Theoretical Foundations: Developing a System of Services for Students with Brain Injury
Katherine A. Kimes, EdD, CBIS, and Carol A. Kochhar-Bryant, EdD
It is estimated that 1.4 million people in the United States (U.S.) sustain a brain injury every year , with 5.3 million Americans living with the effects of brain injury . Systems of services for this population are, however, simply unavailable, especially for children.
Children with brain injury have complex needs especially in medical recovery and reintegration into education, family and the community. In order to bridge this gap, it is important that stakeholders develop a community of practice that brings together research, practice, and policy in order to discuss and understand the implications of brain injury on children’s physical, cognitive, and psychosocial state to ultimately improve outcomes . A system of services requires that all organizations/service sectors involved in the provision of services to the individual work cooperatively and in a coordinated manner that promotes the highest possible levels of academic, social and career-vocational functioning for each individual . For each child with a brain injury, recovery depends upon the interaction between two domains: 1) a child’s characteristics and 2) his/her learning environment. The learning environment is enriched when services needed to promote recovery are available, timely and well-coordinated. This paper examines a theoretical framework for the creation of a system of services that is responsive to the individual’s personal characteristics, unique recovery of function trajectory and the learning environment. We explore the interrelationships among the following theoretical frameworks: (a) Bronfenbrenner’s Ecological Systems Theory [6, 7]; (b) Environmental Enrichment Theory; and (c) Recovery-of-Function Phenomenon. A coordinated system of services must be grounded in a coherent theory so that professionals can provide services and supports to improve student outcomes and to allow students with brain injury to achieve their greatest full potential.
Keywords: Bronfenbrenner’s Ecological Systems Theory, Environmental Enrichment Theory, Recovery-of-Function Phenomenon, effective service coordination
Brain Injury and the Unique Needs of the Individual
An acquired brain injury (ABI) implies that an individual has “experienced normal growth and development from conception through birth, until sustaining an insult to the brain which resulted in impairment of brain function” . There are two types of ABI, a traumatic brain injury (TBI) and a nontraumatic brain injury (NTBI). A TBI is an acquired injury to the brain, caused by an external physical force that can result in total or partial functional disability, a psychosocial impairment, or both. An NTBI results from internal body occurrences. Although both types of injury can result in damage to the brain, it is important to remember that because the mechanisms of injury are different, the terms ABI and TBI cannot always be used interchangeably. For the purpose of this article, “brain injury” is used as an umbrella term that refers to both ABI and TBI.
As reported by the Centers for Disease Control (CDC) in 2006, 50,000 people die each year from injuries to their brain, while 235,000 are hospitalized and 1.1 million are treated and released from emergency departments . Those at highest risk of sustaining an injury are children from birth to 4 followed by adolescents 15 to 19 and from 1995-2001, approximately, 475,000 brain injuries occurred among children, birth to 14 years of age . This makes brain injury the leading cause of death and disability in children and adolescents in the United States (U.S). Arriving at exact figures, however, is difficult . The true prevalence rate is under-estimated because “the extent of emergency department and non-emergency department diagnosis and treatment of brain injury is unknown” . Data such as that reported by the CDC on the incidence rate of brain injury suggests a much greater occurrence than those injuries actually reported “based on deaths and hospital admissions” .
Consistent underreporting of brain injury among the general population corresponds to the under identification of brain injury within the population of primary and secondary school–aged children, those at highest risk of sustaining such an injury. As reported by the Center for Disease Control (CDC), most children sustain brain injuries as a result of falls . Children also sustain injuries at a high rate due to motor vehicle accident, while infants and toddlers typically sustain injuries due to abuse, i.e., shaken baby syndrome, or neglect [35, 57, 58, 54].
The Complex Educational and Social-Emotional Needs of School-Aged Children with Brain Injury
The CDC identifies brain injury as the leading cause of death and disability among school-age children . Research evidence indicates, however, that teachers and professionals do not understand the repercussions of a brain injury [17, 56, 63], or the individualized services and educational needs that are typically required after a student sustains such an injury [17, 56, 63]. Currently, little is known about how school systems are meeting the needs of those in this population. General education and special education teachers, as well as related service personnel, need, to understand, however, how to best educate, provide appropriate supports, and services, to this growing population of students .
In addition, many school districts face very real problems in meeting the federal requirement [23. 24. 44] to coordinate services for students with brain injury and currently do not provide these children with appropriate services [56, 36, 63]. It is important, therefore, to build a system of services in the U. S. for students with brain injury .
It is also important for stakeholders to understand that the repercussions of brain injury are not limited to motor deficits, since impairments that result from the injury depend on the area of brain damage. Impairments can also include cognitive impairments such as deficits in language comprehension, memory, concept formation, attention, reasoning, organizing, abstract thinking, judgment, problem solving, sensory and perceptual motor abilities, psychosocial behavior, physical functions, information processing, and speech [38, 62, 3, 9].
The less obvious, but more predominant, secondary effect of brain injury is related to psychosocial (behavioral and emotional), problems. These psychosocial effects “[refer] globally to the social, emotional, behavioral and psychological effects of…brain injury” . Behavioral impairments typically occur to some degree with almost all brain injuries and get worse, rather than better, over time without effective intervention techniques [9, 28, 54, 63]. Every brain injury is different and the resulting impairments are highly idiosyncratic, as are the rates of recovery. Ultimately, recovery depends upon the interaction between two domains, a child’s characteristics and his/her learning environment.
