will be dichotomized to yes/no and evaluated as 
a total number for each patient summarized using percent and median with interquartile range (IQR), 
respectively. Acceptability outcomes for satisfaction will be measured using Likert scales for which we 
will present results as medians and IQR. Chi-square tests will be used to compare dichotomized 
outcomes between treatment groups, and Mann-Whitney U tests will be used to compare total number 
of events. Effectiveness outcomes will be summarized using means and standard deviations, except for 
daytime sleep episodes which will be summarized as a median and IQR; these outcomes will be 
summarized for the overall study population and by treatment group. We will primarily examine the 
effectiveness of our intervention using linear regression to assess differences in the total SDSC score 
across treatment groups at 1-month. Linear regression will allow us to assess differences in effectiveness 
outcomes while controlling for covariates that may confound this relationship; covariates of particular 
interest will include age and TBI characteristics. Covariates identified in our initial descriptive analysis as 
significantly different between treatment groups, and covariates significantly associated with SDSC total 
score in bivariate analyses will also be explored with multiple linear regression.  
Secondary effectiveness outcomes that specifically evaluate sleep phenotypes (measured by 
questionnaire and actigraphy) will be similarly evaluated with linear regression, except daytime sleep 
episodes which will be modeled using a count model, such as Poisson or negative binominal regression. 
For these secondary effectiveness outcomes, our focus is the magnitude of the association rather than 
statistical significance, as multiple comparisons will be made. Our primary goal with this secondary 
analysis will be to determine if the intervention appears effective for particular phenotypes that could 
be targeted in future studies. Results of these secondary analyses will be used as estimates for effect 
sizes in future intervention study design. 


 
Page 14 of 20 
 
Qualitative analysis of survey responses for feasibility and acceptability outcomes (Table 1) will be 
analyzed with thematic network analysis. Transcription of survey responses will be coded using a hybrid 
approach: 1)based on the pre-specified survey questions administered (deductive approach); 2)creating 
new codes as needed based on participant responses to open ended questions (inductive approach). 
Coded transcripts will be used to construct thematic networks identifying global and organizing themes 
reported among responses. Exploration and description of thematic networks will be used to identify 
patterns within data for interpretation. 
 
9. Privacy, Confidentiality, and Data Security 
Data and protected health information will be safeguarded in multiple ways. All data will be stored on and OHSU 
secure drive or in the OHSU secure REDCap database, which is encrypted, and password protected. Access to 
REDCap will be controlled by the PI and is stored on an OHSU encrypted and password protected server. All 
study forms will include only a study ID number. All study data will be inputted into REDCap by members of the 
study team trained in Human Subjects Research and Responsible Conduct of Research as well as study 
procedures.  The PI will maintain the REDCap database and provide access only to study team members.  All 
exports of data from REDCap will be coded. 
 
10. Provisions to Monitor the Data to Ensure the Safety of Subjects 
Adverse events related to the intervention trial will be assessed at hospital discharge, and at 30-days via 
clinic visit, survey, and medical record review. All adverse events will be recorded and reported as 
required.  
 
A Data and Safety Monitoring Plan (DSMP) including the provision of an institutional Data Safety 
Monitoring Board (DSMB) will be submitted as a separate documents for approval to the IRB.  
 
As this trial is a pilot investigation, we do not have prespecified stoppage criteria. Trial progress and 
safety will be closely monitored by the PI and DSMB. The PI will review Serious Adverse Events (SAEs) as 
they occur and the DSMB will review SAEs at each meeting and on an as-needed basis. The DSMB will 
review trial progress and safety. The DSMB recommendations may include study continuation without 
modification, study termination, study continuation with protocol modification, or temporary 
suspension of enrollment until further evaluation is completed. The DSMB will review each death 
occurrence. Cumulative SAEs for each study arm will be provided to the DSMB and reports will be 
submitted to the study team, IRB, program staff at the National Institutes of Health, and the Food and 
Drug Administration as required. If the PI is notified of any SAE that is thought possibly related to the 
study, the participant will be immediately withdrawn.  
 
11. Risks and Benefits 
a. Risks to Subjects 
Intervention risks will be considered more than minimal risk, but with potential to directly benefit the 
participant. Melatonin has demonstrated a good safety profile in multiple studies involving children and 
is available as a dietary supplement over the counter. A concern regarding use of over the counter 
melatonin is the variability in content and contaminants within supplements noted from lack of FDA 
oversight of dietary supplements.[87] We have minimized this risk by working with a manufacture that 
has provided Chemistry and Manufacturing Control data reviewed and approved for use by the FDA IND 
application. No serious adverse events have been reported with melatonin use in short or long-term 
studies as noted above. Studies using melatonin have reported symptoms including: dermatologic (itchy 
skin, rash), gastrointestinal (stomach upset, appetite changes, emesis), neurologic (drowsiness, blurred 
vision, vivid dreams), and bodily pain. Placebo studies report similar symptoms. Melatonin may affect 
levels of medications metabolized in the liver (particularly through CYP1A2 and CYP450 enzymes) or that 
are conjugated in the liver to sulfuric or glucuronic acid. There are unclear effects of melatonin on auto-


