戻る
「早戻しボタン」を押すと検索画面に戻ります。

今後説明を表示しない

[OK]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 n of the pelvic girdle and retraction of the femur.
2 cancer cells in the medullary channel of the femur.
3 sing geometrical deformities of the proximal femur.
4 ity was observed in the P3 MSC sheet-grafted femur.
5 ADSCs in an osteochondral defect of the left femur.
6 re associated with the shape of the proximal femur.
7 asal level at 4 wk in nonirradiated proximal femur.
8 , but no recovery was observed in the distal femur.
9 lytic and sclerotic lesions in vertebrae and femur.
10 trabecular bone volume in both the tibia and femur.
11 ute to pupal expression of Ubx in the second femur.
12 in pelvic girdles and small rudiments of the femur.
13 n several vertebras and in the proximal left femur.
14 mparable SUV in the prominent lesions in the femur.
15 tric collectives were found in the lungs and femur.
16 T12, L5, sacrum, right iliac bone, and right femur.
17  process at the anteriodistal surface of the femur.
18  right iliac bone, and 3.90+/-1.57 for right femur.
19 th-like trunk, shoulder, pelvis and proximal femur.
20 ng was enhanced in Dmp1-Cre(+/-);Rosa(Notch) femurs.
21       Twenty normal femurs served as control femurs.
22 lants were inserted in the distal end of the femurs.
23 bitors in bone tissues harvested from rabbit femurs.
24  95% CI, 0.90-0.91 g/cm2; P = .08) and total femur (0.94 g/cm2; 95% CI, 0.90-0.99 g/cm2 vs 0.99 g/cm2
25  0.71, P = .008, respectively), right medial femur (0.94 vs 0.72, P = .046), and right lateral tibia
26 teophyte detection in left and right lateral femur (0.96 vs 0.75, P = .025, and 1.00 vs 0.71, P = .00
27 ses were as follows: spine (-2.08%, -1.99%), femur (-1.43%, -1.38%), neck (-2.56%, -2.51%), and whole
28     Most frequent anatomic sites were distal femur (21%, 21 of 101), proximal tibia (17%, 17 of 101),
29 curring in the subtrochanteric or diaphyseal femur, a combined rate of 2.3 per 10,000 patient-years.
30 n errors of -14% and -23% in bone marrow and femur-adjacent VOIs can affect PET quantification in the
31 4% +/- 5% and -23% +/- 6% in bone marrow and femur-adjacent VOIs with physiologic uptake for SEGbase,
32 s and reduced interpatient bias variation in femur-adjacent VOIs.
33 etric analyses at secondary spongiosa of the femur and at metaphysis of the L4 vertebra confirmed tha
34 del was built from a CT scan of a real human femur and compared to the simplified femur model.
35 ranching in ways that differ in the proximal femur and distal tibia, based on motoneuronal birth orde
36 om 21 to 27 wk was associated with increased femur and humerus lengths at 28 wk.Maternal weight gain
37 gnificantly positively associated with fetal femur and humerus z scores (P < 0.01).
38                                        Fetal femur and humerus z scores and neonatal birth length wer
39 , maternal 25(OH)D was associated with fetal femur and humerus z scores only when maternal calcium in
40 ed up to 3 times across gestation, and fetal femur and humerus z scores were generated.
41 ity and microarchitecture in weight bearing (femur and humerus) and non-weight bearing (2(nd) lumbar
42  The columns were tested in an excised mouse femur and implanted in the femur of a living mouse.
43 abecular separation and trabecular number of femur and lumbar, serum osteocalcin, total calcium, inta
44 SCs) in an osteochondral defect of the right femur and mitomycin-pretreated apoptotic ADSCs in an ost
45                                          The femur and pelvis of Ardipithecus ramidus have characters
46 imaging (DTI) and tractography in the distal femur and proximal tibia related to age, sex, and height
47 iphery of the physis, and between the distal femur and proximal tibia.
48 tures with improved outcomes in the proximal femur and shaft.
49  level, parathyroid hormone (PTH) level, and femur and spine BMD T scores were compared before and 1
50 Exd are required for dAP-2 expression in the femur and that a conserved Exd/Hox binding site is essen
51  (CGRP) in both the peripheral cortex of the femur and the ipsilateral dorsal root ganglia (DRG).