Building a Theoretical Framework for a System of Services
Introduction and Interrelationship of Concepts
There is a logical and hierarchical relationship among the assumptions of the Bronfenbrenner ecological systems theory [6, 7], enriched environment, system coordination, and recovery of function. These theories are discussed in relation to how a student’s cognitive recovery after brain injury is contingent on the proceeding theoretical construct (Figure 1). This section discusses the ecological systems theory, service coordination, and the recovery-of- function phenomenon and how these three theories are interrelated. Environmental enrichment, an important component of the ecological systems theory, helps to promote brain plasticity because it stimulates neurons to create new neural connections. Environmental enrichment is also an important component of service coordination because service coordination helps to create new neural connection by enriching the school environment .
Figure 1: The Conceptual Framework  From Service Coordination to Recovery-of-Function Phenomenon: A Paradigmatic Case Study of One School District’s Efforts to Improve Outcomes for Students with Brain Injury .
Bronfenbrenner’s ecological theory  derived from a general systems theory, views a child’s development within the context of the system of relationships that forms their environment. The theory represents a developmental perspective and is rooted in the belief that we are active participants in self-development and the environment. Bronfenbrenner’s theory defines complex ‘layers’ of environment, each having an effect on a child’s development. He defined a whole-system, or ecological perspective, and theorized that in order to create a change in a system, we have to examine all the parts of that system -- personnel, relationships, roles, resources, leadership, organization, and others -- and how they are related to each other in context . Bronfenbrenner  later refers to a social context system that involves interaction among people who influence the student at multiple levels of a student’s social organization – family, peers, school, and wider community. An application of this model is the concept of interdisciplinary teaming . The collaborative team model is compatible with social system context theory, since the focus is on the individual, at the center of the system. The ecological system theory  is especially relevant to the brain injury population. Because every brain injury is different, the repercussions of injury are different for every individual. This is why it is important to ultimately enrich the Microsystem level in Bronfenbrenner’s  systems theory in order to promote recovery of brain function.
Environmental Enrichment Theory
Environmental enrichment can be instrumental in promoting brain plasticity and is also an important component of system coordination. Examples of environmental enrichment include service coordination of such related services as occupational therapy, physical therapy, counseling, and speech and language therapy. In addition, environmental enrichment can refer to particular types of academic support and services offered through education programs in the classroom such as individual tutoring, hands-on experience, or group discussion. Environmental enrichment stimulates the neurons in the brain and helps create new neurons and form new neural connections. It is the systems coordination within a student’s Microsystem environment that helps to enrich the student’s in-school environment. Bronfenbrenner’s ecological systems theory model [6, 7] corresponds to the neuroplasticity, or recovery-of-function phenomenon and system coordination, because an enriched environment helps and enhances students’ “learning and development” . The changes produced by system coordination depend upon the individual characteristics of the student and the particular environment in which they live and learn, as well as the interaction between these two domains.
Recovery after a brain injury is typically enhanced, therefore, with the exposure to enriched environments and environmental influences [47, 49]. Recovery is ultimately a relearning experience because many previously attained cognitive, behavioral, physical, and social skills need to be relearned. According to the National Institutes of Health (NIH), “many of the mechanisms that drive initial neuronal development reappear during regeneration and recovery,” . These mechanisms that stimulate new neuronal connection in the brain are influenced by exposure to an enriched environment . Environmental feedback and stimulation are two critical components in recovery of brain function  because the more complex a task, the greater the rewards because environmental enrichment promotes neural development [25, 49]. Here again, Bronfenbrenner’s ecological systems theory model can be emphasized to reiterate the importance of how an enriched environment, through service coordination, can ultimately affect a student’s developmental and brain recovery processes.
Recovery of function was addressed by Margret Kennard, a pioneer of the 1930s and early 1940s, who experimented with brain lesions in primates. She introduced two important terms, recovery of motor function and functional reorganization of dendrites, processes that extend from neurons and receive information, or brain signals . She brought to light the capacity of the central nervous system (CNS) to functionally reorganize and the fact that “reorganization takes place within the remaining portions of the [brain]” . She concluded that reorganization is a slow process. Dr. Kennard also discovered the growth of dendrites, and the way they proliferate and reorganize to form new connections during recovery . Kennard’s case studies marked a new era in helping to further understand the mechanisms of the brain  and brought to the forefront both the utilization and the manipulation of the brain’s neuroplastic capabilities, with the phenomenon of the reorganization of neurons to include recovery of function in order to help optimize a person’s quality of life after brain injury. Kennard was a major influence on the thinking surrounding recovery of function, helping to launch the modern era of research in this area .
There is gathering evidence, through the research related to recovery of function, that neuroplasticity is possible [1, 2, 16, 19, 39]. Unfortunately, the potential for recovery is not fully understood, especially in relationship to how the brain’s components work together in order to achieve recovery of function.
