Tuesday, February 19, 2013

4th Annual Youth Sports Safety Alliance Summary


The Youth Sports Safety Alliance (YSSA), founded by the National Athletic Trainers’ Association (NATA), hosted its fourth annual summit February 5-6, 2013 in Washington, DC.  YSSA, created in 2010 with the goal of “raising awareness, advancing legislation, and improve medical care for young athletes” according to their website.  The alliance currently includes over 100 members, all with this one goal in mind.  Advocates for Injured Athletes is among the alliance members and Beth Mallon was a speaker at the summit as a parent advocate.  She was among several prominent advocates and researchers who are trying to make sports participation safer for all athletes.

The summit launched the National Action Plan for Sports Safety and introduced the Student-Athlete Bill of Rights.  The primary focus was improving sports safety and achieving appropriate medical care at the secondary level.  The specific focus was on 1) cardiac events, 2) neurological injuries, 3) environmental/exertional injuries, and 4) substance-induced conditions.  Many of the speakers and others in attendance met with and lobbied legislators around these topics.

“Momentum continues to build for comprehensive action to protect student athletes.  Public interest has remained strong; however, much of the focus remains on concussion in high school athletes despite the higher number of student athletes in all grades that suffer other serious or even fatal injuries.”
                                                                        -NATA Press Release

SPEAKER LIST:
James L. Thorton, MA, ATC, CES President National Athletic Trainers' Association
Christopher Nowinski, founder Sports Legacy Institute
Douglas J. Casa, PhD, ATC, University of Connecticut; Korey Stringer Institute
Beth Mallon, Founder Advocates for Injured Athletes and Alliance representative
Charles Gfeller, Esq.
Kevin Guskiewicz, PhD, ATC, University of North Carolina, Chapel Hill:  Matthew Gfeller Sport Related Traumatic Brain Injury Research Center

The plan includes a brief list of general recommendations as well as condition specific recommendations around cardiac events, neurological injuries, environmental/exertional injuries, and substance-induced conditions.  The general recommendations are as follows:

  • Require that all schools have a comprehensive athletic health care administrative program and an athletic health care team to prevent and immediately manage injuries and illnesses.  The team consist of a physician, athletic trainer, school nurse or other health care professional and the athletic director.
  • Require that all schools assure safe practice and safe play facilities appropriate to each sport to reduce accidents and the spread of disease.  Safe facilities are regularly inspected and maintained, routinely cleaned to avoid spread of disease and accessible to treatment and/or transport areas.
  • Require that all schools provide permanent, appropriately equipped areas in which injured athletes may be evaluated and treated by health care professionals, because early assessment and intervention encourages proper healing and decreases the risk of re-injury.  Having a designated area is critical in the management of life- or limb-threatening conditions.
  • Require that all schools have a place for confidential conversations with athletes and parents about medical issues.
  • Require that all schools have a plan for selection, fit, function and proper maintenance of athletic equipment, as well as training for school staff.
  • Require that all schools have injury and illness prevention strategies, including protocols for environmental conditions.  Educated personnel in every sport should understand and utilize professional guidelines for preventing and treating injuries and sports-related illnesses.
  • Require that all schools inform athletes and parents of the potential risks in sports as well as their individual responsibility to avoid and minimize injuries. 
  • Parents should educate themselves in the potential benefits and risks of optional protective equipment.
  • Advocate for the creating of a national fatality registry of secondary school athletes who have died during or as a result of sports-related injuries, such as cardiac arrest, neurologic damage, steroid abuse, etc.
Student Athletes have the right to be coached by individuals who are well trained in sport-specific safety and to be monitored by athletic health care team members.

Student Athletes have the right to equality, regular pre-participation examinations and each athlete has the right to participate under a comprehensive concussion management plan.

Student Athletes have the right to participate in sporting activities on safe, clean playing surfaces, in both indoor and outdoor facilities.

Student Athletes have the right to utilize equipment and uniforms that are safe, fitted appropriately and routinely maintained, and to appropriate personnel trained in proper removal of equipment in the case of injury.

Student Athletes have the right to participate safely in all environmental conditions where play follows approved guidelines and medical policies and procedures, with a hydration plan in place.

Student Athletes have the right to a safe playing environment with venue-specific emergency action plans that are coordinated by the athletic health care team and regularly rehearsed with local emergency personnel.

Student Athletes have the right to privacy of health information and proper referral for medical, psychosocial and nutritional counseling.

