DEXA T-score Concordance and Discordance Between hip and Lumbar Spine

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Abstract DEXA T-score Concordance and Discordance Between hip and Lumbar Spine Jang-Suk Choi, MD, Ki-Chan An, MD, Chang-Seop Lee, MD Jong-Moon Choi, MD, Joo Yong Kim, MD, Dong-Reol Shin, MD* Department of Orthopaedic Surgery, InJe University Pusan Paik Hospital Department of Orthopaedic Surgery, Boo-Min Hospital, Pusan* O b j e c t i v e: To evaluate the concordance, or discordance, of the osteoporotic diagnosis between femur neck and lumbar spine, using DEXA T-scores and the WHO classification Materials and Methods: The BMD (Define?) on both hips and of the lumbar spine of 718 Korean females were measured The mean age of the subjects was 555 years (31-91) The BMD data were obtained from 3 hip regions and from the lumbar spine, anteroposteriorly, using dual-energy x-ray absorptiometry (Lunar) The BMDs of femur neck and the L2-4 vertebrae were classified into normal (a T-score >-1), osteopenia (-1 T-score < -25) and osteoporosis (-25 T-score) using the WHO definitions Results: There was significant correlation between the femur neck and lumbar BMDs (r=0772) However, the discordance rate was 33% for all the cases, but this was 20% in the subjects below 50 of age, 31% in the subjects in their 50 s, 47% in their 60 s and 42% when 70 or above The discordance rates of the normal, osteopenic and osteoporotic groups were 21, 54 and 17% respectively, with the highest discordance rate in the osteopenia group Among the 649 persons in the normal or osteopenia groups, in relation to the femur neck BMD, there were 67 (103%) in the osteoporotic group with L2-4 BMD But the reverse situation was only 12 persons from 594 (20%) (Eds note: this whole section makes little sense? What were the BMDs? The last sentence is completely meaningless) Conclusions: The discordance rate between the femur neck and lumbar spine was as high as 33%, and was the highest in the osteopenia persons in their 60 s Therefore, in these persons the BMD of both sites should be checked together, but if not, the lumbar BMD should be checked first Key Words: Femur neck, Lumbar, BMD, discordance Address reprint requests to Jang-Seok Choi, MD Department of Orthopaedic Surgery, In-Je University, College of Medicine, Pusan Paik Hospital, 633-165 Gae gum dong, Jin gu, Pusan, 614-735, Korea Tel: 82-51-890-6253 Fax : 82-51-892-6619, E-mail: oschoijs@hotmailcom - 75 -

, 16) X- (Dual-energy X-ray absorptiometry, DEXA) 3% 12 ) 1996 1 1999 1 718,,, 327 3),, 13 15 % ) 31 91 555 50 202, 50 274, 60 176, 70 66 Table 1 The details of concordance and discordance between lumbar and femur neck sites Lumbar 2-4 Femur neck No of pts Classification normal osteoporosis 1 Major discordance osteoporosis normal 3 Major discordance normal osteopenia 81 minor discordance osteopenia normal 76 minor discordance osteopenia osteoporosis 11 minor discordance osteoporosis osteopenia 64 minor discordance normal normal 299 concordance osteopenia osteopenia 125 concordance osteoporosis osteoporosis 57 concordance Table 2 The percents of bone loss compared to normal group The ward triangle is the region showing most prominent bone loss osteopenia(%) osteoporosis(%) L1 842 699 L2 841 672 L3 850 692 L4 853 695 Femur neck 807 642 Trochanter 822 655 Ward triangle 745 522-76 -