It was with the discovery of neurotrophic factors (NTFs) that scientists realized that brain cells could redevelop. Brain regeneration is made possible through NTFs which are specific type of nerve growth factors that occur as proteins in the brain and promote the growth and survival of neurons during the development of a child, for the maintenance of adult nerve cells, and after trauma . NTFs are a key component in developing and keeping neurons alive and in promoting plasticity, and are vital in helping to support healthy adult neurons maintain and regenerate their processes [41, 59, 60, 65].
NTFs fit into neuron receptors much like a key fits into a lock, unlocking future potential. A neuron’s dendrite conducts impulses to the cell body of the neuron in the form of NTFs . For example, dendrites 1) receive impulses across the synapse, or space, between the junctions of two neurons; 2) carry the impulse away from the cell body to the axonal transport of the neighboring, or target, neuron; where 3) they reach the neuron’s nucleus.
Research has shown that NTFs are: (a) present in early development of the nervous system and responsible for the initial growth and development of neurons in the peripheral and central nervous systems; (b) released by target tissue of growing neurons and, depending on whether or not the neuron reaches its target, develop (those that don’t reach the target die); and (c) capable of making damaged neurons grow their processes in a test tube and in animal models [41, 52, 60]. These three findings represent exciting possibilities for reversing devastating degenerative neurological disorders like brain injury. The use of NTFs, that are nerve growth factors, holds promise as agents for promoting recovery after brain injury [32, 59].
Over the years, researchers have defined the term recovery of function in different ways. A healthy brain maintains a certain level of plasticity and functional reorganization throughout life. In order to develop interventions to overcome the sequelae of brain injury, it is extremely important to understand the underlying factors of brain plasticity  because “recovery of function tends to be equated with plasticity” .
The present-day definition of recovery of function following brain injury is described as enhancing the potential for functional recovery, involving two alternatives: (1) neuronal sparing, or preventing nerve cells from dying [1, 16, 19] and (2) neuronal reorganization, or controlling the growth of nerve cells that survive the injury [1, 39] In regard to brain injury, recovery is based on reorganization of neurons within the damaged system(s) of the brain or growth of surviving brain cells [15, 39]. For example, nerve cells can change in form, structure, and function. This is known as the neural reorganization phenomenon. Brain injury causes neurons to die or sever and those neurons that survive the injury reorganize and undergo reactive synaptogenesis to establish new neural connections with neighboring, or target, neurons . This innate phenomenon has enormous implications for the brain injury community. Without further research on the possible implications of neural reorganization, however, the potential of these repercussions is still unknown, because it has not been determined whether, or not, these new synaptic connections contribute to the recovery of function, to additional brain injury impairments, or are benign. The scientific mechanisms of the recovery-of-function phenomenon in relationship to how service coordination can promote a student’s cognitive recovery after brain injury are an unexplored area of research .
RESULTSAs previously discussed, there is gathering scientific evidence that neural reorganization does occur following brain injury. Unfortunately, recovery of function still depends upon a number of unknown factors. Additional research is needed, therefore, to identify the brain chemicals (e.g., nerve growth factors) that influence the consequent survival and growth of neural cells after injury.
Rehabilitation and therapeutic exercise (those activities that alter a student’s “macro-environmental experiences” and help to stimulate and regenerate new neural pathways)  are of vital importance when used in conjunction with enriched environments. For example, special education is systematic support that a student receives in the form of coordinated, related and academic services in his/her classroom environment. These coordinated services can be provided in the form of the related services a student receives such as occupational therapy, physical therapy, counseling, and speech-language therapy, but also can refer to particular types of academic supports and services offered through education programs in the classroom environment in the form of individual tutoring, hands-on experience, or group discussion. Environmental feedback and stimulation are critical components, therefore, in recovery of brain function  because environmental enrichment helps promote recovery of brain function after injury .
Once a student is discharged from a rehabilitation facility, recovery does not have to end. Environmental enrichment helps to promote brain plasticity and is also the foundation that helps to provide effective service coordination for students with brain injury . A student’s environment can be enriched by way of the services and supports provided through individualization of coordinated services provided for in the student’s Individual Education Plan (IEP). A student can achieve cognitive and functional brain recovery by enriching the environment and stimulating the brain to form new neurons and new neural connections. It is, therefore, very important for educators to have a working knowledge of the underlying principle of neuroplasticity . “Academic and cognitive function impairments make school reentry and long-term educational success a great challenge” . The primary reason those stakeholders’ need to understand the recovery-of-function phenomenon is to create the fairest and most appropriate, developmental and enriching educational environment for the student with brain injury . In order to develop interventions that utilize brain plasticity to overcome the impairments caused by brain injury, it is important to understand the underlying factors of brain plasticity. Educators can, thereby, best utilize their resources and support services to influence and triumph over the developmental barriers of brain injury . It is important, therefore, to understand the status of current and emerging research about the recovery-of-function phenomena. The true value of examining a service system is the role in accelerating recovery.
The scientific proof of plasticity remains. The brain is not a static organ. Even as a person grows older, the brain maintains some level of its plasticity. The organ is clearly dynamic. As quoted by Parent, “You don’t have to perfectly rebuild the brain to improve significantly [a student’s] quality of life [i]f we could learn how to repair even half the damage, it may be enough” . Parent’s sentiment reiterates the importance of the neuroplastic principle: if any level of recovery of function is attainable and can improve a student’s life for the better, recovery of function is a worthwhile pursuit. Neuroplasticity is a viable option yet to be fully addressed, explored, and embraced by academia and the brain injury community .
