Bone and Fracture Healing


Broken Bones Can Keep You From The Things You Love 

Here is How They Heal and More Importantly , How You Can Make Them Heal Faster

Fracture Healing

Bones Break....
We Can Heal Them Faster.

FDA approved therapies that help bones heal faster!  Even Non-Union Bone Fractures.  If you have experienced Broken Bones or Fractures and need help with Pain and Healing - No Drugs - No Surgeries - No Needles...... Call Us NOW!

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Broken Bone Healing

5 Months Post Surgery - bones not healing - recommended for additional surgery and more hardware to be placed in leg.

5 Weeks After  Laser and PEMF therapy - No visible sign of fracture and calcium build up on side of leg reduced by 50%.  Bones can heal faster.

Broken bones can take weeks ...Even months to heal correctly.

Fracture healing is a complicated metabolic process that requires the interaction of many factors, including the recruitment of reparative cells and genes. If these factors are inadequate or interrupted, healing is delayed or impaired, resulting in a nonunion of the bone.
Bone healing can be manipulated by external (biomechanical) and internal (biological) stimuli. 

At Nevada Laser Pain Relief, we utilize the latest technology in bone stimulation and bone regeneration to heal you better and faster.

Bones that are not healed in a timely manner can lead to infection, malformation, and other painful conditions.

We have PROVEN TECHNOLOGIES to help alleviate these problems by healing breaks and fractures faster.

How Bones Heal

 

The human body is a biological machine assembled on a frame constructed out of bone. However, the bones of the body are not simply structural, they are storehouses for minerals and factories which replicate and repair themselves on a regular basis. Bones have four major functions


  1. Provide the mechanical support for the body
  2. Provide physical protection for the vital organs
  3. Operate as the body’s factory for new blood cells
  4. Serve as the body’s bank for minerals such as Calcium and Phosphate – these will serve as the mineral building blocks of the bones.


Bones are living materials, with blood vessels and nerves running through them. The bone is encased in a thin layer of dense connective tissue known as Periosteum. The periosteum provides a good blood supply to the bone, and is the place where the muscles attach. Below this is a small layer called the Cortex which is made up of many compact layers, which gives the bones their strength (we will come back to this in a moment). On the inside of the bone there is a light porous tissue called Spongy bone, which looks like netting, and works like trusses in a roof to give the bone its maximum strength. It is usually found at the ends of the bone. At the very center of the bone is the Medullary cavity which contains the marrow, which is the body’s blood factory, and produces approximately 500 billion blood cells per day.


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How the Bone Building Mechanism of the Body Repairs  Bone


When a fracture occurs, the site is immobilized due to swelling. The blood brings the platelets which begin clotting (haematoma) around the area. The bone cells at the end of the fracture will die due to a lack of oxygen, especially in the fracture fragments. Fibroblasts migrate to the fracture site transforming the clotted area (haematoma) into granulation tissue, creating a fibrin mesh-network. Once the major area is secured, the process of bone rebuilding can begin.


The area of the bone that is engaged in rebuilding is the two layers of the Periosteum. The outer “Fibrous” layer contains the fibroblasts which are the storehouses for the minerals and proteins in the extracellular matrix. These are the building blocks for new bone materials. When bone building is required, the minerals are combined with collagen in a process called synthesis. The second, inner layer is the ‘Cambium’ layer which houses the progenitor cells which develop into osteoblasts (the cells responsible for bone formation).


What is interesting is the progenitor cells usually lie dormant, or operate very slowly to replace lost cells through normal attrition. However, during injury such as a fracture, progenitor cells are activated and mobilized toward damaged tissue. 


When bones need to be repaired, or when fractures take place, the whole process works like a microscopic road repaving system. There are three components that work together – Osteoclasts, Osteoblasts and Osteocytes.

Osteoclast means “bone breaker” and operates like road milling machines that churn up and recycle weakened asphalt so new asphalt can be laid down. These are dispatched to the site of the break and they remove the dead or damaged bone cells.

Heal Broken Bones Faster
Bone Healing

Following these come the osteoblast, or bone generators. They operate like asphalt laying machines, which put down the new surface of road, except osteoblasts are laying down new bone material. Together with osteocytes (meaning bone cell – in this case a mature star shaped bone cell), they form osteons, or units of compact bone. This process is called ossification or osteogenesis.