DEXA, Lunar DPX-L (Lunar Radiation, Madison, WI),, ward, ) 2-4 WHO (T-score -1), (-1>T-score -25), 9) (T-score<-25), 2-4 (, ) ( m a j o r d i s c o r d a n c e ), (,, ) (minor discordance) SD), wards 0 701 g / c m 2 0170, 0 743 g / c m 2 (0131, 1 0 924 g / c m 2 0164, 2 1 00 g / c m 2 (L1-4) 0184, 3 105g/cm 2 0180, 4 107g/cm 2 0191, 2-4 104g/cm 2 0179 69, 270, 379 2-4 124, 212, 381 T-score (, r=0771, r=0772) 50 T - s c o r e - 1 065 095, 2-4 T - s c o r e 0 143 0 965 T - score (Student t-test, p<005), 50, 60 T-score -1914 0997, 2-4 T-score -2230 1320 T- T-score (Student t- score,, test, p<005)(fig 3) SPSSwin 80, 7 18 236 33 0 % Peterson 3 (04%),, T-score Student 1 t-test p<005 2, 233 (Table 1) (649 ) 67 ( 10 3 %), 0 827 g / c m 2 0 165 ( ( 594 ) 12 Fig 1 The diagnostic discordances of bone loss according to ages It was increased with ages and showed highest values in 60 s Fig 2 The ratio of discordance and concordance according to WHO classification of femur neck site The discordance ratio in osteopenia group is highest - 77 -

Fig3 Scattered plots of BMD, T-scores according to ages checked at lumbar spines (star) and femur neck (circle) (20%) (Table 1) 50 20%(202 41 ), 50 31%(274 83 ), 60 47%(176 82 ) 60 ( p<005), 70 42%(66 26 ) (Fig 1) ( 379 ) 21%(79 ), ( 270 ) 54%(145 ) ( 69 ) 17%(12 ) C a m e r o n S o r e n s o n 5 ) (single photon absorptiometry), (dual photon absorptiometry) X- X- (dual energy X-ray absorptiometry:dexa), DEXA 1) DEXA Kanis 9 ) Grattan 22) 2547 38%, 3% Angela 3 ) (Fig 2) 50 % Ward 745%, 522% (Table 2) 33 %, 50, 50, 60, 70 20%, 31%, 47%, 42%, 60 60 Compson 6) 20, 70 30 40, 16) 55, 50,, 60 65, 75 084 g/cm 2 (098 g/cm 2 ) (093 g/cm 2 ), 15 2 Kanis 9), Fig 3 2~3, - 78 -

10, 50,,,, W H O T - score T-score -1 2, -2 4, -3 8, REFERENCES, Riggs 16) 11) Angela J Feyerabend, MD, James L and Lear, MD: L1-4 Regional variations in Bone Mineral Density as Assessed with Dual-Energy Photon Absorptiometry and Dual X-Ray 90% Absorptiometry Radiology, 186:467-469,1993 WHO Riggs 12) Blake GM and Fogelman I: Interpretation of bone den - sitometry studies Semin Nucl Med, 27:248-60, 1997 Sugimoto 20) 13) Cameron JR, Sorenson J: Measurement of bone mineral (0504g/cm 2 ) (0661g/cm 2 ) in vivo: an improved method Science 142:230-232,1964, 14) Compston JE: Osteoporosis Clin Endocrinol 33:653-682, 1990 15) Douglas OH, Toyokawa S, Masaru U, Takahashi H, Katsumi K: Timing of menopause, reproductive years, and bone mineral density a cross-sectional study of post - menopausal Japanese women Am J of Epid, 148:1055- T-score 50 1061, 1998 16) Kroger H, Tuppurainen M, Honkaneu R: Bone mineral 60 density and risk factors for osteoporosis-a population T-score based study of 1600 perimenopausal women Calif Tissue, int 55:1-7, 1994 17) Kanis JA, Melton LJ, Christiansen C, Johnston CC 17) ward and Khaltaev N: The diagnosis of osteoporosis J bone mineral research, 9:1137-1141,1994 (Table 2) 18) Kao DH, Chen CC and Wang SJ: Normal data for lum - ward bar spine bone mineral content in healthy elderly Chinese influences of sex, age, obesity and ethinicity Nuclear Medicine Communications, 15:916-920,1994 60 19) Koh SK, Cho SH, Hwang YY: Spinal bone mineral den -,, sity of normal and osteoporotic men in Korea Jounal of Korean Medical Science, 7(2) :136-140, 1992 10) Kokai K, Kazuhiro K, Kaoru Y, Shozo O, Tetsuo I: Bone mineral density of the spine in normal Japanese sub - jects using Dual-Energy X-ray Absorptiometry effect of obesity and menopausal status Calcif Tissue, 49:101-106,1991 33 0 % 11) KrogerH, Heikkinen J, Laitinen K, KotaniemiA: 60 Dual-Energy X-ray absorptiometry in normal women:a - 79 -