Elements for a Coordinated Service System
An individual’s environment can be enriched by coordination of services and supports in association with the academic program. Expectations for collaborative practices are embedded in the Individuals With Disabilities Education Improvement Act of 2004, the No Child Left Behind (NCLB) Act of 2001 , the TBI Act , as well as a variety of additional laws aimed at protecting the civil rights of individuals with disabilities. IDEA  and NCLB  define the specific educational services and supports that must be provided to eligible students, collaboration and coordination refer to how the process works to ensure that quality services are provided to meet the educational needs of each student. Learning from the mental health field, schools are increasingly recognizing that the educational performance of all children, particularly those who are placed at-risk, will not improve unless efforts are made to remove the barriers to learning created by problems that begin outside the classroom walls. Linking students and schools to integrated health and human services is one strategy. Collaboration across agency lines and among public and private providers is one of the most significant – yet challenging -- developments in human services in recent years. A coordinated interagency service system can be defined as follows: A coordinated interagency service system means a systematic, comprehensive, and coordinated system of education and support services for individuals with disabilities, which is provided in their communities in the most integrated settings possible, and in a manner that promotes individual choice and decision-making .
A synthesis of the literature on planning for educational services for students with disabilities  shows that there are several important elements of a coordinated system: a formal long-range interagency plan for a system of education and support services for students in integrated settings, from early intervention through postsecondary transition; special supports for the critical ‘passages,’ or transitions between educational settings, such as from early intervention to preschool, elementary to middle school, and high school to post-secondary education; a statewide system of personnel development to prepare teachers and support personnel to work within a coordinated interagency system of services, which includes pre-service preparation, as well as continuing preparation (in-service) and the training of parents; innovative cooperative partnerships among public schools, related service agencies, area colleges and universities, private service providers, related services agencies, and parents to achieve common goals for the including students with disabilities into mainstream education; and on-going evaluation of system coordination efforts and student outcomes [13, 42].
System coordination is a cornerstone in the educational success of individuals with disabilities and their families.
Evidence of a Link between Student Achievement and Professional Collaboration
Accumulating research is providing evidence of links between student achievement and collaborations that include: professional-to- professional, teacher to student, special educator to general educator, teacher-to-parent, IEP team collaboration, and school to community professional coordination. Effective collaboration and system coordination have been linked to a variety of student, family and professional outcomes. These include the following: gains in student achievement, motivation, attendance, conduct and other measures of commitment to learning; improved collaboration among teachers and related services personnel and systematic assistance and support to beginning teachers; an expanded pool of ideas, methods and materials that benefit all teachers; greater engagement of parents in their children’s education; and improved coordination among schools and school-linked agencies to support student services and school improvement planning [11, 29]. Creating a professional collaborative culture may be the most important factor in successful school improvement initiatives to improve student outcomes [18, 34]. In order for system coordination to occur, collaboration needs to occur at both the system and individual levels . This systematic process is a process of interdependency that includes system collaboration, system coordination, and interpersonal collaboration. The linkage that helps to establish a foundation for effective service coordination is that which connects system coordination with interpersonal collaboration. The “dimensions of system coordination” help to describe the function of effective service coordination and assist in promoting the involvement of teachers, parents, community professionals, and individual students within the educational process .
Need for Interagency Agreements
A ‘systematic’ approach to interagency service coordination means developing strategies to address the complex needs of children and youth in an organized and coordinated manner to support healthy development and academic success. A coordinated interagency service system is defined as a systematic, comprehensive, and coordinated system of support services in primary or secondary education that allows students placed at risk and students with disabilities to receive services in the most integrated settings possible, and in a manner that promotes individual choice and decision making . Interagency service coordination may also be defined as a strategy for mobilizing and organizing all of the appropriate resources to link the student and family with needed services in order to achieve individual goals and successful long term outcomes. Such an approach requires that schools reach out beyond their boundaries and seek a shared responsibility from the many agencies that provide support services for students.
A coordinated interagency service system is both an ideal and a strategy. It is a service structure for responding to individuals with special needs, within their communities, in the most integrated setting possible, and in a manner that promotes individual decision making. The general goal of service coordination is to ensure that students with complex, multiple needs receive the education and support services in a manner that is timely, appropriate, accessible, comprehensive and flexible.
Effective Service Coordination for Students with Disabilities
There are three main components that are essential in helping to ensure effective service coordination of students with disabilities in schools . All three of these components correspond to Bronfenbrenner’s ecological systems theory [6, 7]).
The three components that help to promote effective service coordination are: broad based support and participation of administration, community leaders, youths, and families to include positive attitudes towards the process [45, 48, 53]; collaborative communication between constituents to include interagency communication [67, 8, 13]; and training, support, and technical assistance of service coordinators to help build a comprehensive system of services [20, 66]. All three components work together to help ensure that effective service coordination occurs within the school system and to help strengthen and build an effective system of service coordination for students with brain injury .
