About ⅔ of the population will suffer from neck pain and headaches at some point in their lifetime. Stress, posture, and muscle tension can all lead to headaches. Some common causes that can predispose you to headaches are: staring at a computer screen all day, lifting heavy weights overhead at the gym, or limited mobility of the neck, upper back or shoulders.
Tension headaches refer to headaches related to muscle or fascial tension, and the postural changes that accompany the muscle tension. This increase in tension might be from stress, a physically demanding job, or poor posture and muscle fatigue at the end of the day. Tension and stress can lead to trigger points and tightness in your postural muscles. This muscle tightness can directly refer pain into the head and face creating headaches on one or both sides of the head.
Muscle tension in the neck can result in compression and squeezing of the nerves going into the base of your head. Compression of these nerves can lead to pain behind the head, along the temples, as well as behind the eyes. Usually this compression is felt directly below the base of the head in the upper neck region, and is associated with a more forward head posture.
You can also get headaches from dysfunctional jaw mechanics (TMJ) associated with upper neck stiffness. The upper neck region can tilt the head and jaw creating abnormal muscle tension in the neck, jaw and face. If you have headaches associated with eating, notice your jaw clicking this may be an indication of neck and jaw dysfunction, also termed TMD.
Incomplete mechanics of the joints of the neck and upper back, as well as shoulder stiffness can create additional stress on the muscles of the head and neck. What steps can you take to relieve or reduce your chances of getting headaches caused by incomplete mechanics?
If you have tried these methods of headache relief, but continue to have symptoms contact us below to see if physical therapy is a good option for you.
Thanks for reading.
Dr. Sam Gillespie
Many people run because it can be done anywhere, is a year round activity, requires minimal equipment, and has excellent cardiovascular benefits. Over half of all runners will sustain a running-related injury while training and around 90% of marathon runners will experience a running-related injury.
Reasons to increase your step rate, and reduce your step length, while running:
Small changes in your step rate, or running cadence, can have a major impact on your running resilience. Your step rate refers to how many steps you take in a minute while running. Increasing the step rate while running at a constant speed will decrease your step length. Think about walking across the room vs. jumping across the room. Taking more steps while walking requires less impact forces than hopping the same distance.
“Overuse” injuries due to running are often a result of these higher loads of force while landing. Some people can even hear themselves landing with louder steps as they run. Your speed and stride length will influence the impact forces your joints, tendons, and ligaments are required to absorb while running.
Increasing step rate has a positive impact on the ankle, knee, and hip joints. The knee joints were most positively affected by increasing step rate, with a 20% reduction in impact forces with only a 5% increase in step rate. This increase in step rate will create a reduction in stride length while maintaining the same running speed.
There are many positive benefits of running with a shorter stride and higher step rate. A smaller stride length allows for you to land with your body’s center of mass over the landing foot. This will lead to less impact forces in the knees, hips, and ankles while running. Increased step rate leads to more efficient running mechanics. Improve your running economy with reduction in “up and down” wasted motions while running. You can also reduce the risk of shin splints due to the reduction in shock absorption during landing while running with smaller strides.
Things to think about after committing to increasing your step rate and reducing your stride length:
Thanks for reading,
Sam Gillespie PT, DPT, OCS
Today we are going over one of our favorite treatment styles at Athletes' Potential- Blood Flow Restriction Training, or BFR. We use the Owens Recovery Delfi units in our office.
What are we doing with BFR? We are essentially restricting the blood flow that goes to a particular limb, in this case, Dr. Sam's arm by about 50%. What that does is restrict the blood flow coming out. Now when we do that, there are very interesting things that happen hormonally with exercise.
You can get up to 200% increase in your human growth hormone. This won't make you look like The Rock but you will start to recover faster and build your connective tissue in a quicker way that wouldn't normally happen in a regular gym setting.
If you haven't tried this or you'd like more information on this, please reach out to us!