Student Athletes have the right to participate in a culture that finds “playing through pain” unacceptable unless there has been a medical assessment.

Student Athletes have the right to immediate, on-site injury assessments with decisions made by qualified sports medicine professionals.

Student Athletes have the right, along with their parents, to the latest information about the benefits and potential risks of participation in a competitive sports including access to statistics on fatalities and catastrophic injuries to youth athletes.

 When my son was injured in 2009, little did I know when rushing to the hospital that just eight months’ post injury, Tommy and I would be speaking in Sacramento, at the Capitol, to reporters and experts on sports injuries.  I know that some of you have had that same experience.  One day we’re parents, the next – parent activists.
                                                                                    -Beth Mallon

The Youth Sports Safety Alliance has come a long way since its inception 2010 and Beth and Tommy and Advocates for Injured Athletes continue to work to improve the safety conditions for young athletes all across the country whether it’s through Athletes Saving Athletes® or speaking as a parent advocate. 

"I am very humbled and proud to be involved with the NATA and the YSSA since the initial summit in 2010 when Tommy and I gave testimonials in Sacramento.  Since that time, it has been very rewarding to see the number of YSSA members grow to over 100.  In addition, we have seen student athlete fatalities drop.  I cannot help but feel when we all work together we have a much larger voice and impact on the mission of protecting student athletes.  I was honored to deliver the YSSA update and look ahead to seeing the benefits of our collective efforts for this coming year."
                                                            -Beth Mallon, following the Summit (2013)

If you’re interested in some of the press from the summit (including a video interview with Beth) check out Advocates for Injured Athletes’ Facebook page.  Additionally, for those of you who would like pdf versions of either the National Action Plan or the Student Athlete Bill of Rights feel free to contact A4IA for copies or click the links above that will take you to copies available on the YSSA website.

Submitted by Heather L. Clemons, MS, MBA, ATC

Wednesday, February 13, 2013

INFECTIOUS MONONUCLEOSIS (MONO) AND SPORTS PARTICIPATION


Infectious Mononucleosis (IM), better known as “mono” is a medical condition that affects thousands of athletes annually.  This condition can present itself in a variety of ways and will often resolve on its own without complications, but there is the rare risk of splenic rupture.  Splenic rupture if not addressed immediately via surgical removal of the spleen can be fatal.  Given this possibility, it is important for sports medicine professionals and parents to take reasonable precautions based on available evidence when returning athletes to activity following IM.

The American Medical Society for Sports Medicine has developed and published a consensus statement regarding infectious mononucleosis and athletic participation.  The citation for the positions statement is as follows:


According to this statement, currently there is no evidence to suggest that IM is more prevalent in the athletic population than in the non-athletic population.  The infection is most common in adolescents and young adults with an average infection rate of approximately 15% of the previously unexposed individuals.

Some of the major highlights from the article:

HISTORY AND PRESENTATION:
  •           The condition is typically spread through oral secretions often spread by sneezing, sharing drinking glasses or food.
  •          Symptoms can last anywhere from 4 – 6 weeks, some cases have been known to last as long as 3 months
  •          Most common symptoms include fever, lymphadenopathy (swollen glands) and pharyngitis (sore throat).  Other symptoms can include headache, rash and spleenomegaly (enlarged spleen).
  •           Keys to referral for further evaluation would be prolonged fever and lymphadnopathy


COMPLICATIONS:
  •            Severe complications only occur in approximately 5% of all IM cases
  •           The most familiar complication is splenic rupture, but there are others
  •           Splenic rupture is estimated to occur in 0.1% - 0.2% of all cases and can occur spontaneously, meaning a specific trauma is not required to cause rupture
  •          Typically most ruptures occur within the first 3 weeks of illness, and about half of those were spontaneous


RETURN TO PLAY GUIDELINES:
  •          Exact guidelines for return to play are difficult with IM because there is no ideal laboratory or imaging technique that can confirm the status of the spleen or the resolution of the illness via virus levels
  •          Based on current available evidence regarding the potential for splenic rupture return to non-contact activities can be a gradual progression assuming the athlete no longer has a fever and can tolerate aerobic activities
  •          For return to contact activities, suggestions are much more difficult; minimally the athlete should be held out for at least 3 weeks where the likelihood of rupture is believed to be minimal and other indicators are present to allow for a safe return


Returning athletes to activity following a bout with IM can be highly challenging given the lack of clear return to play guidelines.  Parents should be aware that when returning from activity the risk of splenic rupture is very rare decreases significantly after 3 weeks based on current research, but it is never zero until the illness has completely resolved.  Parents should also be aware that physical exam for an enlarged spleen is highly ineffective.  If examination of the spleen is deemed necessary the standard evaluative technique is ultrasound, but a computed topography (CT) scan is also a possibility depending on the needs and preference of the physician.  Be sure to address any concerns you have with your athlete’s physician as they prepare to return to activity following a bout of IM. 