Implications for a Coordinated System of Services for Individuals with Brain Injury
There are various implications surrounding the development of a coordinated system of services for students with brain injury to help integrate them into school in order to increase their educational endeavors. It is by focusing on what is necessary in a system of education for students with brain injury that we acknowledge their inalienable rights to a free and appropriate education to further encourage decision-making skills, to increase self-image, and to help broaden their perception to their future possibilities. By increasing the knowledge-base, and the understanding, of how to provide effective service coordination to students with brain injury, a coordinated system of services will ultimately improve outcomes for these students. Understanding only comes with awareness. It is through the acknowledgment of the legality of providing appropriate, quality services to students with brain injury that schools will begin to implement collaborative and effective services within their coordinated system of care.
Recommendations for Developing a System of Services for Students with Brain Injury
There are different levels within the system change process that needs to take place prior to implementation of a brain injury service model within a school district. These levels include both professional roles and the creation of a system of supports, or a brain injury service model within the school system. These levels are discussed followed by various recommendations to help initiate and develop the change process. Professional roles within the school system.
It is important that everyone within the school system, who has direct contact with the student with brain injury, understands the mechanisms of injury and the brain’s capability to recover function. This knowledge is of particular importance when developing a coordinated system of services for students with brain injury. While there are various roles within the system change process, there are three roles that are of particular importance when discussing system change: 1) administrator, 2) teachers, and 3) parents.
The first recommendation is that administrators, teachers, and service providers, within the school system, understand the level of services, supports and system of coordination required for students with brain injury within the system of education . The role of the administrator is important when deciding teacher training, and program development because it is the administrator who determines which program is provided funding. The administration plays an important role in helping to foster change in systemic policy because she/he allocates the funds necessary to support the system change effort and helps to set the professional tone of the change effort. The administrator plays an important role in effective reform because a change in school policy is ultimately contingent upon an attitude change among professionals within the school system.
It is important to elevate teacher standards in relationship to general knowledge surrounding the implications and repercussions of brain injury . It is important to increase the competency level of both pre-service and veteran teachers. Professional development of teachers needs to occur at the pre-service and continuing education levels, while the issues of curriculum, assessment, instruction, and transition services are also addressed to improve system coordination.
School systems can help alleviate parents’ confusion and isolation by developing cooperative relationships . Schools need to provide a supportive environment to help parents become skilled advocates for their child with brain injury. If schools help support parents, parents will be able to support their child and will ultimately promote the child’s self-reliance. It is essential that school systems provide opportunities to help educate parents on the implications of brain injury on their child’s life.
Implementation of a Brain Injury Service Model
In order for a student with brain injury to receive an appropriate and free education it is important for school systems to develop a brain injury service model. As Figure 2 illustrates, there are various components that are essential when developing a system of services because successful coordination is essential if this service model is to flourish within a system.
Within a brain injury model system, service coordination initiates as soon as a child is admitted to the hospital. Once the student is ready to be discharged from the hospital s/he can enter into a learning center to receive support through individual tutoring as deemed appropriate. Once the student is ready to be immersed into a comprehensive school site, the least restrictive school setting is chosen from a list of ABI school placement criteria. In addition to the specialized school placement, a student needs to have access to related services such as occupational therapy, physical therapy, and speech and language therapy, as needed.
An important component of the coordination of services initiative within the model system is that students have access to a brain injury class, which addresses various topics related to their injury throughout the year. For example, this class would be a platform to focus on brain education for students to 1) understand what happened to their brain, 2) hold group discussions, 3) learn memory strategies and problem-solving techniques to compensate for their injuries, 4) learn compassion, 5) provide peer support, and 6) build altruism (Figure 2). Figure 2 demonstrates a system linkage between how environmental enrichment, through service coordination, can help to foster brain recovery in a student and provides students access to an enriched environment that will ultimately help them recover brain function and improve their quality of life .
Figure 2 illustrates that there is a promising relationship between the development of a brain injury services model and how services are coordinated within a school system. The environmental conditions provided in a coordinated service or system correspond to the neuroplasticity, or recovery-of-function phenomenon, and how service coordination works congruently with Bronfenbrenner’s ecological systems theory [6, 7, 27]. The changes produced by service coordination also depend, therefore, upon the individual characteristics of the student, the particular environment in which they live and learn, and the interaction between these two domains. Evidence-based research has emphasized the benefits of collaboration and system coordination because, according to a Bryk and Schneider study (2002), “[i]mprovements in areas such as classroom instruction, curriculum development, teacher preparation, and professional development have little chance of succeeding without improvements in a school's [collaborative] climate” . “Effective collaboration and system coordination have been linked to a variety of student, family and professional outcomes” .
Figure 2. Relationship of Service Coordination to the Recovery-of-Function Phenomena in the SDUSD Service Model . From Service Coordination to Recovery-of-Function Phenomenon: A Paradigmatic Case Study of One School District's Efforts to Improve Outcomes for Students With Brain Injury .
Due to its underreporting and misidentification, brain injury has gone unnoticed by our system of education  even though 5.3 million Americans are living with the effects of a long-term disability and 1.4 million Americans sustain a TBI annually . Those at highest risk are children from birth to 4 followed by adolescents 15 to 19  and directly correspond to the population of primary and secondary school–aged children. As medical technology advances, more and more children, adolescents, and young adults are surviving their injuries. These students are, however, at a disadvantage because stakeholders know little to nothing about providing appropriate services, supports, or teaching to these students once they reenter the school system .
