Sacroiliac Bones and Back Pain

The coccyx is the area of our back that can break easily from backward falls, motorized accidents, etc, since it does not offer us balance. Connected to the coccyx or the smaller bone at the spine base is a fuse of bones that climb up the spine. The bones connect with the sacrum joints at the lower back. The sacrum connects to the hipbone and forms into the pelvis joining the lower region and iliac bones. The iliac bones are larger structures that connect to joints called sacroiliac. The sacroiliac is a fraction of the hip ilium and the joints sandwiched between the sacrum and the ilium.



In this region, millions of people are deformed, since the sacroiliac is often asymmetric. For this reason, millions of people suffer lower back pain. Sacroiliac joints can only move a unit of length equal to one thousandth of a single meter, since the joints are thicker than other joints. The sacroiliac joints give support to the arms, shoulders, trunk, and cranium in all directions. Amazing, since the joints sit low and near the pelvis and sacrum:



The joints often move in direction of the other and provide less mobility than any other joint or muscles that makes up the spine. The forces of gravity that restrain these joints increases the odds of back pain, since these joints will experience overloads of tension caused from the strain that emerges from larger lifts of the lower back and the trunk along the contractions of the upper back region. The joints are restrained also by a group of the most compelling muscles in our body, which these muscles curve over the sacroiliac. Still, the sacroiliac is our support for the cranium, which we can move in all directions because of these joints. As well, the sacroiliac controls the movement of our arms, shoulders, and trunk.



The joints can only move slightly, yet amazing the sacroiliac is our central reason that we run, walk, abruptly halt, and so on. The sacroiliac joints are flexible as well as powerful.


At the lower back, a connection meets in the area of the loins, which makes up the lumbar. The lumbar is the smaller and lower area of the back. This area makes up a small number of bones at the larger spine and sets it self apart from other elements of the back. Beneath these bones are disks. In addition, intricate tissues that connect the bones lay beneath the lumbar giving us support, since it surrounds various parts of the body and organs that consist chiefly of collagen and elastic. The connective tissues also support reticular fibers, cartilages, fatty tissues, etc. The connective tissues however do not have blood vessels or nerves that connect.



At the back are two separate spinal columns that are flanked between the disks. The spinal columns loosely fit between the surfaces of joining parts. In summary, four surfaces join slackly to corresponding spinal columns. The two columns will move smoothly, sliding transversely over the other surface. You can notice these vertebras in action while considering arch aerobics, or similar movements. The lumbar joins with spines at the curvature of the back.



Now, these areas of the spine allow us to twist, turn, move from one side to the other, and bend back or forward. The ribs do not underpin these areas, since it is higher than the lumber. This means that injuries are likely to occur from actions, such as twisting. In fact, the lumbar is holding up more weight than the average bones and joints in the vertebrae, since it must withstand over volumes of stress.



Because the lumbar lacks support from the spine, something has to become the intermediary to support the lumber and that intermediary is known as the cylindrical girdle.

Bones and Back Pain

In the entire body are around 206 skeletal bones, which include the long bones, short, fat, and uneven bones. Inside the bones are red blood cells, (RBC), bone marrow, phosphorus, calcium, and magnesium. Magnesium is silvery white elements of metallic that start from organic compounds and works with calcium to afford support and strength to the muscles, which the bones connect with to defend the internal organs and movement. Calcium is similar to magnesium, yet it is produced from alkaline metals from the earth.


The body’s skeletal muscles give us the support we need to move, stand, walk, sit, and so while supporting the posture. Muscles contract, shorten, and expand. The muscles attach to bones, as well as tendons. Once the muscles begin to contract, it stimulates the muscle fiber, which feeds off the motor neurons. The nerves are made up of extensions of nerve cells, which are thread-like and transmit impulses outwardly from the body of cells. (Axon) The cell bodies are branched extensions of nerve cells (Neurons), which receive electrical signals from other nerves that conduct signals back to the body of cells. This action emerges from dendrites. Dendrites transmit nerve impulses to the main area of the body that when interrupted can cause major problems. We call this large, major system the Central Nerve System. (CNS) Dendrites are also called the tree sometimes, since it stores minerals that crystallizes the system and forms the shape of a tree. The CNS is a network of neurons, or nerve cells that include the muscle fibers. The fibers and nerve cells chain together and consist of cell bodies, dendrites, axon, etc. Messages are conveyed through these neurons, which sensations are transmitted to the brain, thus carrying motor impulses that reach the vital organs and muscles.



We use our muscles and the components combined to move. The skeletal muscles are transmitters also, since these muscles send energy that creates muscle contractions and forms as ATP. The muscles also form as adenosine Triphosphate, ADP (Adenosine Diphosphate Phosphate), and hydrolysis. Hydrolysis is reactions that occur with fluids. Thus, chemical reactions emerge with compound reactions and causes decomposition. In addition, it reacts by producing two or more additional compounds, which may include a combo of glucose and/or minerals, etc.


Adenosine Triphosphate is components of our RNA. The compounds of adenine and organic ribose sugar, which makes up the components of nucleic acid and energy, which is carried via molecules. Ribose has five-carbon sugars, which is discovered in living cells. Its constituents, RNA, plays a vital part in the metabolically structure, since compounds include nucleic acids, riboflavin, and ribonucleotides exist. Riboflavin is necessary for growth and energy. The pigments are made up of orange-yellow crystals, which derive from Vitamin B complex. Riboflavin is vital to particular enzymes also. Riboflavin is sometimes known as Vitamin G and lactoflavin as well.



We achieve tone from our muscles, since they act as retainers. The action causes the muscles to hold back a degree of contractions, which breaks down the transmission of nerve impulses or white crystalline compounds that release from the ends of neuron fiber (Acetylcholine) by use of enzymes known as cholinesterase.





The enzymes of the brain, blood, and heart decomposes acetylcholine, breaking it down into acetic (Vinegary) acids and choline, which suppresses its' stimuli and affects the nerves. The action is sometimes known as acetyl-cholinesterase. Enzymes are proteins, which are complex. The elements produce from the living cells and promote specific biochemical reactions. Enzymes act as catalysts.


Each element outlined makes up the parts of the body that when affected can lead to back pain. For instance, if the muscle tone fails to hold back contractions, and breaking down of nerve impulse transmission at a given time, the muscles are overexerted, which causes back pain.