Whether splenomegaly (enlarged spleen) is of concern or not, the athlete’s return to activity should be gradual, based on their level of fatigue and other symptoms.  A gradual fitness program means progressing not only from shorter to longer periods competing in activities, but also considering the intensity of exercise.  This means, progressing how hard the athlete is working from 50% or so up to 100%.  The program can be progressed over several days to weeks depending on how the athlete responds to training.  The key to remember is that the degree of fatigue the athlete experiences the day after a training session will let you know whether s/he can handle an increase in activity (whether that is time or intensity) or not.

Submitted by Heather L. Clemons, MS, MBA, ATC




Wednesday, January 30, 2013

THE LATEST CONCUSSION RESEARCH

New information on concussions is published on an almost daily basis.  So much information is available sometimes that even I’m overwhelmed when trying to understand where we are with this “crisis” and making progress in its prevention, recognition and management.  The following paragraphs simply highlight what I believe to be some of the most interesting developments and stories regarding concussion in the last month.

THE FENCING RESPONSE
The AFC Championship game brought us another example of the fencing response.  It is minimally a clinical sign of brain trauma, often more specifically a concussion.  Dustin Fink on the Concussion Blog who sites THIS study from Medicine & Science in Sport and Exercise (2009) provides the best definition.  Briefly, it is an unnatural position of the arms following an impact to the head that result from forces applied to the brain stem.  Stevan Ridley clearly demonstrates the fencing response in this video.  While most statements regarding concussion recognition do not list the fencing response as a specific sign of concussion there seems to be a growing number of examples of athletes who demonstrated this response and were ultimately diagnosed with a concussion.  It is important to note that the fencing response can be an important part of the puzzle, but you can still be diagnosed with a concussion without demonstrating the fencing response.

Dave Siebert through the Bleacher Report posted an interesting analysis of the Stevan Ridley hit, click HERE to check it out.


COMPREHENSIVE STUDY ON YOUTH CONCUSSION
Earlier this month the Institute of Medicine (part of the National Academies) announced the launch of a comprehensive study of youth concussions in the United States.  According to information available on their website, the Committee on Sports-Related Concussion in Youth will consider the following topics/questions among others:
  • the acute, subacute and chronic effects of single and repeated concussions
  • risk factors for concussion, post concussive syndrome (PCS) and CTE
  • physical and biological triggers and threshold for injury
  • the effectiveness of protective equipment
The study will include elementary school age children through young adulthood, including those who serve in the military and their dependents.  The study hopes to publish its results along with recommendations to key organizations by the end of 2013.

If you would like to keep pace with the status of this project you can sign up for the project list serve through the IOM’s Committee on Sports-Related Concussion in Youth website.  For inquires you can send emails to YouthSportConcussions@nas.edu.

CONCUSSION RECOVERY TIME
According to a recent study from the University of Oregon, concussion recovery time may be longer than expected for adolescents.  Previous research on the cognitive recovery from concussions has focused on neuropsychological testing.  Lead researcher David Howell attempted to measure attention and executive function using laboratory based measures following concussion.  Executive function is simply the umbrella term for all those cognitive processes that help us problem solve, focus, switch between tasks, and control our inhibitions.  The study followed concussed adolescents for two months and demonstrated additional recovery time may be required for full recovery.  There is also hope that these laboratory tests may be helpful as part of the complement of follow up testing options after a concussion.  The study, published in Medicine and Science in Sport and Exercise, can be found HERE.  For the University Oregon announcement discussing the study results and the researchers, click HERE.

