As is the case for many other subspecialties of medical science, osteology
has developed in tandem with technological progress over the last 100 years
. The discovery of x-rays made visualization of the skeletal system possibl
e. Progress in surgery and hygiene permitted examination and treatment of b
ones in vivo. Optical techniques made it possible to gain insight into the
microarchitecture of the bone.
Chemistry and biochemistry opened the door for pathophysiology and microcel
lular assessment of the bone so that modern osteology deals with interventi
ons in cellular mechanisms, in particular for the treatment of bone disease
s. The realization that the bone represents a dynamic tissue, characterized
by processes of generation and degeneration, was decisive. These events ha
v a profound influence on the treatment of osteoporosis.
Questions pertaining to osteology have been subject to heightened interdisc
iplinary debate in the past few years, which is reflected in interdisciplin
ary associations and cooperative groups, and ultimately the umbrella Societ
y of Osteology. Contemplation of the subject from an interdisciplinary view
point shows what a significant and natural role orthopedics plays in resear
ch on bone metabolism, but also in the treatment of bone diseases. Interdis
ciplinary cooperation aids quality control and is also reflected in the for
mulation of common guidelines for the clinical picture of osteoporosis, whi
ch constitutes a major epidemiological disease.