 
Page 15 of 20 
 
immune disorders and immune function. Melatonin is considered a dietary supplement, and as such, not 
regulated by the Food and Drug Administration. All risks will be communicated to the participant and 
included in the written consent provided to participants.  
No serious adverse events were reported in recent meta-analyses of studies using melatonin conducted 
in children with neurodevelopmental disorders, including epilepsy, or in a recent adult trial comparing 
melatonin and placebo, but melatonin appeared to effectively improve sleep. No serious adverse events 
were reported in a recent randomized trial in pediatric concussion using doses up to 10mg (double this 
trial’s maximum dosing).[76] The potential benefit of improved sleep after TBI in our study compared to 
the risk associated with melatonin is likely as favorable to standard care given >50% have disturbed 
sleep after discharge without treatment and SWD are associated with worse cognitive functions and 
quality of life in pediatric TBI patients.  
Given the ubiquitous use of melatonin in pediatric clinical care and research studies in a variety of 
pediatric populations with medical, developmental, and psychiatric disorders, no patients will be 
excluded for underlying medical conditions or concomitant medication use, outside of exclusion criteria 
above. Patients will be excluded from the trial if the clinical care Attending Physician deems the patient 
unable to tolerate enteral medications or otherwise has safety concerns regarding use of melatonin.  
There will be no requirement for use of contraception in female participants of child-bearing age given 
no known adverse effects of melatonin in pregnancy and short duration of the intervention. Pregnant 
patients will be excluded from the trial or withdrawn immediately from the trial if become pregnant. 
The educational intervention proposed in this study is of minimal risk given it is a handout with 
resources to promote healthy sleep. As part of our acceptability outcomes, we will evaluate utilization 
and usefulness of this portion of the intervention. 
Data collection, questionnaire and survey risks include loss of confidentiality. Participants will provide 
questionnaire and survey data via paper forms, electronic survey through REDCap, or telephone 
interview at 30-day time points.  Paper forms will only contain the subject study ID without other 
identifiable information to minimize risk of loss of privacy and confidentiality. Paper forms will be 
entered by a Research Assistant into REDCap. Access to identifiable information will be limited to study 
personnel and not shared with anyone outside the research group. Every effort will be made to 
minimize risk of loss of confidentiality. All study related paper forms will be destroyed after completion 
of the study. 
Actigraphy risks include loss of confidentiality and minor physical discomfort. Participants will wear 
actigraphy devices for a period of one month that pose no more than minimal risk to subjects.  
Actigraphy devices will be distributed to participants during clinical visits or via mail. System generated 
text messages are sent weekly to remind participants to sync with the smartphone app to collect 
actigraphy data. Participants will be consented for use of text messaging and can opt out at any time by 
contacting the research team. 
 
Study computers are password protected and encrypted within the OHSU network firewall and access 
will only be granted to study team members to minimize risk of loss of confidentiality.  Actigraphy 
devices are non-invasive and can be freely removed by participants, but there is a small risk of 
discomfort related to the device. Participants will be allowed to withdraw from this portion of the study 
if desired. 
 
b. Potential Benefits to Subjects 
Participants may directly benefit from the intervention given the high prevalence of sleep disturbances 
after TBI, and literature supporting melatonin and sleep educational interventions in pediatric 
populations with SWD targeting the most prevalent sleep problems seen after pediatric TBI. While the 
placebo arm may not benefit directly from intervention, the increased focus on sleep through 


 
Page 16 of 20 
 
recruitment into the trial may provide indirect benefit to all participants. There is a notable lack of 
interventions implemented in the hospital available to improve outcomes after pediatric TBI. SWDs 
represent a modifiable target associated with a variety of poorer post-discharge outcomes in pediatric 
TBI patients; thus, improving sleep may lead to improvement in multiple morbidities in pediatric TBI. 
 
12. Drugs or Devices  
 
The OHSU Research Pharmacy will oversee compounding and distribution of the study interventions 
(melatonin and placebo) per their standard operating procedures. 
 
References 
 
1. 
Williams, C.N., A. Kirby, and J. Piantino, If You Build It, They Will Come: Initial Experience 
with a Multi-Disciplinary Pediatric Neurocritical Care Follow-Up Clinic. Children (Basel), 
2017. 4(9): p. 1-8. 
2. 
Williams, C.N., et al., The Burden of Pediatric Neurocritical Care in the United States. Pediatr 
Neurol, 2018. 89: p. 31-38. 
3. 
Faul M, X.L., Wald MM, Coronado VG. Traumatic Brain Injury in the United States: 
Emergency Department Visits, Hospitalizations and Deaths 2002-2006. Atlanta (GA): Centers 
for Disease Control and Prevention, National Center for Injury Prevention and Cotnrol. 2010  
10/5/2017]; Available from: https://www.cdc.gov/traumaticbraininjury. 
4. 
Williams, C.N., M.M. Lim, and S.A. Shea, Sleep disturbance after pediatric traumatic brain 
injury: critical knowledge gaps remain for the critically injured. Nat Sci Sleep, 2018. 10: p. 225-
228. 
5. 
Williams, C.N., et al., Sleep wake disturbances after acquired brain injury in children surviving 
critical care. Pediatr Neurol, In Press. 
6. 
Aaro Jonsson, C.C., I.M. Emanuelson, and A. Charlotte Smedler, Variability in quality of life 13 
years after traumatic brain injury in childhood. Int J Rehabil Res, 2014. 37(4): p. 317-22. 
7. 
Beebe, D.W., et al., Brief report: parental report of sleep behaviors following moderate or 
severe pediatric traumatic brain injury. J Pediatr Psychol, 2007. 32(7): p. 845-50. 
8. 
Sandsmark, D.K., J.E. Elliott, and M.M. Lim, Sleep-Wake Disturbances After Traumatic Brain 
Injury: Synthesis of Human and Animal Studies. Sleep, 2017. 40(5): p. 1-18. 
9. 
Gagner, C., et al., Sleep-Wake Disturbances and Fatigue after Pediatric Traumatic Brain Injury: 
A Systematic Review of the Literature. J Neurotrauma, 2015. 32(20): p. 1539-52. 
10. 
Crichton, A., et al., Fatigue Following Traumatic Brain Injury in Children and Adolescents: A 
Longitudinal Follow-Up 6 to 12 Months After Injury. J Head Trauma Rehabil, 2017. 
11. 
Tham, S.W., et al., The longitudinal course, risk factors, and impact of sleep disturbances in 
children with traumatic brain injury. J Neurotrauma, 2012. 29(1): p. 154-61. 
12. 
Baumann, C.R., et al., Sleep-wake disturbances 6 months after traumatic brain injury: a 
prospective study. Brain, 2007. 130(Pt 7): p. 1873-83. 
13. 
Kempf, J., et al., Sleep-wake disturbances 3 years after traumatic brain injury. J Neurol 
Neurosurg Psychiatry, 2010. 81(12): p. 1402-5. 
14. 
Healthy People 2020.  01/25/2019]; Available from: 
https://www.healthypeople.gov/2020/topics-objectives/topic/sleep-health. 
15. 
Chang, C.H., S.J. Chen, and C.Y. Liu, Pediatric sleep apnea and depressive disorders risk: A 
population-based 15-year retrospective cohort study. PLoS One, 2017. 12(7): p. e0181430. 
16. 
Wang, F., et al., Sleep Duration and Overweight/Obesity in Preschool-Aged Children: A 
Prospective Study of up to 48,922 Children of the Jiaxing Birth Cohort. Sleep, 2016. 39(11): p. 
2013-2019. 