COACHES AND CONCUSSION EDUCATION
Based on current research it appears that the concussion education for coaches is beginning to have a positive effect.  According to a study published in Athletic Training & Sports Health Care (Jan./Feb. 2013) participants correctly identified more concussion-related symptoms and subscribed to fewer concussion misconceptions than did that those previously studied.  While qualified healthcare professionals should always make medical decisions, until athletic trainers (or other qualified healthcare providers) are available in all high schools coaches must continue to be educated on recognizing and referring athletes who suffer from concussions.  Coaches must also understand that following appropriate return to play guidelines is critical.  To read the full article:


Submitted by Heather L. Clemons, MS, MBA, ATC

Wednesday, January 23, 2013

NEW INFORMATION IN UNDERSTANDING HYPERTROPHIC CARDIOMYOPATHY



Hypertrophic cardiomyopathy (HCM) is a thickening of the heart wall (typically the left ventricle).  The cause of HCM is a genetic mutation of the cardiac sarcomere (cardiac muscle cell).  The condition is described as obstructive (70% of cases) and non-obstructive in nature.  The prevalence is 1 case in 500 – 1000 population and is the most common genetic disorder of the heart.  HCM is one of the many (and the most common) cardiac conditions that can lead to sudden cardiac arrest (SCA) in athletes.  Diagnosis of HCM in athletes is particularly challenging because athletes tend to have larger hearts and ultimately a thicker left ventricle wall because of their intense training and conditioning. 



SIGNS AND SYMPTOMS
The most common signs and symptoms for HCM include dysnea (difficulty breathing), angina, dizziness, palpitations, and syncope (fainting).  Unfortunately, many times the conditions is asymptomatic and sudden cardiac death could be the most dramatic and only symptom of HCM.  Sudden death from HCM typically occurs during or following strenuous exercise.

RISK FACTORS
First degree risk factors:
-          Family history of sudden cardiac death (<45 years old)
-          Recurrent syncope (fainting)
-          Left ventricle hypertrophy (LVH)
-          Abnormal blood pressure response during exercise

For more factors, click HERE (see page 4).

DIAGNOSIS AND TREATMENT
If you would like more specific information on the diagnosis and treatment guidelines for HCM, click HERE for the standards published in November 2011 by the American Heart Association (AHA) and the American College of Cardiology Foundation (ACCF).

CURRENT RESEARCH
The most recent information available on the topic of HCM has been provided by researchers at Stanford University.  Researchers are investigating the underlying causes of the genetic mutation of the cardiac sarcomere.  Results of this study showed that calcium dysregulation (calcium elevation) was likely to lead to HCM.  Restoration of calcium homeostasis (balance) prevented hypertrophy (enlargement of heart) and other physiological irregularities.  The authors are hopeful that these finding can lead to improved and novel treatments for the condition.  Current treatment includes adapting physical activities and in severe cases implantation of a pacemaker.  To read the press regarding the study’s publication and its potential implications, click HERE.

For other readings on HCM, check out these links:





Submitted by Heather L. Clemons, MS, MBA, ATC

Wednesday, January 16, 2013

UNDERSTANDING CHRONIC TRAUMATIC ENCEPHALOPATHY (CTE)


Concussions in athletes continue to be a topic that is making news all over the country.  Talk of the long-term effects of concussions will be prominent in the news, especially after the announcement that Junior Seau did have Chronic Traumatic Encephalopathy (CTE).  The term CTE has been around long enough that many people may vaguely recognize the term, but what is it in basic terms?  This entry will provide you links to some of the many articles written about Junior and help explain the basics of CTE.


JUNIOR SEAU AND CTE
According to results released by the National Institute of Health (NIH) Junior Seau did suffer from Chronic Traumatic Encephalopathy.  A review of the many pieces published related to this announcement quote his ex-wife and family as noting changes in his behavior, with wild mood swings, depression and insomnia among them.  These are key signs of CTE.  CTE is typically the long-term result of repeated blows to the head (concussions) which is why it has been particularly prevalent in former NFL players.  Recent research has also noted cases of CTE among military veterans.  As the list of individuals who suffered from CTE grows, the impetus to educate young athletes and their parents about the signs and symptoms of concussions, reporting and managing them grows as well.  Concussions are a traumatic brain injury (TBI) and CTE reminds us that there are long-term consequences for decisions we make as young people and parents.

If you would like to read more about what has been written about a Junior and his CTE diagnosis, check out these select links:


UNDERSTANDING CTE
There is a growing body of information available regarding CTE.  Some of it is easy for the general public to digest while other information is meant for researchers and other professionals who understand the nuance of the brain.  One of the more friendly sources in understanding CTE is the Center for the Study of Traumatic Encephalopathy at Boston University.

