Topics of Interest

Trampoline Safety Critical

Exercise and Asthma Can Go Together

Regular Hamstring Stretching Prevents Injury

Toning Shoes May Not Be as Beneficial as Advertised

Barefoot Running: Is it a good idea?

To Run or Not

Adjust Pain and Inflammation Naturally

Benefits of Strength Training

sPrain vs sTrain

A Publication of the American Orthopaedic Society for Sports Medicine

sPorT plus physical therapy, LLC
Trampoline Safety Critical
By Brian R. Wolf, MD

Trampolines are growing in popularity in the United States. When used properly they can provide good fun and exercise for children and adults. However, the risk of injury when using a trampoline is significant. It is estimated that more than 100,000 people each year are treated in emergency rooms for trampoline-related injuries.

In fact, the American Academy of Pediatrics recommends against using trampolines. Most injuries are bruises, sprains, or fractures. Catastrophic injuries, including paralysis or death, have occurred but are not common.

In light of this potential for injury, several recommendations can potentially help limit trampoline injuries:

  • Children should be at least 6 years old to participate
  • Only one person at a time should be on the trampoline to minimize risk of injury from contact with other people.
  • Children on trampolines should always be supervised by an adult.
  • Somersaults, flips, and maneuvers other than simple jumping are not recommended.
  • Trampolines should be located on level ground and should not have a ladder so little children can climb on unsupervised.
  • Netting and pads around the trampoline are highly recommended and can help limit trampoline injuries from falling off but need to be inspected regularly.

If you are going to jump for fun this summer, do it safely and wisely!

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A Publication of the American Orthopaedic Society for Sports Medicine
sPorT plus physical therapy, LLC

Exercise and Asthma Can Go Together
By Daniel Solomon, MD

Asthma is among the most common medical conditions affecting athletes. More than 20 million people in the U.S. have been diagnosed with asthma, though not all need ongoing medication. Exercise-induced asthma (EIA) affects 12-15% of U.S. population. Athletes, coaches, athletic trainers, and parents should be familiar with common symptoms and triggers, and have an asthma treatment plan.

The most common cause of breathing difficulty during or after workouts is undiagnosed or untreated asthma. Common symptoms include:

  • Wheezing
  • Chest tightness
  • Coughing
  • Fatigue
  • Shortness of breath
  • Nighttime breathing difficulty
  • Decreased athletic performance.

EIA prevalence increases in cold, dry weather, or if air-borne particles, including allergens, pollen, and air pollution are present. Other health issues, such as hay fever or allergies, upper respiratory infections or gastroesophageal reflux (GERD), or poor physical conditioning can predispose people to EIA. Because of the prevalence with cold, dry air, winter sport athletes have increased susceptibility. Chlorine may also play a role; swimmers, especially in indoor pools, may be at higher risk. Certain medications, including aspirin, Beta-blockers, non-steroidal anti-inflammatories (NSAIDs), and diuretics can also trigger EIA.

Treatment in an acute event includes removing athlete from competition or practice, administration of a rapid-onset metered-dose inhaler (albuterol is the most common). Spacer devices may help deliver an appropriate medication dose in more anxious patients. If the initial treatment fails or is unavailable, transfer to an emergency medical facility may be necessary.

Long-term treatment includes avoidance of trigger situations and prevention. Warm, moist air is most helpful. Proper warm-up and breathing techniques may also minimize symptoms. Relapses can occur, so an athlete who experiences an acute EIA attack should be monitored and kept out of play until respiratory effort and breathing is normal. If symptoms do not resolve completely, the athlete should not return to play.

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A Publication of the American Orthopaedic Society for Sports Medicine
sPorT plus physical therapy, LLC

Regular Hamstring Stretching Prevents Injury
By Robert Gallo, MD

Hamstring strains are a common cause of recurring injury in sport and account for a significant amount of lost time for both the weekend warrior and professional athlete. Stretches to improve hamstring flexibility are frequently incorporated into work-out routines to minimize risk of injuries. Improved hamstring flexibility has been speculated to improve athletic performance.