 
Page 17 of 20 
 
17. 
Bogdanov, S., S. Naismith, and S. Lah, Sleep outcomes following sleep-hygiene-related 
interventions for individuals with traumatic brain injury: A systematic review. Brain Inj, 2017. 
31(4): p. 422-433. 
18. 
Larson, E.B. and F.S. Zollman, The effect of sleep medications on cognitive recovery from 
traumatic brain injury. J Head Trauma Rehabil, 2010. 25(1): p. 61-7. 
19. 
Singh, K., et al., Sleep Disorders Associated With Traumatic Brain Injury-A Review. Pediatr 
Neurol, 2016. 60: p. 30-6. 
20. 
Volk, C. and R. Huber, Sleep to grow smart? Arch Ital Biol, 2015. 153(2-3): p. 99-109. 
21. 
Ringli, M. and R. Huber, Developmental aspects of sleep slow waves: linking sleep, brain 
maturation and behavior. Prog Brain Res, 2011. 193: p. 63-82. 
22. 
Jan, J.E., et al., Long-term sleep disturbances in children: a cause of neuronal loss. Eur J 
Paediatr Neurol, 2010. 14(5): p. 380-90. 
23. 
Tononi, G. and C. Cirelli, Sleep and the price of plasticity: from synaptic and cellular 
homeostasis to memory consolidation and integration. Neuron, 2014. 81(1): p. 12-34. 
24. 
Kocevska, D., et al., The Developmental Course of Sleep Disturbances Across Childhood Relates 
to Brain Morphology at Age 7: The Generation R Study. Sleep, 2017. 40(1): p. 1-9. 
25. 
Kocevska, D., et al., Prenatal and early postnatal measures of brain development and childhood 
sleep patterns. Pediatr Res, 2018. 
26. 
Mahmood, O., et al., Neuropsychological performance and sleep disturbance following 
traumatic brain injury. J Head Trauma Rehabil, 2004. 19(5): p. 378-90. 
27. 
Shay, N., et al., Sleep problems and their relationship to cognitive and behavioral outcomes in 
young children with traumatic brain injury. J Neurotrauma, 2014. 31(14): p. 1305-12. 
28. 
Owens, J.A., Neurocognitive and behavioral impact of sleep disordered breathing in children. 
Pediatr Pulmonol, 2009. 44(5): p. 417-22. 
29. 
Gozal, D. and L. Kheirandish-Gozal, Neurocognitive and behavioral morbidity in children with 
sleep disorders. Curr Opin Pulm Med, 2007. 13(6): p. 505-9. 
30. 
Gamaldo, C.E., A.K. Shaikh, and J.C. McArthur, The sleep-immunity relationship. Neurol Clin, 
2012. 30(4): p. 1313-43. 
31. 
Kapsimalis, F., et al., Cytokines and pathological sleep. Sleep Med, 2008. 9(6): p. 603-14. 
32. 
Kapsimalis, F., et al., Cytokines and normal sleep. Curr Opin Pulm Med, 2005. 11(6): p. 481-4. 
33. 
Licastro, F., et al., Peripheral Inflammatory Markers and Antioxidant Response during the Post-
Acute and Chronic Phase after Severe Traumatic Brain Injury. Front Neurol, 2016. 7: p. 189. 
34. 
Kumar, R.G., J.A. Boles, and A.K. Wagner, Chronic Inflammation After Severe Traumatic Brain 
Injury: Characterization and Associations With Outcome at 6 and 12 Months Postinjury. J Head 
Trauma Rehabil, 2015. 30(6): p. 369-81. 
35. 
Opel, R.A., et al., Effects of traumatic brain injury on sleep and enlarged perivascular spaces. J 
Cereb Blood Flow Metab, 2018: p. 271678X18791632. 
36. 
Barlow, K.M., et al., Melatonin as a Treatment after Traumatic Brain Injury: A Systematic 
Review and Meta-Analysis of the Pre-Clinical and Clinical Literature. J Neurotrauma, 2018. 
37. 
Ferracioli-Oda, E., A. Qawasmi, and M.H. Bloch, Meta-analysis: melatonin for the treatment of 
primary sleep disorders. PLoS One, 2013. 8(5): p. e63773. 
38. 
Mindell, J.A., et al., Behavioral treatment of bedtime problems and night wakings in infants and 
young children. Sleep, 2006. 29(10): p. 1263-76. 
39. 
Owens, J.A., Rosen C., Mindell J., Medication Use in the Treatment of Pediatric Insomnia: 
Results of a Survey of Community-Based Pediatricians. Pediatrics, 2003. 111(5): p. e628-e635. 
40. 
Ophoff, D., et al., Sleep disorders during childhood: a practical review. Eur J Pediatr, 2018. 
177(5): p. 641-648. 