In order to help rectify the problem of school systems not providing appropriate services to these students, it is important for stakeholders within the system of education to understand the dimensions of system/service coordination and how these systems can ultimately help to improve a student’s quality of life . Stakeholders need to understand the interconnecting theories that form the foundation of system/service coordination and how each theory is contingent on the proceeding one, i.e., Bronfenbrenner’s ecological systems theory, environmental enrichment, and the recovery-of-function phenomenon . Stakeholders need to begin a dialogue that addresses how to appropriately meet the educational needs of student with brain injury and to be educated on the theories that underlie effective system/service coordination with the goal of developing cooperative systems of services and supports for these students to help elevate their overall quality of life . A student who has access to a rich variety of specialized support services is more likely to experience cognitive and functional recovery than a student who does not have access .
CITATIONS AND REFERENCE LIST
1. Almli, C., & Finger, S. (1992). Brain injury and recovery of function: Theories and mechanisms of functional reorganization. Journal of Head Trauma Rehabilitation 7(2), 70-77.2. American Psychological Association. (2006). Davidson makes Time list of Top 100 People. Monitor on Psychology, 37(7), 102.
3. Brain Injury Association. (2001). Brain Injury. Alexandria, VA: Brain Injury Association.
4. Bronfenbrenner, U. (1979). The ecology of human development. Cambridge, MA: Harvard University Press.
5. Bronfenbrenner, U. (1986). The ecology of the family as a context for human development: Research perspectives. Developmental Psychology, 22, 723–742.
6. Bronfenbrenner, U. (1992). Ecological systems theory. In R. Vasta (Ed.), Six theories of child development: Revised formulations and current issues.(pp. (87-249). London: Jessica Kingsly, Publisher.
7. Bronfenbrenner, U. (1993). The ecology of cognitive development: Research model and fugitive findings. In R.H. Wozniak and K.W Fischer (Eds.),Development in context: Acting and thinking in specific environments (pp. 3-44). Hillsdale, New Jersey: Lawrence Erlbaum Associates.
8. Bruder, M., Harbin, G., Whitbread, K., Conn-Powers, M., Roberts, R., Dunst, C., Van Buren, M., Mazzarella, C., & Gabbard, G. (2005). Establishing Outcomes for Service Coordination: A Step toward Evidence-Based Practice. Topics in Early Childhood Special Education, 25(3), 177-188.
9. Clark, E. (1996). Children and adolescents with traumatic brain injury: Reintegration challenges in educational settings. Journal of Learning Disabilities, 29(5), 549-560.
10. DePompei, R. & Williams, J. (1995). Working with Families after TBI: a Family-Centered Approach. Topics in Language Disorders, 15(1), p. 68-81.
11. Dettmer, P., Dyck, N., & Thurston, L. P. (2005). Consultation, collaboration, and teamwork for students with special needs (5th ed.) Boston, MA: Allyn Bacon.
12. Dunst, C. & Bruder, M. (2002). Valued outcomes of service coordination, early intervention, and natural environments. University of Connecticut H. Dettmer,P.,Dyck, N., & Thurston, L. P. (2005). Consultation, collaboration, and teamwork for students with special needs (5th ed.) Boston, MA: Allyn & Bacon. Health Center, 68 (3), 361-375, Council for Exceptional Children.
13. Dunst, C., & Bruder, M. (2006). Early Intervention Service Coordination Models and Service Coordinator Practices. Journal of Early Interventions, 28(3), 155-165.
14. Elovic, E. & Zanfonte, R. (2005). Prevention. In J.M. Silver, M.D., T.W. McAlister, M.D.& S.C. Yudofsky, M.D. (Eds.), Textbook of Traumatic Brain Injury (pp. 3-26).Washington, DC: American Psychiatric Publishing, Inc.
15. Finger, S. (1999). Margaret Kennard on sparing and recovery of function: A tribute on the 100th anniversary of her birth. Journal of the History of Neurosciences,
8(3), 269- 285.
16. Gautschi, M. & Clarke, P. G. H. (2007). Neuronal death in the lateral geniculate nucleus of young ferrets following a cortical lesion: Time-course, age dependence and involvement of caspases. Brain Research, 1167, 20-30.
17. Glang, A., Tyler, J., Pearson, S., Todis, B., & Morvant, M. (2004). Improving educational services for students with TBI through statewide consulting teams. 19(3), 219-31.
18. Gordon, D. (2004) Fuel for Reform: The Importance of Trust in Changing Schools. College of Education, University of Illinois at Chicago. Accessed 10/11/04 from http://www.smallschoolsworkshop.org/who1.htm
19. Growdon, J. H., Locascio, J. J., Corkin, S., Gomez-Isla, T., & Hyman, B. T. (1996). Apolipoprotein E genotype does not influence rates of cognitive decline in Alzheimer's disease. Neurology, 47(2), 444-448.
20. Harbin, G., Bruder, M., Adams, C., Mazzarella, C., Whitbread, K, Gabbard, G., & Staff, I. (2004). Early Intervention Service Coordination Policies: National Policy Infrastructure. Topics in Early Childhood Special Education, 24(2), 89-97.
