Effects of Khaya grandifoliola on red blood cells and bone mineral content in rats.

Results were expressed as the ratio of bone mineral content to bone width in g/cm.

Despite DXA technology's problems with estimating volume, it is still a fairly accurate measure of bone mineral content.

Soy isoflavones: no effects on bone mineral content and bone mineral density in healthy, menstruating young adult women after one year.

Beneficial effect of soy isoflavones on bone mineral content was modified by years since menopause, body weight, and calcium intake: a double-blind, randomized, controlled trial.

Both displayed decreased grip strength while the males also had decreased body weight, length, bone mineral content and atypical peripheral blood lymphocyte counts.

Figure 1 shows the cumulative absolute changes in bone mineral content/bone width and bone mineral density after ranking each patient by age.

Homozygous mutant females had decreased bone mineral content, heart weight, lean body mass and CD8-positive, alpha-beta memory T cell number.

The remaining tests were carried out on heterozygous mutant adult mice; an increased bone mineral content was observed in these animals using Micro-CT.

Homozygous mutant animals had a decreased body weight, grip strength and bone mineral content; a kinked tail, abnormal indirect calorimetry and femur/tibia morphology.

The beneficial role of vitamin K in children was confirmed by van Summeren et al. that revealed a strong positive association between vitamin K status and bone mineral content.

The results of the experiment indicated that K. grandifoliola had a positive effect on red blood cell production (erythropoeisis) and no real effect on bone mineral contents at therapeutic doses.

Homozygous mutant animals had a decreased body weight, altered body composition, abnormal tooth morphology, hypoalbuminemia, decreased bone mineral content and strength, and an increased susceptibility to bacterial infection.

Tranquilli AL, Lucino E, Garzetti GG, Romanini C. Calcium, phosphorus and magnesium intakes correlate with bone mineral content in postmenopausal women.

In DXA, bone mineral content (measured as the attenuation of the X-ray by the bones being scanned) is divided by the area (also measured by the machine) of the site being scanned.

Moreover, a study performed by Knapen et al. clearly demonstrated that vitamin K2 is essential for the maintenance of bone strength in postmenopausal women, and was the factor for improving bone mineral content and femoral neck width.

Radial bone mineral content was measured at the junction of the distal third and proximal two thirds of the left radius, a site where bone is predominantly cortical, with a single photon absorptiometer based on the design of Cameron and Sorenson.

Therewas no significant correlation between the baseline values of bone mineral content/bone width or bone mineral density and the subsequent changes in bone mineral or between the rates of change of spinal and radial bone mineral density.

DXA BMD results adjusted in this manner are referred to as the bone mineral apparent density (BMAD) and are a ratio of the bone mineral content versus a cuboidal estimation of the volume of bone.