Improving Quality of Life Through Education
Mid-Columbia Medical Center
A car with four flat tires…
A person with persistent pain is like a car with four flat tires.
The right medication might fill one tire.
Exercise, pain education, healthy eating, restorative sleep, counseling and mindfulness are a few ways to fill up the other three tires.
https://www.youtube.com/watch?v=5RIii6OUK2A
Four Flat Tires Video
Pain is a complex process that does not require an actual physical injury as a cause.
Thoughts, feelings, emotions and beliefs all play a part of the pain experience.
Persistent pain is often no longer reflective of actual or ongoing injury or damage.
A “sensitized nervous system” contributes to persistent pain.
Our nervous systems are highly changeable. If they can be changed from “normal” towards a persistent pain state, then they should be able to change back towards “normal.”
Important Pain Facts
STRESS
POOR OR INADEQUATE SLEEP
UNHEALTHY DIET
NEGATIVE THOUGHTS AND BELIEFS
A sensitized nervous system can be perpetuated by…
Movement
Touch/massage
Relaxation/stress reduction/mindfulness
Restorative sleep
Changing our thoughts and beliefs
Healthy Diet (boosts the immune system and aids in healing)
Engaging in pleasurable activities such as socialization, reading, family meals, hobbies, outdoor activity, etc…
Ways to Re-train the Brain
Medications have positive effects and negative effects. It is important to incorporate ALL aspects of the pain care model (physical, mental, emotional). Medications alone are rarely adequate to manage chronic pain and in some cases, may worsen quality of life.
Opioid medications are an important tool for managing acute and chronic pain. In some cases opioids may worsen the pain experience through a process known as “opioid-induced hyperalgesia.”. It is important to know and understand the risks and benefits of these medications.
Where does medication come in?
Optimal Self Care
Eat Better
Activity
Sleep
Education
Positive Thinking
Proper meds
Stress Reduction
The Wheel of Pain Rehabilitation
By: Andy Roof, MPT, OCS
Waters Edge/MCMC Rehabilitation Services
Learning Objectives To understand the differences between acute and
chronic pain.
To understand the role of the brain and nervous
system in the creation of the “pain experience.”
To understand the physiological changes that take
place throughout the body in response to a chronic
pain state.
To learn 3 positive lifestyle changes that can be
made in order to manage chronic pain.
Why should we learn about
pain?
To learn how to put the pain in
perspective
Make new decisions based on changes
the pain has caused in our lives
Set realistic goals
Minimize the disruption the pain has
caused in our lives
All pain is real pain Each person’s pain is unique
All pain experiences are a normal response to what your brain thinks is a threat
Real pain can exist without any damage to the tissues
The construction of a pain experience in the brain relies on many sensory cues
The pain experience relies on a very complex electrical and chemical response in the body
The intensity of pain is not always related to the severity of the injury
Brain Man and Pain https://www.youtube.com/watch?v=rlsSaJcjmLg
What is pain?
An unpleasant, but
protective, sensory
experience in response to
what your brain judges to
be a threatening situation.
The BRAIN controls pain: You can have
no pain with extreme tissue damage
Even if problems exist in your
bones, joints, muscles, ligaments,
nerves or anywhere else, it won’t
hurt unless your brain thinks you
are in danger.
The BRAIN controls pain: You can experience
extreme pain with no tissue damage
Even if no problems exist in your bones, joints,
muscles, ligaments, etc…it will still hurt if your
brain thinks you are in danger.
Pain can be so effective that you can’t focus on
anything else. But if your brain thinks that
experiencing pain is not the best thing for your
survival, you may not experience pain at the
time of severe injury.
The BRAIN controls pain: Pain results from the
brain’s interpretation of what is happening to the
body
Pain is an output of the brain, not an input.
The information given to the brain by the
nervous system is: where the pain is, the
amount of danger and the nature of the
danger. The “stretching,” “ripping,”
“burning” sensations are produced by
the brain’s construction of events.
Acute Pain Experienced in response to tissue damage, for
example: being bitten, stepping on a nail,
getting burned by the fry pan, breaking a bone,
dislocating a joint, twanging your funny bone…
Experienced in response to tissue fatigue, for
example sitting at the computer too long and
developing a neck ache (body says “time to
move!”)
Pain is desirable because…This acute pain protects us by
motivating us to get out of a
threatening situation, to seek help
for an injury, or to change position.