21. Hart, D., Zafft, C., & Zimbrich, K. (2001). Creating access to postsecondary education for all students. The Journal for Vocational Special Needs Education, 23(2), 19–30.
22. Huntington’s Outreach Project for Education, at Stanford. (2005) Brain-derived neurotrophic factor (BDNF). Retrieved October 28, 2008, from http://www.stanford.edu/group/hopes/treatmts/bdnf/b0.html.
23. Individuals with Disabilities Education Act of 1997, P.L. 105-17, USC §613(f) et. seq.
24. Individuals with Disabilities Education Act of 2004, P.L. 108-446, 20 USC §1400 et. seq.
25. Johnson D. A., Ruston, S., & Shaw J. (1996). Virtual reality enriched environments, physical exercise and neuropsychological rehabilitation. Proc1st Euro. Conf. on Disability. Retrieved October 19, 2002 from www.cyber.rdg.ac.uk/ISRG/icdvrat/1996/papers/1996_30.pdf
26. Kennard, M. (1942). Cortical Reorganization of motor function. Archives of Neurology and Psychiatry, 48, 227-240.
27. Kimes, K. (2009). From Service Coordination to Recovery-of-Function Phenomenon: A Paradigmatic Case Study of One School District's Efforts to Improve Outcomes for Students With Brain Injury. (Doctoral Dissertation, The George Washington University, 2009). UMI Dissertations Publishing. (UMI No. 3359749).
28. Kimes, K., Lash, M., & Savage, R. (2008). Students with Brain Injury: Challenges for identification, learning and behavior in the classroom. Lash & Associates
29. Knight, S.L., & Boudah, D. (2003). Using Participatory Research and Development to impact student outcomes. In D. Wiseman & S. Knight (Eds), The impact of school- university collaboration on K-12 student outcomes. Washington DC: American Association of Colleges of Teacher Education.
30. Kochhar-Bryant, C. (2003). Coordinating systems and agencies for successful transition. In G. Greene & C. Kochhar-Bryant, Pathways to Successful Transition for Youth with Disabilities. Columbus OH: Prentice Hall/ Merrill.
31. Kochhar-Bryant, C. (2008). Collaboration and system coordination for students with special needs: From early childhood to the postsecondary years. Upper Saddle River, NJ:Pearson Education.
32. Kondziolka, D., Wechsler, L., Tyler-Kabara, E., & Achim, C. (2002). Role of Cell Therapy for Stroke. Neurosurgical Focus, 13(5), 1-6.
33. Kraus, J. & Chu, L. (2005). Epidemiology. In J.M. Silver, M.D., T.W. McAlister, M.D.& S.C. Yudofsky, M.D. (Eds.), Textbook of Traumatic Brain Injury (pp.3- 26).Washington, DC: American Psychiatric Publishing, Inc.
34. Lambert, L. (2003). Leadership capacity for lasting school improvement. Alexandria, VA: ASCD.
35. Langlois, J. A., Rutland-Brown, W., & Thomas, K. E. (2006). Traumatic brain injury in the United States: emergency department visits, hospitalizations, and deaths. Atlanta: Centers for Disease Control and Prevention, National Center for Injury Prevention and Control.
36. Legislative Members of the Interim Committee on Head Injury. (1999). Report of the intern committee on head injury: An examination and recommendations for improved service delivery. Retrieved October 22, 2007, from http://www.house.state.mo.us/bills99/intcom99/headrpt.htm
37. Max, J.E. (2005). Children and Adolescents. In J.M. Silvkr, T.W. McAllister, & S.C. Yudofsky (Eds.), Textbook of Traumatic Brain Injury (pp.477-494). Arlington, VA: American Psychiatric Publishing.
38. McCullagh, S. & Feinstein, A. (2005). Cognitive Changes. In J.M. Silver, M.D., T.W. McAlister, M.D.& S.C. Yudofsky, M.D. (Eds.), Textbook of Traumatic Brain Injury (pp.3-26).Washington, DC: American Psychiatric Publishing, Inc.
39. Munson, S., Schroth, E, & Ernst, M. (2006). Role of Functional Neuroimaging in Pediatric Brain Injury. PEDIATRICS, 117(4), 1372-1381. 40. Muuss, R.E. (1996). Theories of Adolescence (6th ed.). New York: McGraw-Hill.
41. Naimark, A., Barkai, E., Matar, M., Kaplan, Z., Kozlovsky, N. & Cohen, H. (2007). Upregulation of Neurotrophic Factors Selectively in Frontal Cortex in Response to Olfactory Discrimination Learning. Neural Plasticity, 2007.
42. National Center on Outcomes Research. (2001). Practice guidance for delivery outcomes in service coordination. Towson, MD: NCOR: Author.
43. National Institute of Health. (2002). Pharmacological approaches to enhance neuromodulation in rehabilitation. Retrieved October 20, 2002, from National Institute of Health via GP0 Access: http://grants1.nih.gov/grants/guide/rfa-files/RFA-HD-02-023.html.