52 s were injected into bone marrow of the left femur and the mammary pad.
53 bone mass phenotype (LBM) in both the distal femur and the vertebra of Krox20(+/-) mice.
54 ter in overall body length as well as in the femur and tibia lengths.
55 e in anteroposterior bending strength of the femur and tibia occurs beginning in the Neolithic ( appr
56                          BMSCs isolated from femur and tibia of Sprague-Dawley rats were seeded onto
57 ns of tibiofemoral joint (medial and lateral femur and tibia) was recorded.
58                         In the physis of the femur and tibia, a significant age-related decrease was
59                     BMCs were harvested from femur and tibia, and the expression of surface markers o
60 in showed significant strengthening in their femur and tibia, as measured by maximum force sustained
61 s foot is exceptionally long relative to the femur and tibia, proportions never before documented in
62 ns and prevented mechanical weakening of the femur and tibia.
63 ology analyses of bone showed destruction of femur and tibia.
64 e prediction of failure load of the proximal femur and to identify the best densitometric or geometri
65 y the deforming effect of OA on the proximal femur and to identify, at an earlier stage of disease, t
66 and migration of other bristles on the third femur and to repress trichomes.
67 separation (Tb.Sp) in trabecular bone of the femur and vertebra.
68 res in childhood, including fractures of her femur and wrist; fractured her ankles several times in h
69 e sialoprotein (BSP) and osteonectin in both femurs and bone marrow osteoblastic cells of mice.
70 omputed tomography (microCT) analyses of the femurs and lumbar vertebrae revealed delayed or incomple
71  mineral density and bone mineral content in femurs and lumbar vertebrae when compared with the wild-
72 in the articular cartilage of ex vivo rabbit femurs and thus greater imaging sensitivity.
73 2 was also expressed at higher levels in the femurs and tibias of Aldh1a1(-/-) mice with accompanying
74 mia lose cortical and trabecular bone in the femurs and vertebrae (bone mineral density was decreased
75 strength, and the loss of trabecular bone in femurs and vertebrae following Folfiri administration.
76                 In the stylopod (humerus and femur) and sternum, bone marrow MSCs express other regio
77 t were placed in the physis of the tibia and femur, and in the epiphyseal and articular cartilage of
78 (BMD) of the femoral neck, trochanter, total femur, and lumbar spine (L2-L4) were measured by using d
79                The whole joint (i.e., tibia, femur, and patella) 3-D bone shape vector had the strong
80 atherlike structures around the humerus, the femur, and the tibia.
81 d crossbite, straightening of the tibias and femurs, and correction of the growth-plate defect.
82 f the principal nutrient artery (PNA) of the femur are associated with changes in trabecular bone vol
83  their developmental time, size (length of a femur as a proxy) and resistance to starvation without a
84                                 Its proximal femur, BAR 1002'00, was originally described as being ve
85 owest decile of growth velocity of the fetal femur between 20 and 28 weeks was associated with increa
86                        Following euthanasia, femur biomechanics were assessed by 3-point bending and
87                                              Femur BMD improved in 18.8% of medically treated patient
88              Pelvic radiographs and proximal femur BMD measurements were obtained in 53 women aged 79
89 ed with significant improvement in spine and femur BMD, suggesting that the superior effects of surge
90                                              Femur bone density was unchanged in mice heterozygous fo
91 transfection following a single treatment of femur bone marrow isolated rat MSCs with efficiencies fo
92                  CRB-15 also delayed loss of femur bone mineral density and trabecular microarchitect
93 was greater than 20% (FRAX), quantitative CT femur bone strength was less than 3000 N, or occurrence
94 sulted in lower cortical bone accrual in the femur but had no effect on cortical bone in the humerus
95 are required for Ubx expression in the third femur, but that they do not contribute to pupal expressi
96 wing an increase in the irradiated BM of the femurs, but not the tibias, of HBS animals when compared
97     Later, the patella is separated from the femur by a joint formation process that is regulated by
98 dially reformatted MR images of the proximal femur by two independent readers.
99 nsity (BMD) of the lumbar spine and proximal femur (by DXA), liver function, and bone markers were me
100                 Regional BMD of the proximal femur can be determined in vitro from quantitative CT da
101 at chondroitin sulfation across the proximal femur cartilage varied dramatically in dtd, but not in t
102 r changes in bone mineral composition in the femur compared to respective controls.