Slowly, the bone rebuilding mechanism will replace the clotted area (or hematoma) with a callus. Inside the callus the bone structure is slowly regenerated to include all the original components. This can take a period of time depending on the distance between the two breaks.


How Bio-electrical Signals in the Bones Help Heal


The bones are incredibly well designed systems complete with bioelectrical messages that help control development of bones. A recent study published in Stem Cell research in 2015 describes the process:

Osteogenesis is a complex series of events by which bone marrow stromal cells differentiate to generate new bone… For quite some time, mechanical forces have been known to affect molecular signaling and molecules in bone cells via mechanotransduction. The conversion of mechanical loads to bioelectric signals (i.e., pressure generated potentials also known as piezoelectricity) in bone has been suggested to control repair and remodeling. These signals are attributed to electrically-generated kinetic behavior where mechanical forces generate electrical signals due to the motion of ion-carrying extracellular fluid in the bone matrix. This effect is known as streaming potential.1

What does this mean in regards to bone healing? As the weight and stress is placed upon a bone, a piezo-electrical current is generated which acts as a biological trigger that stimulates the bone to thicken, (increase density), over time, or decrease density without stress being placed on the bone. ‘Piezo’ comes from two Greek words epi (meaning on), shortened to pi, and sed (meaning to apply pressure onto). Put them together and you have piezo (pressure on). Piezo-electricity is a common phenomenon experienced every day when a high degree of pressure is applied to a quartz crystal, deforming it and creating an electrical current. This spark is seen in cigarette, barbeque and stove lighters which use piezo-electricity to ignite the fuel.


This is the reason why astronauts lose bone density in space: there is no gravity, and therefore, force triggering the piezo-electrical current in the bone and its density steadily decreases. This condition is called osteopenia (meaning bone poverty) or bone mineral density loss. Interestingly, it is observed much more in athletes who participate in non-load bearing sports such as swimming or cycling, than it is in sports like running which cause more impact, triggering the piezo-electrical current.

Broken Bone Repair

The same result can happen due to a lack of movement or exercise due to injury, sickness or aging, or just a more sedentary lifestyle.  Osteopenia eventually becomes Osteoporosis as bone density drops to a chronic level. The problem can be intensified due to lack of nutrition, eating disorders, or from smoking and consuming too much alcohol. Deficiencies in Vitamin D, Vitamin K, Calcium and Magnesium are also contributing factors. If a bone is under-utilized it will slowly degenerate, thin out and become brittle. One of the main causes in death of bone cells is oxygen deprivation which occurs as the result of immobilization or under use.


This is why walking, combined with a healthy diet where the right minerals are being absorbed, will stimulate the bones to increase in density by the piezo-electrical currents created during the process.


Stimulating Bone Healing Bioelectrical Signals with PEMF


According to Physiotherapist Brian Simpson in his study on “The Structure and physiology of bone and physiotherapeutic modalities to promote fracture healing,”

Historically, it has not been the usual practice in any branch of medicine, to treat fractures i.e. to influence the rate of healing. Fractures rather than being treated, tend to pass through three main stages of management:

                                    Recognition… Stabilization… and Rehabilitation.2

Research into pulsed electro-magnetic field therapy is changing this approach. In the 2015 Stem Cell Research study on the effects of PEMF on bone marrow the researchers concluded:

The use of EMF to stimulate osteogenesis is based on the idea of stimulating the natural endogenous streaming potentials in bone. The same physiological frequencies (8–30 Hz) caused by natural muscle contractions and subsequently induced EF in bony tissue, can be used to regenerate tissue as well as differentiate bone marrow stromal cells into osteoblasts….1

In other words, PEMF can be used to stimulate bone repair, the same way piezo electrical forces do. They help the bone factory release the necessary minerals for osteogenesis (or bone creation).The study continues:

Bone Doctors

Bone remodelling is a highly integrated process of resorption by osteoclasts and formation of bone tissue by osteoblasts, which results in precisely balanced skeletal mass with renewal of the mineralized matrix…. cell exposure to PEMF significantly increased alkaline phosphatase expression during the early stages of osteogenesis and substantially enhanced mineralization near the midpoint of osteogenesis. Increased cell numbers were observed at late stages of osteogenic culture with this same PEMF exposure. The production of alkaline phosphatase, an early marker of osteogenesis, was significantly enhanced at day 7 when exposed to PEMF treatment in both basal and osteogenic cultures as compared to untreated controls.