Stretching exercises are divided into static, dynamic, and proprioceptive exercises.

  • Static – muscle stretched slowly to tolerance and held in position of maximal stretch for a defined period of time
  • Dynamic – muscle stretched by moving from resting position to maximal stretch and returned to resting position; motion continues for a defined period of time
  • Proprioceptive – muscle contracted directly prior to static stretch of same muscle

Static routines are the traditional stretches that are commonly used in most training regimens. Static stretches have been proven to improve flexibility to a greater degree than dynamic stretches, which are also more likely to cause injury due to potential for uncontrolled stretch of the muscle. Studies have suggested that despite advantages in flexibility static stretching may actually decrease performance.

On the other hand, dynamic stretching has been shown to improve agility, speed, and strength. Therefore, a regular regimen of static stretching combined with dynamic stretching immediately prior to athletic activity may provide the optimal balance of improved performance and flexibility. The use and knowledge of the efficacy of proprioceptive techniques remains limited because of expertise required to perform the exercises correctly.

Most hamstring stretches vary in the position of the hip at the initiation of the stretch. Studies indicate that stretches that begin with the hip and pelvis flat are more effective than those in which the hip is flexed at 90 degrees. There appears to be no difference if the stretches are performed sitting versus standing.

Lasting improvements in flexibility are related to duration of stretching. Static stretches should be held for a minimum of 30 seconds to produce a significant effect in flexibility. While the exact number of repetitions and days necessary to produce lasting improvements in flexibility are controversial, most improvements gradually fade once stretching regimens are discontinued. There, in order to preserve gains in flexibility, stretching should be continued indefinitely.

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A Publication of the American Orthopaedic Society for Sports Medicine
sPorT plus physical therapy, LLC

Toning Shoes May Not Be as Beneficial as Advertised
By Monte Hunter, MD, and Jeff Dowling, PhD

Fit shoes, or toning shoes, have become the latest fitness rage. With marketing claims to burn more calories, improve endurance, tone leg muscles, reduce joint pain, and improve posture, these shoes have become increasingly popular and visible over the last two to three years. They represent the fastest growing segment of the shoe industry and are expected to create $1.5 billion in revenue in 2011.

One fit shoe style was inspired by the Masai people who are known for their perfect posture and lack of low back pain. The founder of Masai Barefoot Technology (MBT) observed that the Masai walked barefoot over soft earth and sand. The curved sole or rocker bottom of the shoe was designed to create an unstable walking base meant to mimic the natural environment of the Masai. This design is thought to strengthen muscles in the lower leg and ankle as the shoe wearer works harder to maintain balance during normal activities.

The MBT shoe is the original “fit shoe.” It originated in Switzerland in 1996, and came to North America in 2003. MBT and Skecher Shape-Ups are the most common of these shoes. The Reebok Easy Tones are similar, but are designed with pods in the forefoot and heel. The common denominator is an unstable walking base and a price tag of $100 to $250. Not all shoe companies have embraced the concept and some have thus far stayed out of this market.

Fit shoes are touted as having several benefits: stronger muscles in the legs, back, buttocks, and abdominals; improved cardiovascular endurance; reduced body fat; increased circulation; and decreased neck, back, ankle, and foot pain. These benefits are mainly supported by consumer testimonials, and celebrity endorsements. Companies have performed research studies supporting the benefits of the shoes, but many of these studies are poorly designed and not peer-reviewed.

The American Council on Exercise recently released two studies comparing the benefits of fit shoes from MBT, Skechers, and Reebok with traditional running shoes from New Balance. These studies concluded there was no evidence to support the claims that fit shoes help wearers exercise more intensely, burn more calories, or improve muscular strength or tone compared to the traditional shoes.