In this way, experiencing pain
protects us and increases our
chances for survival.
Degenerative changes It is a normal process of aging for our tissues to
degenerate, or at least look a little different than
they did at age 16.
Disc degeneration, degenerative joint disease and
arthritic changes are all normal age-related
processes.
Since these processes occur slowly and over time,
our brains usually do not perceive them as
threatening, therefore there is no pain.
Pain relies on contextWe will experience more or less
pain based on sensory cues that we
are receiving in conjunction with the
pain
Stubbing your toe hurts more on a
stressful day than at your birthday
party.
Phantom limb pain 70% of people who lose a limb experience a
“phantom limb” that can itch, tingle and hurt
This relates to the “virtual limb” in our brain. There
is still a brain-constructed representation of that
limb in our heads even though the actual limb is
missing.
This “virtual limb” representation is changed in
chronic pain states.
Sensors Millions of little sensors all throughout your body
that survey their area and convey information to the
spinal cord
When sensors respond to a stimulus (can be
mechanical pressure, changes in temperature, or
chemical changes) they open so that positively
charged particles from outside the neuron rush into
the neuron; this sets up an electrical impulse in the
neuron.
Action Potential When enough sensors open, and enough +
charged particles rush in, a rapid wave of electrical
current travels up the neuron..this is called an
Action Potential
Action Potentials are the way that nerves carry a
single message. This message from the nerve to
the spinal cord only says “danger,” not “pain.” The
spinal cord and brain receive and process these
inputs to create a pain sensation.
Synapse When AP reaches the other end of the neuron at
the spinal cord, it causes chemicals to be poured
into the gap or “synapse” between the sensory
neuron, its neighboring neurons, and the second
order neuron that then goes up to the brain. If
enough of the correct chemicals are released into
the synapse and open enough sensors on the
second order neuron, an AP is produced that
carries a “danger” message to the brain.
Brain processingDanger message is ultimately delivered
to the brain, which processes that
message, along with all other information
that is arriving at the brain.
Brain uses memory, reasoning and
emotional processes and includes
consideration of the potential
consequences of a response.
Pain ignition nodes Rather than just one “pain center” in the brain,
there are multiple “ignition nodes.”
These nodes include parts of the brain used for sensation, movement, emotions and memory.
These nodes are “ignited” during a pain experience and link up to each other electrically and chemically.
In chronic pain, these nodes become overactive and nearly dedicated to creating the pain experience. ..like a skipping record…
Descending inputNeurons descend from the brain, down
the spinal cord, and terminate near the
synapse between 1st and 2nd order
neurons.
These neurons provide a flood of “happy
hormones” (opioids and serotonin) that
are 60x more powerful than any drug at
dampening alarm signals.
Nervous system changes in
chronic painDanger messenger neuron increases its
sensitivity to incoming excitatory chemicals
Sensors stay open longer
More sensors are manufactured
Other neurons that don’t carry danger messages sprout close to the synapse and activate the pain neuron (touch, temperature, movement, vibration)
Altered spinal cord inputs…These changes in the spinal cord
make it so that the brain is not
receiving accurate information about
what is happening in the tissues.
“the spinal cord as a magnifier of
tissue reality”
The Brain Learns Pain
Amount of brain “real estate”
dedicated to perceiving pain
is expanded up to 5x normal
The problem is in the nerves…
Chronic pain exists because of changes
in the brain, spinal cord and nerves. It is
no longer a result of tissue damage.
The nerves fire more frequently and with
greater strength; they keep firing without
ongoing stimulus…so… people heal but
the pain circuit remains active
Thoughts play into this pain…
Thoughts and beliefs are nerve
impulses too.
Imagining a movement or watching
someone else move can produce
pain.
Imagining movement may cause
swelling of the painful part.
Pain and Emotions OverlapEmotional circuits and pain circuits share
brain regions and nerve cells, therefore,
there is great overlap of pain disorders
and mood disturbances
Pain produces anxiety, depressed mood
and fear
Your pain can be worse
depending on:
Negative thoughts: anger,
depression, fear, stress, painful
memories, negative attitudes and
beliefs
Physical state: fatigue (lack of
sleep), hunger, cold, heat, noise
Chronic Pain ProcessKnown tissue healing time has passed,
yet pain persists
Diagnoses based on tissue processes are
no longer accurate
Pain becomes related to CNS processes
(brain, spinal cord and nerves) as
opposed to actual tissue damage
(tendons, ligaments, muscles, discs)
Chronic Pain ProcessNormal sensations produced by
movement or touch are translated by the nervous system into a pain message.