 
Page 18 of 20 
 
41. 
Hartz, I., et al., Paediatric Off-Label Use of Melatonin--A Register Linkage Study between the 
Norwegian Prescription Database and Patient Register. Basic Clin Pharmacol Toxicol, 2015. 
117(4): p. 267-73. 
42. 
Abdelgadir, I.S., M.A. Gordon, and A.K. Akobeng, Melatonin for the management of sleep 
problems in children with neurodevelopmental disorders: a systematic review and meta-analysis. 
Arch Dis Child, 2018. 103(12): p. 1155-1162. 
43. 
Gruber, R., et al., Training, knowledge, attitudes and practices of Canadian health care 
providers regarding sleep and sleep disorders in children. Paediatr Child Health, 2017. 22(6): p. 
322-327. 
44. 
Bruni, O., et al., Current role of melatonin in pediatric neurology: clinical recommendations. 
Eur J Paediatr Neurol, 2015. 19(2): p. 122-33. 
45. 
Bock, D.E., et al., Sleep-promoting medications in children: physician prescribing habits in 
Southwestern Ontario, Canada. Sleep Med, 2016. 17: p. 52-6. 
46. 
Esposito, S., et al., Pediatric sleep disturbances and treatment with melatonin. J Transl Med, 
2019. 17(1): p. 77. 
47. 
Cydni N. Williams, et al., Sleep and Executive Functioning in Pediatric Traumatic Brain Injury 
Survivors after Critical Care. Children (Basel), 2022, In Press. 
48. 
Koopman-Verhoeff, M.E., et al., Association of Sleep Problems and Melatonin Use in School-
aged Children. JAMA Pediatr, 2019. 173(9): p. 883-885. 
49. 
Maras, A., et al., Long-Term Efficacy and Safety of Pediatric Prolonged-Release Melatonin for 
Insomnia in Children with Autism Spectrum Disorder. J Child Adolesc Psychopharmacol, 2018. 
50. 
Ivanenko, A., et al., Melatonin in children and adolescents with insomnia: a retrospective study. 
Clin Pediatr (Phila), 2003. 42(1): p. 51-8. 
51. 
Cortesi, F., et al., Controlled-release melatonin, singly and combined with cognitive behavioural 
therapy, for persistent insomnia in children with autism spectrum disorders: a randomized 
placebo-controlled trial. J Sleep Res, 2012. 21(6): p. 700-9. 
52. 
Jain, S.V., et al., Melatonin improves sleep in children with epilepsy: a randomized, double-
blind, crossover study. Sleep Med, 2015. 16(5): p. 637-44. 
53. 
Appleton, R.E., et al., The use of MElatonin in children with neurodevelopmental disorders and 
impaired sleep: a randomised, double-blind, placebo-controlled, parallel study (MENDS). 
Health Technol Assess, 2012. 16(40): p. i-239. 
54. 
Abramova, R., et al., Review of Melatonin Supplementation for Sleep Disorders in Pediatric 
Special Populations. J Pharm Pract, 2019: p. 897190019845982. 
55. 
Brown, K.M. and B.A. Malow, Pediatric Insomnia. Chest, 2016. 149(5): p. 1332-9. 
56. 
Duclos, C., et al., Rest-Activity Cycle Disturbances in the Acute Phase of Moderate to Severe 
Traumatic Brain Injury. Neurorehabil Neural Repair, 2014. 28(5): p. 472-82. 
57. 
Grima, N.A., et al., Circadian Melatonin Rhythm Following Traumatic Brain Injury. 
Neurorehabil Neural Repair, 2016. 30(10): p. 972-977. 
58. 
Claustrat, B., J. Brun, and G. Chazot, The basic physiology and pathophysiology of melatonin. 
Sleep Med Rev, 2005. 9(1): p. 11-24. 
59. 
Marseglia, L., et al., Melatonin Secretion Is Increased in Children with Severe Traumatic Brain 
Injury. Int J Mol Sci, 2017. 18(5): p. 1-10. 
60. 
Lorente, L., et al., Serum melatonin levels in survivor and non-survivor patients with traumatic 
brain injury. BMC Neurol, 2017. 17(1): p. 138. 
61. 
Shekleton, J.A., et al., Sleep disturbance and melatonin levels following traumatic brain injury. 
Neurology, 2010. 74(21): p. 1732-8. 
62. 
Alluri, H., et al., Melatonin Preserves Blood-Brain Barrier Integrity and Permeability via Matrix 
Metalloproteinase-9 Inhibition. PLoS One, 2016. 11(5): p. e0154427. 


 
Page 19 of 20 
 
63. 
Osier, N., et al., Melatonin as a Therapy for Traumatic Brain Injury: A Review of Published 
Evidence. Int J Mol Sci, 2018. 19(5). 
64. 
Ozdemir, D., et al., Protective effect of melatonin against head trauma-induced hippocampal 
damage and spatial memory deficits in immature rats. Neurosci Lett, 2005. 385(3): p. 234-9. 
65. 
Ozdemir, D., et al., Effect of melatonin on brain oxidative damage induced by traumatic brain 
injury in immature rats. Physiol Res, 2005. 54(6): p. 631-7. 
66. 
Naseem, M. and S. Parvez, Role of melatonin in traumatic brain injury and spinal cord injury. 
ScientificWorldJournal, 2014. 2014: p. 586270. 
67. 
Carrillo-Vico, A., et al., The modulatory role of melatonin on immune responsiveness. Curr Opin 
Investig Drugs, 2006. 7(5): p. 423-31. 
68. 
de Castro-Silva, C., et al., Melatonin improves sleep and reduces nitrite in the exhaled breath 
condensate in cystic fibrosis--a randomized, double-blind placebo-controlled study. J Pineal Res, 
2010. 48(1): p. 65-71. 
69. 
Marra, A., et al., Melatonin in Critical Care. Crit Care Clin, 2019. 35(2): p. 329-340. 
70. 
Clark, I.A. and B. Vissel, Inflammation-sleep interface in brain disease: TNF, insulin, orexin. J 
Neuroinflammation, 2014. 11: p. 51. 
71. 
Krueger, J.M., The role of cytokines in sleep regulation. Curr Pharm Des, 2008. 14(32): p. 3408-
16. 
72. 
Krueger, J.M., J.A. Majde, and D.M. Rector, Cytokines in immune function and sleep regulation. 
Handb Clin Neurol, 2011. 98: p. 229-40. 
73. 
Vgontzas, A.N., et al., Marked decrease in sleepiness in patients with sleep apnea by etanercept, 
a tumor necrosis factor-alpha antagonist. J Clin Endocrinol Metab, 2004. 89(9): p. 4409-13. 
74. 
Grima, N.A., et al., Efficacy of melatonin for sleep disturbance following traumatic brain injury: 
a randomised controlled trial. BMC Med, 2018. 16(1): p. 8. 
75. 
Bramley, H., et al., Sleep Disturbance Following Concussion Is a Risk Factor for a Prolonged 
Recovery. Clin Pediatr (Phila), 2017. 56(14): p. 1280-1285. 
76. 
Barlow, K.M., et al., Efficacy of Melatonin in Children With Postconcussive Symptoms: A 
Randomized Clinical Trial. Pediatrics, 2020. 145(4). 
77. 
Barlow, K.M., et al., Efficacy of Melatonin for Sleep Disturbance in Children with Persistent 
Post-Concussion Symptoms: Secondary Analysis of a Randomized Controlled Trial. J 
Neurotrauma, 2021. 38(8): p. 950-959. 
78. 
Keegan, L.J., et al., Effectiveness of melatonin for sleep impairment post paediatric acquired 
brain injury: evidence from a systematic review. Dev Neurorehabil, 2014. 17(5): p. 355-62. 
79. 
Lubas, M.M., et al., A randomized double-blind placebo-controlled trial of the effectiveness of 
melatonin on neurocognition and sleep in survivors of childhood cancer. Pediatr Blood Cancer, 
2022. 69(1): p. e29393. 
80. 
Zisapel, N., Assessing the potential for drug interactions and long term safety of melatonin for 
the treatment of insomnia in children with autism spectrum disorder. Expert Rev Clin 
Pharmacol, 2022. 15(2): p. 175-185. 
81. 
Schroder, C.M., et al., [Therapeutic approaches for sleep and rhythms disorders in children with 
ASD]. Encephale, 2022. 
82. 
Williams, C.N., et al., Sleep-Wake Disturbances After Acquired Brain Injury in Children 
Surviving Critical Care. Pediatr Neurol, 2020. 103: p. 43-51. 
83. 
Goldman, R.D., et al., Myths and Evidence Regarding Melatonin Supplementation for 
Occasional Sleeplessness in the Pediatric Population. Pediatr Ann, 2021. 50(9): p. e391-e395. 
84. 
Procaccini, D.E. and S.R. Kudchadkar, Melatonin Administration Patterns for Pediatric 
Inpatients in a Tertiary Children's Hospital. Hosp Pediatr, 2021. 11(11): p. e308-e312. 
85. 
Johnston, D.L., et al., Phase I dose-finding study for melatonin in pediatric oncology patients 
with relapsed solid tumors. Pediatr Blood Cancer, 2019. 66(6): p. e27676. 