Success of PEMF in Fracture Healing


The fact that bone regeneration is stimulated by piezo-electric currents has lead researchers to investigate the use of PEMF in healing fractures. After a fracture it is difficult to stress a bone and incur the piezo-electric current, therefore, pulsed electro-magnetic frequencies have been found to be an effective alternative simulating currents down the length of bone as a response to stress. How effective is PEMF in treating fractures? Consider the results of the studies:

An article published in the September 2003 edition of the American Academy of Orthopaedic Surgeons stated:


Bone Doctors

“Pulsed electromagnetic fields… induce fields through the soft tissue, resulting in low-magnitude voltage and currents at the fracture site. Pulsed electromagnetic fields may be as effective as surgery in managing extremity nonunions… The PEMF signal was developed to induce electrical fields in bone similar in magnitude and time course to the endogenous electrical fields produced in response to strain. These fields are thought to underlie the ability of bone to respond to a changing mechanical environment… results in a time-varying extracellular and intracellular electrical field. 4


Having reviewed a series of studies, the authors relate that “more than 250 published basic research and clinical investigations have evaluated the efficacy of PEMF stimulation.”


Some of the areas identified by the study include delayed fracture healing in large bone of the lower leg (called the tibia).

“a double-blind trial of delayed unions in 45 tibial shaft fractures managed by plaster cast, with active PEMF for a period of 12 weeks. 45% in the active group healed, compared with 12% in the control group.


Curatron the leader in PEMF fracture healing.

Curatron has become established as the leader in Pulsed Electro-Magnetic Field Therapy. Curatron uses pulsed sinusoidal waves with alternating frequencies to ensure cells are constantly stimulated. Sinusoidal waves are pure waves and serve as the “building blocks” for all other periodic wave forms.


Any fracture is prone to infection in the injury area, causing non-unions. Curatron combats these infections by boosting the immune system through stimulating the lymphatic system, increasing oxygenation, and detoxifying. 

The Curatron has the power necessary to penetrate bone, measured in microTesla, and operates at frequencies designed to stimulate the osteoblasts and the bone matrix. In his study on PEMF and fracture healing, Simpson relates that in clinical application the strength of the pulse needs to approach the 1000 gauss range (100,000 microTesla) in order to be effective. He states:


“All the studies quoted in this section of the article are regarding pulsed magnetic fields and NOT static magnetic fields”14


Curatron devices recommended for bone healing operate at between 70,000 microTesla and 160,000 microTesla.

Curatron has a proven track record, effectively stimulating bone and cartilage reproduction. There are no involuntary muscle contractions, and the device can penetrate plaster and plastic casts. 

By charging the cells, therefor increasing the production of ATP, and oxygenation, the Rouleaux Effect is eliminated in the blood, and the necessary minerals and nutrients can be delivered to the healing mechanisms, while toxins and waste by-products of repair are removed, speeding the healing process.



4 Things You Can Do to Help Heal Faster with PEMF


  1. Physical Therapy: A high-quality physical therapy program is an important element in speeding up the healing process and can start early on. Physical activity stimulates the body to help healing.
  2. Avoid smoking and alcohol: Smoking and excessive alcohol consumption can have a negative impact on bone health. In the event of a broken bone, quitting smoking is strongly recommended and limiting alcohol can also help healing, according to the same 2017 study.
  3. Nutrition: According to a 2017 study in the Journal of Osteoporosis, deficiencies in certain nutrients can affect the time it takes a broken bone to heal. Vitamins and minerals including calcium and Vitamin D are essential to bone health. A diet rich in those nutrients, including dairy products, green vegetables, cod liver oil, certain fatty fish and eggs can help boost bone health and speed healing. Protein is also very important in bone development, so be sure you are consuming enough. We offer some of the best Supplements to help with healing.
  4. Last but not least - PEMF can speed the processes along if you are utilizing the above mentioned practices.  The body cannot heal and produce bone faster if it does not have the building blocks necessary to do so.
Best Bone Healing in Reno
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