As of march 2011, only two randomized controlled studies exist analyzing the effects of these or similar shoes. The only claims supported by these studies are some pain reduction over time in patients with moderate osteoarthritis in the knee or low back pain.

Claims have also been made that wearing these shoes has caused injury (ankle sprains and even stress fractures) and increased knee or low back pain. There are currently no studies to support or suggest that these shoes are dangerous to wear or cause increased pain.

Fit shoes may benefit some patients with knee or low back pain, but cannot be recommended for the other touted benefits at this time.

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A Publication of the American Orthopaedic Society for Sports Medicine
sPorT plus physical therapy, LLC

Barefoot Running: Is it a good idea?
By John D. Kelly IV, MD

Barefoot running has become the craze with many “experts” extolling its virtues. The book sensation, Born to Run, has generated much interest in the subject of barefoot running. The book’s thesis is that shoeless running is kinder and gentler to the body. But is this statement supported by science? Indeed, many high performance runners have succeeded in both running and training shoeless. However, most world class runners are still found wearing shoes during competition.

There actually is some basic science to support the virtues of barefoot running but the clinical data is sparse. Similarly, there are no good data to support the industry’s claim that running shoes prevent injury.

The mechanics of running have changed significantly during shoe wear. During shoeless running, the edge of the foot strikes the ground with the most force and the impact stress is spread out. Also, foot pronation – Mother Nature’s way of dissipating impact stress during landing – is unimpeded in the barefoot runner. Running in shoes (especially heavily padded ones) typically shifts more impact away from the arch, prevents full pronation, and shifts stress to the heel and hind foot. Shoe runners also tend not to flex their foot when running as often. Finally, oxygen consumption in runners is increased by approximately four percent when shoes are worn.

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To Run or Not

By: Dr. Mel Eggebrecht, DPT, CWT, CSST
sPorT plus physical therapy, LLC

Are you sure you should be running? What about your knees? Won’t running make your knees worse? Chances are, if you’ve ever been a runner or ever thought about running, these questions have crossed your mind. Or perhaps the minds of family or friends who assume the pavement pounding is destroying your joints and you’ll eventually need a knee replacement because of your arthritic joints.

Osteoarthritis (OA) is the most common type of arthritis, affecting nearly 27 million Americans. 2 OA is a degenerative disease which occurs when cartilage, the spongy tissue that cushions the bones in a joint, breaks down and deteriorates, making weight-bearing activities painful. Knowing this, many people believe that running accelerates this process.

The number one risk factor for developing OA is excess body fat. Sedentary, overweight people are 45 percent more likely to develop OA than those who are active. 4 Losing weight is one way to prevent OA. Losing 10 pounds can take about 45 pounds of pressure off the knee. 4 Running is an effective calorie burner and may contribute to improved joint health.

Research supports there are many benefits from running. Running not only helps in weight reduction, it improves body functions including your heart and lungs, but also your joint health. When you perform weight bearing exercises, the cartilage in your hips, knees, and ankles compresses and expands. This draws in oxygen and flushes out waste products, nourishing and keeping cartilage healthy. 3 Furthermore, running strengthens the ligaments that help support the joints, making them more stable and less susceptible to injury which can damage cartilage and eventually lead to OA.

So what about the injury predictions for the long term effects of running? A study published in the American Journal of Preventive Medicine shows that running was not associated with greater rates of OA and runners do not require more total knee replacements than non-runners. 3 The fact is if you run responsibly you’re no more susceptible to OA than the general population. This is not to say that running is the only activity that’s good for you. Vigorous activity has a larger impact on our health but we can’t ignore the helpful benefits of activity at all levels. It’s important to be physically active, no matter what the level, your whole life. 3 Exercise is still the best medicine.