 
Page 20 of 20 
 
86. 
Esses, S.A., et al., Post-Intensive Care Syndrome: Educational Interventions for Parents of 
Hospitalized Children. Am J Crit Care, 2019. 28(1): p. 19-27. 
87. 
Erland, L.A. and P.K. Saxena, Melatonin Natural Health Products and Supplements: Presence of 
Serotonin and Significant Variability of Melatonin Content. J Clin Sleep Med, 2017. 13(2): p. 
275-281. 
 

ICF_001.pdf: 
 
Template Version 12/13/2018 
 
Page 1 of 2 
 
 
STUDY00023078 
 
 
MED. REC. NO. _____ 
NAME 
_____ 
BIRTHDATE 
_____ 
 
 
 
CLINICAL RESEARCH CONSENT AND AUTHORIZATION 
SUMMARY OF KEY INFORMATION ABOUT THIS STUDY 
 
TITLE: Sleep Management And Recovery after Trauma in Kids (SMART-Kids): Melatonin 
Pilot Trial 
 
PRINCIPAL INVESTIGATOR: Cydni Williams M.D., M.C.R  
(503) 494-5522 
 
In this consent form “You” can mean you the adult participant, you the parent/guardian, or 
your child if the participant is a minor.  
 
You are being asked to join a research study. This consent form contains important 
information to help you decide if you want to join the study or not.  
 
PURPOSE: The purpose of the study is to learn about how melatonin and sleep education 
affect sleep wake disturbances after Traumatic Brain Injuries (TBI) in children. We are hoping 
to find out if the intervention is tolerated and whether it affects the quality of sleep.  
 
DURATION: Your participation in the study will consist of surveys, a phone call and one study 
visit over one month. The visit will last up to one hour. We may ask to follow your health 
through the use of medical record review, surveys, and a follow up phone call or email during 
this month.  
 
PROCEDURES: If you decide to take part in this study, you will get study drug (melatonin) or 
be assigned a placebo. You will be treated with usual care for TBI. Participants will also get 
additional sleep education in handouts. A placebo is a pill that looks like the study drug but 
has no real medicine in it. Half of the children in the study will receive melatonin. Of those 
children, some will receive 3mg and some will receive 5mg doses of melatonin based on body 
weight. We have designed the study so that you nor your care team will know which 
intervention you receive during the study.  
 
You will be asked to have a number of tests and procedures. We will ask the parent/guardian 
to complete surveys about your health and sleep. We will ask you to take, the study drug 
before bedtime. We will ask you to wear an activity watch (Fitbit) to track your sleep.  
 


 
 
Template Version 12/13/2018 
 
Page 2 of 2 
RISKS: The study drug may cause side effects like drowsiness, stomach upset, or vivid 
dreams. Wearing the activity watch may cause a rash or itchy skin. There is a risk of loss of 
confidentiality.  
 
BENEFITS: You may or may not benefit from participating in this study. The increased focus 
on sleep through recruitment into the study may promote better sleep habits.  
 
ALTERNATIVES:  You may choose not to participate in this study, and may receive standard 
treatment. Or you may participate in another study if one is available. Standard care for TBI 
includes following up with your clinical care teams to treat any symptoms like sleep 
disturbances that can happen after injury. 
 
This is a voluntary research study. You do not have to join the study. Even if you decide to 
join now, you can change your mind later. Please ask the Investigator if you have any 
questions about the study or about this consent form. 
 