cross-sectional study of 717 Finnish volunteers Osteo - porosis Int, 2:135-140, 1992 12) Laura K Bachrach, Trevor Hastie, May-Choo Wang, Balasubramanian Narasimhan, and Robert Marcus: Bone Mineral acquisition in healthy Asian, Hispanic, Black, and Caucasian youth a longitudinal study The J Clinical Endocrinology & Metabolism, 84(12) :4702-4712, 1999 13) Lee SJ, Koo JW, Suh JS, An JC: Measure of Bone Min - eral Density for Korean Adult with Dual Energy X-ray Absortiometry J Korean Bone Metabolism1(2):201-208, 1994 14) Meltzer M, Lesing HJ, Siegel JA: Bone mineral density and fracture in postmenopausal women Calcif Tissue Int 45(3):142-5, 1989 15) Moon WN, Oh HJ, Suh SW: Differences in Bone Mineral Density by using Different Densitometers or by Measuring Different Sites of Spine in Osteoporotic Vertebral Frac - tures J Korean Orthop Assoc 34(6):1153-1157, 1999 16) Riggs GL, Wahner HW, Seeman E: Change in bone mineral density of the proximal femur and spine with aging : Difference between the postmenopausal and senile osteoporosis syndrome J clin invest 70:716-723, 1982 17) Rowe SM, Jung ST and LeeJY: Epidemiology of Osteo - porosis in Korea Osteoporos Int, 7(s3):S88-S90, 1997 18) Saburo Ide, Yoshio Hirota, Takao Hotokebuchi, Shinichiro Takasugi, Yoichi Sugioka and Hitomi Hayabuchi: Osteoporosis and years since menopause European jour - nal of Epidemiology, 15:739-745, 1999 19) Toshitsugu Sugimoto, Masaharu Tsutsumi, Yoshio Fjujh, Mitsuru Kawakatsu, Hirokuni Negishi, Lee MC, Keh-Ssung Tsai, Masaaki Fukase, and Takuo Fujita: Comparison of bone mineral content among Japanese, Koreans, and Taiwanese assessed by Dual-Photon Absorptiometry J Bone and Mineral Research 7(2):153-159, 1992 20) TSugimoto, YKanbara, HShirashi, MKawakatsu: Femoral and spinal bone mineral density in Japanese osteoporosis with hip fracture Osteoporosis Int 4:144-148,1994 21) Wood AJJ: Treatment of Postmenopausal osteoporosis New England J Medicine, 338:736-746, 1998 22) Grattan C Woodson: DXA T-Score concordance and discordance between the PA spine and total hip sites Am Society Bone Min Res abstract book, 1999-80 -

: : 718 31 91 555 DEXA (Lunar) 2-4 WHO (T-score >-1), (- 1 T-score<-25), (- 2 5 T - s c o r e ) : 69, 270, 379, 2-4 123, 212, 381 T-score (r=0771, r=0772) 60 2-4 T - s c o r e T - s c o r e 330%, 50 20%, 50 31%, 60 47% ( p<005), 70 42% 21%, 54% 17% (649 ) 67 (103%), (594 ) 12 (20%) : 330%, 60 60,, :,,, - 81 -