It defines CTE as:

”Chronic Traumatic Encephalopathy (CTE) is a progressive degenerative disease of the brain found in athletes (and others) with a history of repetitive brain trauma, including symptomatic concussions as well as asymptomatic subconcussive hits to the head. CTE has been known to affect boxers since the 1920s. However, recent reports have been published of neuropathologically confirmed CTE in retired professional football players and other athletes who have a history of repetitive brain trauma. This trauma triggers progressive degeneration of the brain tissue, including the build-up of an abnormal protein called tau.  These changes in the brain can begin months, years, or even decades after the last brain trauma or end of active athletic involvement.  The brain degeneration is associated with memory loss, confusion, impaired judgment, impulse control problems, aggression, depression, and, eventually, progressive dementia”. 

      Taken from:  What is CTE?

This organization is known, in part, for its brain bank where it encourages athletes who could be at risk for CTE to donate their brains to the CSTE for further evaluation following their deaths in an effort to better understand CTE.  Currently CTE diagnosis is confirmed via the presence of tau proteins that can only be found through a biopsy of the brain following the donor's death.  This also means that much work also needs to be done  to be able to diagnose (and hopefully ultimately treat) those with CTE while they are still living with the condition.  This should give us the motivation we need to minimize the potential for brain trauma, concussive or otherwise in our efforts to decrease the potential for the development of CTE.

The list of athletes, now deceased who have confirmed cases of CTE and those that are likely living with symptoms consistent with CTE continue to grow.  The closest source to a comprehensive list of CTE suffers was recently published by the CSTE (and is linked below).  Some NFL players who are deceased include the following:  Mike Webster, Andre Waters, Lou Creekmur, John Grimsley, Terry Long, Tom McHale, Dave Duerson, and Junior Seau.  NFL players are not the only athletes who have been diagnosed with CTE in the last few years.  Others diagnosed include high school football players, hockey players, boxers, and those who serve in the military.  There are others who are suffering from ALS (Lou Gehrig's Disease), Parkinson's, and Alzheimer's who have the potential to be ultimately diagnosed with CTE, since there seems to be growing evidence of a potential connection between these neurodegenerative conditions in those who suffered repeated blows the the head.

As we learn more and more about CTE I suspect the list of names of those who are suffering from or have died because of complications related to CTE will continue to grow.  While NFL players will likely continue to be one of the biggest groups of sufferers, a number of athletes from other sports will continue to be diagnosed as well.  This is in large part connected to our growing understanding of the condition and the ability (ultimately) to recognize it in more and more individuals who have suffered various TBIs or other subconcussive blows to the head.

If you would like to read some of the key research int his area the CSTE has a list of some of the research they have published available.  Many of the articles are authored in part by Dr. Robert Cantu and Dr. Ann McKee, leaders in understanding CTE and the role of sports-related concussion.  For the original research by the CSTE, click HERE.  I recommend the following titles:

The Spectrum of Disease in Chronic Traumatic Encephalopathy (2012)
The Epidemiology of Sport-Related Concussion (2011)
Proteinpathy and Motor Neuron Disease in Chronic Traumatic Encephalopathy (2010)

For other research, feel free to search PubMed Database (public access) using the term "chronic traumatic encephalopathy in athletes."

In the end, our best defense against CTE is minimizing blows to the head over one's lifetime and preventing the disease in the first place.  This includes reporting, treating and managing concussions appropriately as well as improving equipment to help minimize the risks as much as possible.  Research has shown that those who suffer repeated sub-concussive blows to the head can also be at risk for developing CTE and no equipment is 100% effective at preventing forces to the head reaching the brain, but we should still work to get as close as we can to making CTE 100% preventable.  The warning signs of severe consequences are there, it is time to heed the warning if we have not already.  There are long-term effects to suffering from multiple concussions and repeated sub-concussive blows to the head.  It's time to ask the question, "What am I doing to decrease the injury potential in athletes I know, both in the short-term (concussions) and long-term (CTE)?"

Submitted by Heather L. Clemons, MS, MBA, ATC

Wednesday, January 9, 2013

Understanding Anaphylaxis


Anaphylaxis (pronounced ANA-FALL-AXIS) is a life-threatening, whole body, allergic reaction to a chemical substance (MedlinePlus).  The reaction can be swift and catastrophic if not treated quickly.  Anaphylaxis occurs when exposed to an allergen and the body becomes sensitized to it.  Subsequent exposure results in a systemic immune response, the releasing of histamine, and resulting in a typical physical response.  Signs and symptoms of a typical reaction include hives, difficulty breathing, itching, swelling of lips, face, and/or tongue among others. 

