Last updated on September 6th, 2021 at 05:34 pm.
Which pediatric bone health care tech innovations have you heard about? It is all too easy to ignore bone health. After all, our bones do all of their jobs in the background. When a single bone breaks, though, it becomes a major event. Even in children, bones require time to mend.
Having strong bones as a youngster builds the groundwork for good bone health throughout life. When we are children and teenagers, we develop almost all of our bone density. Around the age of 20, the bone-building process is basically complete. Adults continue to replace old bone with new bone, although at a slower rate. Our bones deteriorate over time.
Children who have strong bones are less likely to have bone weakening leading to osteoporosis later in life. Osteoporosis is a disorder that weakens your bones, increasing the likelihood of fractures. It is more common later in life, particularly in women following menopause.
However, toddlers and teenagers can acquire juvenile osteoporosis. This is most common in youngsters between the ages of 8 and 14. It can appear in early childhood during growth spurts.
It’s a major issue because it occurs while a child’s bone strength is still developing or actively learning skills in sports or theater. By the age of 18 to 20, you have built up roughly 90% of your bone mass. Loss of bone mass during critical bone-building periods can put a person at risk for issues, including fractures. Early detection of bone health issues among children is thus crucial. Fortunately, there are current health care tech innovations that just do that. We list some of them below:
5 Pediatric Bone Health Care Tech Innovations For Early Osteoporosis Diagnosis
A bone density scan is by far the most accurate approach to detect low bone mass early on, yet it must be read carefully in youngsters to provide a definite diagnosis.
Doctors typically identify juvenile osteoporosis when there are indicators that a youngster has a brittle skeleton. This could happen if a child’s bone breaks without any external damage, such as a hard fall or other injuries, and the child has a low bone mineral density score.
A healthcare provider can determine whether bone density testing is necessary after analyzing an individual’s treatment history and risk factors. A bone density scan is usually performed around the age of 18. However, it can be performed sooner if necessary. An assessment of each individual patient determines the time of the test. In some patients, follow-up scans may be required for continuous monitoring of bone density.
DXA scan is a method of determining your child’s bone mineral density. The mineral density of your child’s bones is a reliable sign of their health. Children with GI issues and other medical diseases are more likely to have inadequate bone density. This test can assist establish your child’s bone health and strength.
For most youngsters, this test entails taking an image of the child’s spine and entire body. Experts may take a photograph of another part of your child’s body depending on their needs.
Also known as QCT, this method that uses devices found in most radiology departments can assess actual bone density and differentiate cancellous and cortical bone in the vertebral body. In the context of osteoarthritis, it can measure trabecular bone mass density (BMD).
One significant drawback, though, in using this technology is due to the fact that the radiation exposure (100 to 300 mrem) is higher than that of DXA. Nonetheless, while QCT’s precision and accuracy are relatively lower, it is still within acceptable limits. The cost, which varies greatly, could also be a significant disadvantage.
Given the limitations of DXA, quantitative ultrasound has been recommended as an alternate technique for measuring bone characteristics in children. Quantitative ultrasound has several advantages, including the avoidance of ionizing radiation, cost-effectiveness, and portability. The attenuation of the ultrasonic beam as it travels through a specific region of interest is used to calculate quantitative ultrasound.
The most recent equipment on the market are improved models capable of providing accurate measurements for bone mineral density as well as reflecting the bone quality and strength metrics. Because of the presence of so much soft tissue and muscle at axial sites, quantitative ultrasound can only be used on appendicular bones such as the phalanges, radius, calcaneus, patella, and tibia.
Nonetheless, while it may theoretically be beneficial for bone density evaluation, its genuine clinical utility in children has not been thoroughly addressed, and it remains a research tool.
The lateral spine X-ray is now the most often used imaging tool in children to evaluate vertebral fractures, but radiation exposure is significant. To provide a clearer image of the spine’s curvature, an X-ray can be taken from the front (AP) and side (lateral) positions and right bending and left bending positions. The x-ray technology provides physicians assurance that their initial decision is correct. Height and weight are routinely measured since the more growing the patient has left, the more likely the spinal curve may deteriorate.
During youth and early adulthood, bone creation outpaces bone loss, increasing bones and becoming heavier and thicker. As a person ages, the process of bone loss eventually outpaces the rate of bone production, and bones gradually lose strength as part of the normal aging process. Pediatric bone health care thus is as important as developing primary child learning style. After all, when left unaddressed, bone health issues could contribute to your child’s learning difficulties.
Osteoporosis is a condition characterized by insufficient new bone production or excessive bone loss, resulting in brittle bones. The majority of patients do not experience symptoms, especially in the early stages. Fractures can occur after minor trauma, such as a fall, as bones weaken. Osteoporosis can damage any bone, although the wrist, leg, and hip bones are most affected. Hope now you know about few pediatric bone health care tech innovations.