END OF CONSENT SUMMARY 
 


 
Template Version 12/13/2018 
 
Page 1 of 8 
 
 
 
 
STUDY00023078 
 
MED. REC. NO. _____ 
NAME 
_____ 
BIRTHDATE 
_____ 
 
 
Clinical Research Consent and Authorization Form 
 
TITLE: Sleep Management And Recovery after Trauma in Kids (SMART-Kids): Melatonin Pilot 
Trial 
 
PRINCIPAL INVESTIGATOR: 
Cydni Williams M.D., M.C.R  
(503) 494-5522 
 
 
WHO IS PAYING FOR THE STUDY?: The National Heart, Lung, and Blood Institute (NHLBI) 
 
DO ANY OF THE RESEARCHERS HAVE A CONFLICT OF INTEREST WITH THIS STUDY?: 
No 
 
WHY IS THIS STUDY BEING DONE?: 
In this consent form “You” can mean you the adult participant, or you the parent/guardian, or 
your child if the participant is a minor.    
  
You have been invited to be in this research study because you have had a traumatic brain 
injury (TBI). The purpose of this study is to learn about how the use of melatonin (the study 
drug) and sleep education affect sleep wake disturbances (problems with the quality, timing, 
and amount of sleep) in participants with TBI. Melatonin and sleep education may improve sleep 
quality, fatigue, and sleep efficiency.  
 
The study drug is experimental. Melatonin is available as a dietary supplement over the counter, 
but is not FDA approved to treat sleep wake disturbances.  
 
This study requires follow-up visits and will take about a month to complete.  
 
Your identifiable information will not be stored and used for future research.  
 
Up to 50 people will be enrolled in this study.  
 
WHAT EXAMS, TESTS AND PROCEDURES ARE INVOLVED IN THIS STUDY?   
Participants will receive clinical care and the usual follow up for TBI regardless of the 
intervention they are assigned to. There is currently no standard for treatment of sleep problems 
in the hospital after brain injury. Usual care for TBI includes referrals for clinical follow up with 
the Pediatric Critical Care and Neurotrauma Recovery Program, and/or referrals to other 
outpatient programs to address any symptoms like sleep disturbances that can happen after 
injury. 
 
If you agree to participate we will review your medical records.  
 
This is a randomized (like flipping a coin) study. Neither you nor the investigator can choose 
whether you get melatonin or the placebo. All participants will receive standard clinical care and 
follow up for TBI. Half of participants in this study will get the placebo. Taking melatonin is not 


 
 
Template Version 12/13/2018 
 
Page 2 of 8 
part of usual care for TBI. The other half will be given the study drug (melatonin). All participants 
will also receive a sleep education handout. You and the investigators will not know which pill or 
dose you are taking. The study is done this way because knowing whether you are getting the 
study drug can change the results of the study. If you start having serious side effects from the 
study drug, the investigators can find out what you are taking in order to help you. Please ask 
the investigator if you have any questions about this kind of study.  
 
We will ask you to complete surveys to learn about your pre-injury health and sleep quality. 
These assessments will take 30 minutes at the time of enrollment. You will be asked to take the 
study drug or a placebo one hour before their usual bedtime each night for 30 days. We will 
provide a brief educational handout providing resources about sleep.  
 
After one month, we will ask you to complete a study visit using surveys about health and sleep 
quality. These surveys ask about things like physical discomfort and function, mood and 
behaviors, falling and staying asleep, participation in activities and school. We will also ask you 
about using the study medication and your experience with the study. You will also return the 
study drug container with any remaining study drug. This visit will take up to an hour. We will try 
to coordinate this visit with other visits you need for medical care to the hospital. If you do not 
attend a visit for medical care at the hospital during the time frame of the study, we will contact 
you at the phone number or email address you provided so that you can choose to complete the 
study surveys by phone, mail, or electronic mail survey to help you complete the study visit. 
 
Participants with TBI will be provided a Fitbit (activity device) to help us measure their activity 
and sleep level for one month after hospital discharge. This device is worn continuously (except 
when charging the battery) and collects information about vital signs (like heart rate), movement 
level, and sleep times that we use to measure how well and how long wearers are sleeping. We 
will program the device with a study number and set up an account with Fitbit that would collect 
information for the study. The Fitbit application on a mobile device or tablet will sync to the Fitbit 
device. For study purposes, we will also use a platform called Fitabase to allow us to collect 
your Fitbit data remotely by linking your Fitbit ap profile with Fitabase. OHSU does not own or 
manage Fitbit or its parent company Google, the Fitbit application, or Fitabase. When your 
information is released to these companies it may no longer be protected under federal or 
Oregon law. There is also a risk that this information could be used to identify you as a study 
participant. Using Fitbit and Fitabase requires that you agree to Fitbit and Small Steps Labs, 
LLC’s policies about how they can use and share your information and what other information 
they can collect about you while you use their product. We do not control these policies, which 
can change at any time. You should read those policies before using Fitbit. 
 
We will ask you to: 
•    Download the Fitbit app to your smartphone or tablet that can be used to sync with the 
Fitbit device weekly in order for us to collect your data remotely. You will use an email 
address of your choice to set up an account in the Fitbit app. Our study team will help 
you set up the account, but will not have access to your account. 
•    We will use a platform called Fitabase to collect and store your Fitbit data for the study 
period. Fitabase is owned and administered by Small Steps Labs LLC. In order to use 
this platform, we will share the mobile phone number you provided for the study with the 
Fitbit ap and with Fitabase to link to your account. You will be asked to accept the 
prompt from Fitabase to link your Fitbit account for the study period of 30days.  
•    Through this platform, we will also send weekly text messages to the mobile phone 
number you provided reminding you to sync your device and to communicate about the 
study. Text messages travel over unencrypted networks that OHSU does not own or 
control. You do not have to receive text messages to be in the study. You can opt out of 
receiving text messages at any time during the study by calling the study team at (503) 
494-5522 or sending an email to willicyd@ohsu.edu. 


 
 
Template Version 12/13/2018 
 
Page 3 of 8 
•    The Fitabase platform uses Twilio to send text messages and shares your mobile phone 
number with Twilio, Inc.  
•    No other identifying information will be stored on the Fitbit app or Fitabase platform, and 
your mobile phone number would not be shared or used for any other purposes.  
•    The study team highly recommends that you lock your phone. If your phone is not 
secure and you lose it – or it is stolen – the data on your mobile phone or device could 
be used by other individuals not authorized to view your data.  
•    Once our study team has collected data for the wearer for one month, you can keep the 
Fitbit device and we will transfer account ownership to your email address you provided. 
At that time, our study team would no longer have access to your data and only you 
would have access to the account settings. 
 