COMMON ALLERGIES
Anaphylaxis can occur in response to any allergen, but is most rare in response to pollen and other inhaled allergens.  Allergies that are more likely to cause anaphylaxis are drug allergies, food allergies, and insect bites/stings. 

According to the CDC approximately 4% - 6% of children under 18 years old suffer from food allergies.  The prevalence of allergies is also on the rise, but the reasons for the increase are unknown.  Eight types of food account for 90% of all food allergy reactions:  cow’s milk, eggs, peanuts, tree nuts (walnuts, pecans, hazelnuts, etc.), fish, shellfish, soybeans, and wheat.  The CDC has paid particular attention to limiting accidental exposure to food allergens for children in school, as this has been of particular concern.

Drug allergies result in the same allergic response from the body as other allergens.  Most often, this reaction results in a mild rash and hives, but a severe anaphylaxis reaction is possible.  According to the NIH penicillin (and other antibiotics) are the most common cause of drug allergies.  Other drug classes that can cause an allergic response are anticonvulsants, insulin (especially animal based), iodinated x-ray contrast dyes, and sulfa drugs.  Severe allergic reactions to medication, overdoses, or other negative responses to medication are referred to “adverse drug events.”  To learn more about adverse drug events in children check out the information provided by the CDC.

When stung by an insect there is typically an immediate reaction of minor redness and itching.  For most people, the reaction ends and over a period of days the bite site begins to heal.  For someone who has an anaphylactic response to an insect bite the pain, redness and swelling will likely be much more severe and the person may report difficulty breathing.  The most common insects that cause an anaphylactic response are bees, wasps, hornets, and spiders.

IMMEDIATE TREATMENT OF ANAPHYLAXIS
If you are in a situation, where you suspect anaphylaxis the most important thing you can do is call 911 and initiate the emergency medical system (EMS).  You should also assess whether or not the individual is having difficulty breathing, if so monitor ABCs (airway, breathing, and circulation) until EMS arrives and be prepared to initiate rescue breathing or CPR as necessary.  It is also important to understand what allergy may be causing the reaction so that you can provide appropriate first aid.  Here is a list of key steps for the immediate care for someone suffering for anaphylaxis:
  • Activate EMS
  • Assess ABCs and initiate rescue breathing and CPR as necessary
  • If having difficulty breathing monitor for worsening symptoms and do not give food or drink
  • If available, instruct victim (or if necessary assist victim) in administering epi-pen
    • victims with known severe food or insect bite allergies may have an epi-pen available
  • If reaction is because of an insect sting, remove the stinger using a stiff card (such as credit card or driver’s license, do NOT use tweezers)
  • Remove any restricting clothing or jewelry around area of potential swelling to limit additional complications
  • Monitor victim until EMS arrives


For more specific information on how to treat a typical allergic reaction check out the information made available by the NIH for food allergies, drug allergies and bee/insect bites.

PREVENTION OF ANAPHYLAXIS
There are many situations where people are unaware that they have an allergy until they have their first adverse reaction making prevention impossible in these cases.  For someone with a diagnosed allergy, especially a severe one, it is very important that all effort be made to avoid contact with or ingestion of the allergen.  In many cases, individuals with severe allergies are encouraged to wear a medical alert bracelet and have an epi-pen available at all times. 

How food allergies develop are not fully understood although some research shows that breast feeding infants and delaying the introduction of common allergy inducing foods to infants until their gastrointestional tracts are mature enough to handle them (this varies by food) can help decrease the likelihood of allergies.  Once an allergy becomes known, the best prevention is to avoid the food you are allergic too.

Similar to food allergies, drug allergies should be prevented by avoiding the offending medication and often, similar medications (those in the same class). 

Finally, to minimize the possibility of being stung by a bee or other insect there are several things you can do.  Most importantly, when eating outside do not hang around garbage cans or near a large number of sweet drinks or foods.  You should also avoid wearing floral perfumes and dark or floral patterned clothing.