At Athletes' Potential we help active adults and athletes in the Atlanta area get back to the workouts and sports they love... without surgery, stopping activities, or relying on pain medicine. Life is too short to avoid doing the things that you love.
Reach out to us at:
Let us help you figure out to live your best active life today!
Here are my 10 favorite baseline prerequisite screens for runners. These screens test for mobility, strength, and your ability to control your trunk, pelvis and hips. Making sure you are able to pass these screens is a good way to reduce your risk of injury and to enhance your running performance and economy. These tests can also provide an opportunity to assess areas you may need to focus on during your strength and mobility training.
1. Big Toe Extension (see above below): The ability to extend through the big toe is important for progressing your body over your planted foot while running. If you cannot extend your big toe, you will often see compensatory strategies from the leg or lower back above. We would like to attain ~70 degrees of big toe extension. Using a wall or doorway, try stretching your big toe, allowing the ball of your foot to reach the floor.
2. Ankle Dorsiflexion Wall Test:
The same concept applies for progressing through your ankle. If you have calf tightness or limited ankle joint mobility, you may struggle to progress your shin forward. You will often see compensations from the leg and back above or from the midfoot below. For running, we would like to attain ~30 degrees of forward mobility (ankle dorsiflexion).
3. Hip Extension:
Hip extension is the third aspect of progressing the body forward over the stance leg during running. Since running is mostly a mid range sport for the hip, ~five degrees of hip extension would be adequate, as long as there is no compensation from the lower back muscles. Keeping the front of the pelvis on the floor during this test should help assess hip mobility without compensating from the lower back.
4. Single Leg Heel Raise:
Assessing calf strength and endurance is vital for distance running. During this test, perform the heel raise at a tempo of one second up/one second down per heel raise. Set up using a small plate, or step, to achieve a small amount of ankle dorsiflexion. Come up to a complete calf raise for each repetition and stop if you are unable to elevate to the top of your calf raise height. We would like to see ~30 repetitions.
5. Single Leg Hop Test:
This test assesses the ability to absorb loads and create tension in the calf complex. We would like to see one-second hops for at least one minute.
6. Lateral Heel Tap:
This test assesses your balance, pelvic and hip muscle control, and also assesses the mobility needs at the ankle required for running. Using an eight-inch step, tap the ground with your heel directly to the side.
7. Rear Foot Elevated Split Squat (RFESS):
This is another good test for balance and hip control, as well as the ability to generate force through the leg complex. We would like to achieve 10 repetitions without compensation and to maintain good balance throughout each rep.
8. Single Leg Hamstring Bridge:
The repeated hamstring bridge is a great way to assess the strength and endurance of the muscles behind the leg. During the test, perform a single leg bridge at a tempo of one second up/one second down per rep. Perform from regular 18” bench/chair height. Try to create a straight line from the knee/hip/shoulder, showing good hip extension each rep. We would like to see 30 repetitions.
9. Single Leg Bridge Hold:
During the single leg bridge hold, we are assessing your ability to maintain good hip, pelvis, and lumbar control while engaging the gluteal and hamstring muscles. Hold for 30 seconds without compensating at the hip, pelvis, or lower back.
10. Side Plank
This is a good test for assessing muscle endurance of the lateral hip and oblique abdominal muscles. Without proper hip and core muscle endurance, there will likely be compensatory pelvic drop or lower back muscle use to maintain pelvic and hip control. Perform a side plank from the floor with the opposite leg raised. This can be performed on a GHR machine if you have shoulder issues. We would like to see comfortable holds for longer than one minute without dropping the pelvis.
You should be looking for any difficulty maintaining these test positions, any loss of balance issues, or any mobility restrictions required during these tests. If you notice any of these deficits, this is a good opportunity to address your needs during your strength and mobility training sessions. If you are unsure of your results, or would like an expert eye for your assessment, feel free to contact us!
Thank you and happy running!
Dr. Danny and staff's views on performance improvement, injury prevention and sometimes other random thoughts.