44. No Child Left Behind Act of 2001, Public Law 107-220. 20 U.S.C. 6301 et seq. (2002).
45. Pandiani, J., Banks, S., & Schacht, L. ( 2001). Caseload segregation/integration and service delivery outcomes for children and adolescents. Journal of Emotional and Behavioral Disorders, 9(4), 232-247.
46. Perna, R. (2002). Brain injury: Does age really matter? Brain Injury Source, 6(2), 32-34.
47. Peterson, D. (2002). Stem cells in brain plasticity and repair. Current Opinion in Pharmacology, 2(1), 34-42.
48. Provan, K., Nakama, L., Veazie, M., Teufel-Shone N., & Huddleston, C. (2003). Building Community Capacity Around Chronic Disease Services through a Collaborative Interorganizational Network. Health Education & Behavior, 30 (6), 646-662
49. Raine, A., Reynolds, C., Venables, P. H., & Mednick, S. A. (2002). Stimulation Seeking and Intelligence: A Prospective Longitudinal Study. Journal of Personality and Social Psychology, 82(4), 663-674.
50. Reeves, T. M., Prins, M. L., Zhu, J. P., Povlishock, J. T., & Phillips, L. L. (2003). Matrix Metalloproteinase Inhibition Alters Functional and Structural Correlates of Differentiation-Induced Sprouting in the Dentate Gyrus. The Journal of Neuroscience. 23(32), 10189-10182.
51. Rocca, M.A., & Filippi, M. (2006). Functional MRI to study brain plasticity in clinical neurology. Neurological Sciences, 27, 24-26.
52. Russel, D. S., & Duman, R. S. (2003). Neurotrophic factors and intracellular signal transduction pathways. In Davis, Charney, Coyle, & Nemeroff (Eds.) Neuropsychopharmacology: The Fifth Generation of Progress (pp. 207-215). Nashville, TN: American College of Neuropsychopharmacology.
53. Salisbury, C., Crawford, W., Marlowe, D., & Husband, P. (2003). Integrating Education and Human Service Plans: The Interagency Planning and Support Project. Journal of Early Intervention, 26(1), 59-75.
54. Savage, R.C. & Wolcott, G.F. (Eds.) (1994). Educational dimensions of acquired brain injury. Austin, TX: PRO-ED, Inc.
55. Savage, R.C. & Wolcott, G.F (Eds.) (1995). An educator’s manual: What educators need to know about students with brain injury. Washington, D.C.: Brain Injury Association, Inc.
56. Savage, R. C. (1996). National Council of Disabilities. Traumatic Brain Injuries. Retrieved October 8, 2006, from http://www.ncd.gov/newsroom/publications/1996/96school_2.htm
57. Schoenbrodt, L. (2001). Children with Traumatic Brain Injury: A Parent’s Guide. Bethesda, MD: Woodbine House.
58. Sellars, C.W. & Vegetr, C.H. (1996). Pediatric Brain Injury: The Special Case of the Very Young Child. Houston, TX: HDI Publishers.
59. Shmizu, S., Fulp, C., Royo, N., & McIntosh, T. K. (2005). Pharmocotherapy of Prevention. In Silver, McAllister, & Yudofsky (Eds.), Textbook of Traumatic Brain Injury (pp. 699-726). Washington, DC: American Psychiatric Publishing, Inc.
60. Society for Neuroscience. (1994). Neurotrophic Factors. Retrieved October 8, 2007, from http://www.sfn.org/index.cfm?pagename=brainBriefings_neurotrophicFactors
61. TBI Act. 42 USC §280B et seq., (1996).
62. Traumatic Brain Injury Medical Treatment Guidelines. (2005). State of Colorado Department of Labor and Employment. Retrieved March 4, 2008, from http://www.occmedcentral.com/guidelines/coloradostandards/traumaticbraininjury.pdf
63. Traumatic Brain Injury State Grant Program. (2002). The Nebraska state plan for systematic services for individuals with brain injury and their families. Retrieved
October 21, 2007,from http://www.nde.state.ne.us/tbi/stateplan.pdf.
64. University Of Michigan Health System (2002, February 19). Neural Stem Cells Move To Damaged Areas Of Brain After Injury; Adult Mammalian Brain Has Potential To Heal Itself, Says Scientist. Science Daily. Retrieved November 4, 2008, from http://www.sciencedaily.com/releases/2002/02/020219080000.htm
65. World Intellectual Property Organization. (1997).Methods for Treating Photoreceptors Using Glial Cell Line-Derived Neurotrophic Factor (GDNF) Protein Product. Retrieved Nov. 1, 2008, from http://www.wipo.int/pctdb/en/wo.jsp?IA=US1996018806&DISPLAY=DESC
66. Wright, E, Russel, L., Anderson, J., Kooreman, H., & Wright, D. (2006). Impact of Team Structure of Achieving Treatment Goals in a System of Care. Journal of Emotional and Behavioral Disorders, 14(4), 240-250.
67. Zanglis, I., Furlong, M., & Casa, J. (2000). Case Study of a Community Mental Health Collaborative: Impact on Identification of Youth with Emotional or Behavioral Disorders. Behavioral Disorders, 25(4), 359-371.
Carol A. Kochhar-Bryant, EdD
Senior Dean of the Graduate School of Education and Human Development
The George Washington University, Washington, D.C., 20052