References:

  • Chakravarty, E., Hubert, H., Lingala, V., & Fries, J. Reduced disability and mortality among aging runners – a 21 year longitudinal study. Arch Intern Med. 2008; 168(15): 1638-1646.
  • Colino, S. Joint efforts – how to live a better life with arthritis. Healthy Living. 2009; 15(2): 58-61.
  • Fries, J., Chakravarty, E., Hubert, H., Lingala, V., & Zatarain, E. Long distance running and knee osteoarthritis: a prospective study. Amer J. of Preventive Med. 2008; 35(2): 133-138.
  • Ketteler, J. The benefits of running. Runner’s World. October, 25, 2007.

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Adjust Pain and Inflammation Naturally

By: Dr. Mel Eggebrecht, DPT, CWT, CSST
sPorT plus physical therapy, LLC

Many suffering from osteoarthritis (OA) and/or rheumatoid arthritis (RA) have considered natural supplements to ease their aches and pains. Some herbal medications have a proven track record. But the extent of products out there can be overwhelming. The ten most common supplements (in alphabetical order) are listed below and were featured in Arthritis Today magazine.

The following information was compiled to be used as a resource when discussing options with your doctor. Naturally extracted chemicals and supplements should be used with caution as interactions with prescription medications are possible. CHECK WITH YOUR PRIMARY CARE PHYSICIAN BEFORE TAKING A SUPPLEMENT.

  • Cherry Extract

Claims: Reduces pain and inflammation related to OA

How it works: Tart cherries are a source of antioxidants shown to inhibit COX-1 and COX-2 enzymes which cause inflammation.

  • Chondroitin Sulfate

Claims: Slows the progression of OA; reduces pain and inflammation

How it works: May slow cartilage loss by inhibiting certain enzymes; helps cartilage retain water; works better combined with glucosamine. Takes 6 weeks to see benefits.

  • Fish Oil

Claims: Reduces inflammation and stiffness; inhibits RA development

How it works: Is a potent source of omega-3 fatty acids, which reduce inflammation. It can take several months to see benefits.

  • Ginger

Claims: Eases joint pain and reduces inflammation for both RA and OA

How it works: Inhibits inflammatory chemicals

  • Ginkgo

Claims: None to having a direct effect on RA or OA. It does increase blood flow and circulation in those with reduced circulation and pain in the legs.

How it works: Has anti-inflammatory and antioxidant properties.

  • Glucosamine

Claims: Slows cartilage deterioration in OA; relieves OA related pain

How it works: Contains compounds necessary for the building of and maintaining of connective tissue including cartilage. It helps cartilage absorb water; keeps joints lubricated; may prevent breakdown of cartilage.

  • MSM

Claims: Reduces pain and inflammation

How it works: Helps the body form connective tissue; reduces nerve impulses that transmit pain.

  • Rose Hip Extract

Claims: Reduces OA related pain and inflammation

How it works: Has antioxidant properties; are rich in essential fatty acids that inhibit COX-1 and COX-2 enzymes which cause inflammation.

  • SAM-e

Claims: Treats stiffness, pain and joint swelling; rebuilds cartilage; eases symptoms of OA

How it works: It is an anti-inflammatory and analgesic.

  • Turmeric

Claims: Reduces pain, inflammation, and stiffness from OA and RA

How it works: Has anti-inflammatory properties and modifies immune system responses.

Reference : Pagan, Camille N. (2009). Nourished by Nature. Arthritis Today, September/October, 2009, pgs. 70-79, 87-88, 90.

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Benefits of Strength Training 

By: Dr. Mel Eggebrecht, DPT, CWT, CSST
sPorT plus physical therapy, LLC

National Physical Therapy Month, sponsored by the American Physical Therapy Association (APTA), is a nationwide observance held each October. This year’s theme is, “Move Forward: Physical Therapy Brings Motion to Life”. A simple way to get moving is to add a strength training program to your exercise routine. Listed below are the Top 10 Benefits of Strength Training:

1. Increased Metabolic Rate – Strength training increases the body’s metabolic rate, causing the body to burn more calories throughout the day.