In the future, your protected health information will not be given to researchers or the funder for 
other research studies. 
 
WILL I RECEIVE RESULTS FROM THE PROCEDURES OF THIS STUDY? 
The results of this research will not be made available to you because the research is still in an 
early phase and the reliability of the results is unknown. 
 
WHAT RISKS CAN I EXPECT FROM TAKING PART IN THIS STUDY?:  
There is a risk of side effects from taking melatonin. The rate of side effects in children related 
to melatonin overall is unknown. Studies using placebo medications also report similar side 
effects. Recent studies in children taking melatonin report the following side effects:   
 
The most common side effects reported are:  
• 
Stomach upset (nausea and or vomiting, diarrhea) 
• 
Drowsiness or fatigue 
• 
Headache 
• 
Behavioral change or dysregulation 
 
Other side effects reported less commonly are:  
• 
Vivid dreams or nightmares  
• 
Waking up at night 
• 
Itchy skin, rash 
• 
Appetite changes  
• 
insomnia 
• 
Bodily pain or aches 
• 
Chest pain 
• 
Enuresis or bedwetting 
• 
Dizziness 
• 
Tinnitus or ringing in the ears 
• 
Feeling cold 
• 
Allergic reactions (rash, difficulty breathing, swelling) 
 
Melatonin may interact with other medications or supplements you are taking.  Tell the 
investigator about all other medications and supplements you are currently taking.   
 
You may have some side effects we do not expect because we are still learning about taking 
melatonin for extended periods of time.  
 
There is a small risk of discomfort from wearing the Fitbit activity watch. This could include rash, 
pain, and itchy skin. You can remove the Fitbit if you experience discomfort. You can still 
participate in other parts of the study if you choose to remove the Fitbit. To use your Fitbit data 


 
 
Template Version 12/13/2018 
 
Page 4 of 8 
for the study, it must be worn for the majority of the days in the study period, at least 5 of 7 days 
per week over the 30day study period. 
 
WHAT ARE MY CHOICES IF I DECIDE NOT TO TAKE PART IN THIS STUDY?  
You may choose not to be in this study. Standard care for TBI includes following up with clinical 
care teams to treat any symptoms from the injury such as sleep disturbances. Your participation 
in this study will not affect your access to these medical services. 
 
The risks and benefits of the alternatives should be discussed with the study investigator or your 
or your child’s usual provider. Melatonin is an over the counter supplement. You do not need to 
participate in the research study to receive the same treatment for sleep disturbances, if this is 
recommended by your medical provider.  
 
WHO WILL SEE MY PERSONAL INFORMATION? 
We will take steps to keep your personal information confidential, but we cannot guarantee total 
privacy. Although we have made efforts to protect your identity, there is a small risk of loss of 
confidentiality. We have taken steps to minimize this risk including programing Fitbit devices 
with coded study ID numbers and emails. All study related documents will also be coded with 
study ID numbers. Your mobile phone number will be shared with the Fitabase for the purposes 
of this study only. This platform is protected by an encrypted firewall. The remainder of your 
study data will be stored at OHSU and protected by an encrypted firewall. Only the Principal 
Investigator and study team at OHSU will have access to your other identifiable information that 
will be protected by the OHSU firewall. 
 
We will create and collect health information about you as described in the WHY IS THIS 
STUDY BEING DONE? and the WHAT EXAMS, TESTS AND PROCEDURES ARE INVOLVED 
IN THIS STUDY? sections of this form. Health information is private and is protected under 
federal law and Oregon law. By agreeing to be in this study, you are giving permission (also 
called authorization) for us to use and disclose your health information as described in this form. 
 
The investigators, study staff, and others at OHSU may use the information we collect and 
create about you in order to conduct and oversee this research study. We may release this 
information to others outside of OHSU who are involved in conducting or overseeing research, 
including  
 
• 
The funder of this study, The National Heart, Lung, and Blood Institute (NHLBI), and the 
funder’s representatives  
• 
The Food and Drug Administration 
• 
The Office for Human Research Protections, a federal agency that oversees research 
involving humans 
• 
Google LLC, who provides the Fitbit system and/or another vendor who provides similar 
devices/services in support of this study 
• 
Small Steps Labs LLC who provides the Fitabase software 
 
Those listed above may also be permitted to review and copy your records, including your 
medical records. 
 
We will not release information about you to others not listed above, unless required or 
permitted by law.  We will not use your name or your identity for publication or publicity 
purposes, unless we have your special permission. 
 
Under Oregon law, suspected child or elder abuse must be reported to appropriate authorities. 
When we send specimens or information outside of OHSU, they may no longer be protected 
under federal or Oregon law. In this case, your specimens or information could be used and re-
released without your permission. 


 
 
Template Version 12/13/2018 
 
Page 5 of 8 
 
We may continue to use and disclose your information as described above indefinitely.  
 
WILL ANY OF MY INFORMATION OR SAMPLES FROM THIS STUDY BE USED FOR ANY 
COMMERCIAL PROFIT 
Information about you or obtained from you in this research may be used for commercial 
purposes, such as making a discovery that could, in the future, be patented or licensed to a 
company, which could result in a possible financial benefit to that company, OHSU, and its 
researchers. There are no plans to pay you if this happens. You will not have any property rights 
or ownership or financial interest in or arising from products or data that may result from your 
participation in this study. Further, you will have no responsibility or liability for any use that may 
be made of your samples or information. 
 
WHAT ARE THE COSTS OF TAKING PART IN THIS STUDY?  
There will be no cost to you or your insurance company to participate in this study.  
 
You will be paid 25$ for completing the baseline visit and $50 for completing 1 month follow up 
visit (total $75 for the study). You may receive payment via a debit card. There may be fees (for 
example, if the card is inactive for more than six months), which will be deducted from the 
balance on your card. Details on how to use the card and any fees are included in the separate 
card member agreement and FAQ sheet. We may request your social security number in order 
to process any payments for participation. We will also transfer Fitbit account settings to your 
preferred email address at the end of the study, and you can keep the device. 
 