INTERNET RESOURCES





Submitted by Heather L. Clemons, M S, MBA, ATC

Wednesday, January 2, 2013

Mental Health Resources for Children and Adolscents


In light of the tragic events in Newtown, Connecticut at Sandy Hook Elementary School the topics of gun control and appropriate mental health care for our nation’s young people is again at the forefront.  As the debate continues following the events in Newtown there will be many discussions about gun control legislation as well as the current mental health system in the United States.  This blog entry is not a commentary on how to prevent other tragedies through various political and social actions.  My intention is to shed some light on who to connect with and how to access resources around mental health issues for parents who have questions.  Addressing one's mental health should be as important as addressing physical ailments, but because of the stigma connected with mental health conditions this aspect of overall wellness is often overlooked. 

MENTAL HEALTH CONDITIONS:
Children and adolescents can suffer from a variety of mental health issues, just as adults.  The list of mental health concerns includes depression, anxiety disorders, personality disorders, autism, eating disorders, ADHD, and post traumatic stress disorder (PTSD), among others.  Discussing each of these disorders is beyond the scope of this post, but I will provide a few recent statistics made available by the National Institute of Mental Health (NIMH).  Further description of each condition can be found by searching the condition name on the American Psychiatric Association or American Psychological Association websites.

  • The lifetime prevalence for depression in 13 – 18 year old children is 11.2%, with 3.3% of this same group having a severe depressive disorder.
  • Attention Deficit-Hyperactivity Disorder (ADHD) has a lifetime prevalence of 9% in 13 – 18 year old children. 
  • Anxiety disorder is the general description that includes the specific diagnosis of general anxiety disorder (GAD), obsessive-compulsive disorder, panic disorder, PTSD, and phobias.  GAD has a lifetime prevalence of 1% in 13 – 18 year old children according to the NIMH. 


MENTAL HEALTH PROVIDERS:
When seeking mental health care one of the first questions often asked is, who should I see?.  Speaking with your family physician or pediatrician is often a great place to start when looking for recommendations in your local community.  It is also helpful to understand the major types of professionals available.  You will find a brief summary of psychiatrists, psychologists and clinical social workers.  You may also have the option of counselors and marriage and family therapists depending on your specific need.
  
Psychiatrists
Psychiatrists are medical doctors (MD, DO) who graduated from a medical school and further specialized in the area of psychiatry.  This means that following medical school they complete a four-year residency in the area of psychiatry.  Some choose to specialize even further and obtain additional training.  Some specialization areas include child and adolescent, geriatric, and addition psychiatry among others.

They specialize in the diagnosis, treatment, and prevention of mental illnesses.  Psychiatrists treat both the physical and mental aspects of mental illness.  Their treatment options can range from psychotherapy (talk therapy), medications, and other treatment options.  For further information visit the American Psychiatric Association website.

Psychologists
Psychologists with a doctoral degree (PhD, PsyD, EdD), have at least seven years of education and training beyond their undergraduate education.  Psychologists have dozens of career options in research, teaching or clinical practice.  Specialties can include educational, industrial or clinical psychology among others.

The psychologists we most often think of who provide talk therapy treatment are clinical psychologists.  These psychologists have a doctoral degree and must me licensed in the state in which they work.  They typically provide treatment for people who need help coping with life issues and mental issues using a variety of theories and techniques based on the patient’s values.  Many of them are also qualified to administer and interpret a variety of tests and assessments.  Unlike psychiatrists, psychologists cannot prescribe medications.  For further information visit the American Psychological Association (APA) website.  Other associations you may wish to investigate include the Society of Clinical Psychology, Division 12 and Society of Counseling Psychology, Division 17.

Social Workers
Social workers can earn degrees at bachelors (BSW), masters (MSW) and doctorate (DSW, PhD) level, each with their own particular knowledge and competencies.  A licensed clinical social worker (LCSW) typically has two years of graduate school and internship (supervised field instruction) in the area of psychotherapy.  Other specialty areas where you will find social workers include adolescent health, aging, violence, and children, youth and family among others.

Clinical social workers provide psychotherapy (talk therapy) to patients who need help coping with life issues and mental health issues.  This is much in the same way as a psychologist.  For more information about clinical social workers and the other specialties in social work visit the National Association  of Social Workers (NASW).

To find out more information about counselors visit the American Counseling Association website.

MENTAL HEALTH RESOURCES:

Specific to Sandy Hook

General Resources

National Alliance on Mental Illness (NAMI) Internet resource list

Submitted by Heather L. Clemons, MS, MBA, ATC