2. Increasing and Restoring Bone Density – Inactivity and aging can lead to a decrease in bone density and brittleness. Studies have clearly proven that consistent strength training can increase bone density and prevent Osteoporosis.

3. Increased Lean Muscle Mass and Muscle Strength, Power, and Endurance – Everyone can benefit from being stronger. We can work harder, we can play more, we can workout longer, and we can be more alive.

4. Injury Prevention – A wide variety of sports-related or life-related injuries can be prevented by strengthening muscles and joints.

5. Improved Balance, Flexibility, Mobility and Stability – Stronger and more resilient muscles improves our balance, which means more comfortable living & fewer falls or accidents.

6. Decreased Risk of Coronary Disease – Participation in a consistent strength-training program has a wide variety of affiliated health benefits including decreasing cholesterol and lowering your blood pressure.

7. Aids Rehabilitation and Recovery – One of the best ways to heal many types of injuries is to strengthen muscles surrounding the injured area. The stronger your muscles, the quicker the healing process.

8. Enhanced Performance in Sports or Exercise – No matter what your favorite sport or physical activity, with the proper strength training program, your performance can unquestionably be improved.

9. Aging Gracefully – Physical activity keeps us alive and vibrant. Strength training ensures we are strong enough to participate in aerobic activities, outdoor recreation, and sports. Strong seniors fall down less. If they do fall down, their stronger bodies are more resilient, are injured less by the fall, and are able to heal more quickly after an injury.

10. Feeling Better and Looking Better – Stronger muscles and joints can have a dramatic impact on posture and leaner toned muscles tend to make everyone feel better about their appearance. This all leads to improved self-esteem and increased self-confidence.

To find out how you can “Move Forward” and start strength training, please call sPorT plus physical therapy, LLC at 715/339-6140. sPorT plus physical therapy is currently accepting new patients. Call for an appointment today!

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sPrain vs sTrain

By: Dr. Mel Eggebrecht, DPT, CWT, CSST
sPorT plus physical therapy, LLC

Is it a sprain or is it a strain? A sprain is an injury to the ligaments or other tissue around a joint. A strain is an injury caused by overuse or overstretching of a muscle.

Both injuries cause pain and swelling. Whether it is a sprain or a strain the basic treatment principles are the same: RICE, which stands for Rest, Ice, Compression, and Elevation to treat the acute pain or injury. Begin the RICE process immediately following injury.

  • R. Rest. Injured muscle, ligament, or tendon tissue needs time to rest to heal. Resting an injury can include limiting use of the joint for 24 to 48 hours, or the use of slings, splints, crutches, or taping.
  • I. Ice. Cold will reduce pain and swelling and promote healing. Heat feels nice, but it does more harm than good if it is applied too soon (less than 72 hours) after an injury. Apply ice or cold packs immediately, at least 3x/day for the first 72 hours, 10-15 minutes once an hour as needed.
  • C. Compression. Wrap the injured area with an elastic (Ace) bandage or compression sleeve to immobilize and compress the area. Careful not to wrap too tightly. With or without a wrap, the joint needs total rest for 1-2 days.
  • E. Elevation. Elevate the injured area while you apply ice and anytime you are sitting or lying down. True elevation means keeping the injury at or above the level of your heart to help minimize swelling.

If symptoms do not improve after 48 hours of home treatment you should call your physician.

It may not always be possible to prevent accidents that cause sprains or strains. Whether it’s a ‘P’ (sprain) or a ‘T’ (strain), PT (physical therapy) can help. A physical therapist with orthopedic training can: identify specific tissue problems, provide other therapies such as modalities (ultrasound, electrical stimulation), and develop a customized exercise program for your recovery.

For questions or concerns related to this article, please call Dr. Mel Eggebrecht, DPT at sPorT plus physical therapy, LLC (715)339-6140.

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