WHAT HAPPENS IF I AM INJURED BECAUSE I TOOK PART IN THIS STUDY?:  
If you believe you have been injured or harmed as a result of participating in this research and 
require treatment, contact Cydni Williams (503) 494-5522.  
 
If you are injured or harmed by the study drug or study procedures, you will be treated. OHSU 
and the NHLBI do not offer any financial compensation or payment for the cost of treatment if 
you are injured or harmed as a result of participating in this research. Therefore, any medical 
treatment you need may be billed to you or your insurance. However, you are not prevented 
from seeking to collect compensation for injury related to negligence on the part of those 
involved in the research. Oregon law (Oregon Tort Claims Act (ORS 30.260 through 30.300)) 
may limit the dollar amount that you may recover from OHSU or its caregivers and researchers 
for a claim relating to care or research at OHSU, and the time you have to bring a claim. 
If you have questions on this subject, please call the OHSU Research Integrity Office at (503) 
494-7887. 
 
This federally funded study also does not have the ability to provide compensation for research-
related injury. If you are injured or become ill from taking part in this study, it is important to tell 
your study doctor. Emergency treatment may be available but you or your insurance company 
will be charged for this treatment. 
 
WHERE CAN I GET MORE INFORMATION? 
If you have any questions, concerns, or complaints regarding this study now or in the future, 
contact Cydni Williams (503) 494-5522.      
 
This research has been approved and is overseen by an Institutional Review Board (“IRB”), a 
committee that protects the rights and welfare of research participants. You may talk to the IRB 
at (503) 494-7887 or irb@ohsu.edu if: 
• 
Your questions, concerns, or complaints are not being answered by the research 
team. 
• 
You want to talk to someone besides the research team. 
• 
You have questions about your rights as a research participant. 


 
 
Template Version 12/13/2018 
 
Page 6 of 8 
• 
You want to get more information or provide input about this research. 
 
You may also submit a report to the OHSU Integrity Hotline online at 
https://secure.ethicspoint.com/domain/media/en/gui/18915/index.html or by calling toll-free (877) 
733-8313 (anonymous and available 24 hours a day, 7 days a week).   
 
WHAT ARE MY RESPONSIBILITIES IN THIS STUDY? 
We will ask you to complete surveys, and to take the study drug before bed. We will ask you to 
wear a Fitbit device to track their sleep.  
 
DO I HAVE TO TAKE PART IN THIS STUDY? 
Your participation in this study is voluntary. You do not have to join this or any research study.  
You do not have to allow the use and disclosure of your health information in the study, but if 
you do not, you cannot be in the study.  
 
Your health care provider may be one of the investigators of this research study and, as an 
investigator, is interested in both your clinical welfare and in the conduct of this study.  Before 
entering this study or at any time during the research, you may ask for a second opinion about 
your care from another doctor who is in no way involved in this project. You do not have to be in 
any research study offered by your physician.   
 
IF I DECIDE TO TAKE PART IN THIS STUDY, CAN I STOP LATER? 
If you do join the study and later change your mind, you have the right to quit at any time. This 
includes the right to withdraw your authorization to use and disclose your health information. If 
you choose not to join this study, or if you withdraw early from any or all parts of the study, there 
will be no penalty or loss of benefits to which you are otherwise entitled, including being able to 
receive health care services or insurance coverage for services. Talk to the investigator if you 
want to withdraw from the study.  
 
If you no longer want your health information to be used and disclosed as described in this form, 
you must send a written request or email stating that you are revoking your authorization to: 
 
Cydni Williams M.D., M.C.R 
707 SW Gaines St 
CDRC-P 
Portland, OR 97239 
willicyd@ohsu.edu 
 
Your request will be effective as of the date we receive it. However, health information collected 
before your request is received may continue to be used and disclosed to the extent that we 
have already acted based on your authorization.   
 
If you want to stop participating in the study we may ask you to complete final surveys on your 
child’s sleep and health.  
 
If in the future you decide you no longer want to participate in this research, we will remove your 
name and any other identifiers from your information, but the material will not be destroyed and 
we will continue to use it for research. 
You may be removed from the study if the investigator or funder stops the study, you become 
pregnant, you develop serious side effects, you do not follow study instructions.  
 
We will give you any new information during the course of this research study that might change 
the way you feel about being in the study. 
 


 
 
Template Version 12/13/2018 
 
Page 7 of 8 
A description of this clinical trial will be available on http://www.ClinicalTrials.gov, as required by 
U.S. law. This web site will not include information that can identify you. At most, the web site 
will include a summary of the results. You can search this web site at any time. 
 


 
 
Template Version 12/13/2018 
 
Page 8 of 8 
You have to option to receive text messages for this study. Please initial by your choice: 
 
__________ Yes, I consent to receive text messages and understand the OHSU cannot 
guarantee they will be confidential. 
 
___________No, I do not want to receive text messages  
 
 
SIGNATURES: 
Your signature below indicates that you have read this entire form and that you agree to be in 
this study.   
 
We will give you a copy of this signed form. 
 
 
 
 
 
 
Child Printed Name 
 
Child Signature (only if 15-17 years old)  
 
Date 
Parent/Guardian/Adult Printed Name 
 
Parent/Guardian/Adult Signature 
 
Date 
Person Obtaining Consent Printed Name 
 
Person Obtaining Consent Signature 
 
Date 
 
 
 
USE OF AN INTERPRETER 
Complete if the participant is not fluent in English and an interpreter was used to obtain 
consent.  Participants who do not read or understand English must not sign this full 
consent form, but instead sign the short form translated into their native language.  This 
consent form should be signed by the investigator and interpreter only.  If the 
interpreter is affiliated with the study team, the signature of an impartial witness is also 
required. 
Print name of interpreter: ______________________________________ 
 
Signature of interpreter: ___________________________________  Date: _________ 
An oral translation of this document was administered to the participant  in _____________ 
(state language) by an individual proficient in English and ____________ (state language).  
If applicable: 
Print name of impartial witness: __________________________________ 
 
Signature of impartial witness: ________________________________Date: _________ 
See the attached short form for documentation.