The pain becomes a false signal caused by hypersensitive nerves.
Sympathetic Nervous System
Nerve network throughout the body
Distributes adrenaline to all of your
tissues
In chronic pain states, there can be
increased adrenaline levels
Adrenaline increases the alarm system
sensitivity
Parasympathetic Nervous
System
Slows and conserves energy, aids in
digestion, cellular replacement,
tissue healing
Decreases adrenaline levels
Meditation, quality sleep, deep
breathing and relaxation all facilitate
this
Cortisol Cortisol oversees the stockpiling of fuel (fat) for
future stress. Unrelentingly high levels of cortisol in
the body leads to weight gain.
At high levels, cortisol has a toxic effect on
neurons, eroding connections between them and
breaking down muscle and nerve cells.
Remember that cortisol is a “stress” hormone, so
effective stress management strategies are important
to reduce it to “normal” levels.
Immune systemPro-inflammatory cytokines are active
when you have the flu….this is desirable
for healing response
Long term stress and pain lead to chronic
inflammatory cytokine
activity…movements are more sensitive,
old pains can come back to revisit.
Buffer the Immune SystemOptimal nutrition: more fruits and
veggies, whole grains and omega-3’s
Have family and medical support
Have a strong belief system
Have and use a sense of humor
Exercise appropriately
Mindful Walking Practice walking with a tall spine, eyes on the
horizon.
Arm swing and a little rib cage motion are critical.
Play with speeding up or slowing down.
Play with longer or shorter strides.
Focus on heel strike and toe-off.
Extra credit: Can you breathe with your belly while
doing all of this?
Passive Coping
1. Avoiding activity
2. Doing nothing
3. Wishing for something to
happen
4. Believing someone else has the
answer
Active Coping
1. Learn about the problem
2. Explore ways to move
3. Explore and nudge the edges of
your pain
4. Stay positive and active
5. Make plans
Effects of movement and
exercise
Exercise:
1. improves blood flow to the brain,
joints and muscles
2.regulates mood in a positive way
3. primes the brain for learning
4.results in a chemical release that
helps decrease pain perception.
Exercise boosts levels of
beneficial neurotransmitters
Dopamine: vital for movement, attention,
cognition, motivation and pleasure.
Serotonin: important for mood, learning,
self-esteem and decreased anxiety and
impulsiveness
Endorphins: act as natural morphine,
blocking pain and producing feelings of
pleasure, satisfaction and bliss
We say “Know Pain or No Gain”
Self Treatment for Managing
Chronic Pain Exercise: includes walking, hiking, dancing,
swimming, water aerobics, bicycling, working
out at the gym…all of this promotes the release
of “feel good” brain chemicals!
Self-massage with a tennis ball, pokey ball,
vibrating massager, your fingers,
etc…improves circulation to tight muscles
which helps them to relax and leads to less
pain and more movement.
Self Treatment for Managing
Chronic Pain Relaxation to stimulate the “feel good” brain
chemicals and decrease the “stress” chemicals.
This includes deep breathing, meditation,
mindfulness, yoga, prayer…
Proper nutrition: a healthy, whole foods diet to
optimize the immune system’s functioning and
to decrease painful inflammation in the body
Self Treatment for Managing
Chronic Pain
Proper sleep: 6-9 hours of sleep per night to allow your body time to heal.
Only YOU can commit to following up on these ideas. No one can give them to you, charge you money for them, etc…When it comes to treating your chronic pain, the best things in life really ARE free!
How to start exercising Start with something you enjoy. Walking, hiking,
biking, dancing, swimming and water aerobics are all good choices.
Start slowly and time yourself so that you have an objective measure of your exercise.
PACING: If you have a pain flare, remember that it is your nervous system “speaking up” as it gets used to a different level of activity. Decrease your time of exercise by 20% and get back out there!
Optimal Self Care
Eat Better
Activity
Sleep
Education
Positive Thinking
Proper meds
Stress Reduction
The Wheel of Pain Rehabilitation
ReferencesButler, D., Moseley, L. Explain Pain.
Noigroup Publications, Adelaide,
Australia, 2003.
Ratey, J. Spark: The Revolutionary
New Science of Exercise and the
Brain. Little, Brown and Co., 2008.
Next week…