103 wer DXA measurements of the lumbar spine and femur compared with nonusers.
104 atible plate surgically fixated to the mouse femur containing a gradient refractive index lens.
105 3, increased approximately 50% at the distal femur cortical bone region but not at trabecular bone re
106 ginate hydrogel carrying PRP was tested on a femur defect model ex vivo.
107                    Mechanical testing of the femurs demonstrated that loss of bone in the mice with h
108               We show that the O. tugenensis femur differs from those of apes and Homo and most stron
109  hominins) and reconstruct hominoid proximal femur evolution using squared-change parsimony.
110                                          The femur failure load (FL) was determined by using a mechan
111  association between stimulant use and total femur, femoral neck, and lumbar spine bone mineral conte
112 tcomes included lumbar spine, total proximal femur, femoral neck, and whole-body BMD.
113 otion (ROM) using a novel computer navigated femur first approach to conventional THA.
114                            Navigation guided femur first THA is able to improve alignment of ROM axis
115 s and underwent ultrasonography to determine femur (FLZ) and humerus (HLZ) length z scores.
116 verse sequences over the proximal and distal femur for antetorsion measurement.
117 g respective bone matrices in osteotomies on femurs for 14 and 28 days and evaluated by microcomputed
118 ne marrow neuropathy was studied by staining femurs for tyrosine hydroxylase (TH) and neurofilament 2
119          Intramedullary stabilization of the femur fracture can affect the outcome in patients with m
120 from normal hip cartilage donated by neck of femur fracture patients.
121 taining intramedullary nail that facilitates femur fracture repair in rats with ovariectomy-induced o
122 e an update on surgical methods of pediatric femur fracture treatment.
123                                    Series 1: femur fracture was induced in anesthetized rats, followe
124 ur fracture, or laparotomy with cecetomy and femur fracture with muscle tissue damage (polytrauma).
125 emorrhage and hemorrhage with laparotomy and femur fracture, induced a loss of circulating CD4(+) T c
126 -hemorrhage), hemorrhage with laparotomy and femur fracture, or laparotomy with cecetomy and femur fr
127 bisphosphonate use: atypical subtrochanteric femur fracture.
128 ,752 patients with incident diagnoses of hip/femur fractures (cases), 130,471 matched members without
129           We reviewed 284 records for hip or femur fractures among 14,195 women in these trials.
130                                    Pediatric femur fractures can be successfully treated by a number
131        Osteonecrosis of the jaw and atypical femur fractures have been reported with treatment but ar
132 s other regionally restricted Hox genes, and femur fractures heal normally in Hox11 mutants.
133 adiographs (when available) from all hip and femur fractures to identify those below the lesser troch
134 hyseal flare (subtrochanteric and diaphyseal femur fractures) and to assess atypical features.
135 ist fractures to 8 days (IQR, 5-12 days) for femur fractures.
136  were highest for vertebral, pelvis/hip, and femur fractures.
137 with elastic nail stabilization of pediatric femur fractures.
138                   Pigs underwent polytrauma (femur fractures/lung contusion, P), hemorrhage (mean art
139 nical testing, with random assignment of one femur from each pair to the single-limb stance configura
140 e we report the complete mtDNA of an archaic femur from the Hohlenstein-Stadel (HST) cave in southwes
141  lower bone turnover rates, and advantageous femur geometry.
142 at the lumbar spine, femoral neck, and total femur (grams per square centimeters).
143  testing confirmed that P3 MSC sheet-grafted femurs had the highest biomechanical strength in the thr
144                    Avascular necrosis of the femur head (AVNFH) is a debilitating disease caused due
145                    Previous studies on mouse femur, however, have demonstrated a spatial gradient for
146 rter imaging in hematopoietic niches such as femurs, humeri, vertebrae, and the thymus.
147  Spoiled gradient-echo in vivo images of the femur, humerus, upper spine, and lower spine were acquir
148 nd microarchitecture in the lumbar spine and femur in F508del mice.
149 g ultrapure magnesium into the intact distal femur in rats.
150 ations were seen at the trochanter and total femur in women.
151  behavior and bone structure in the proximal femur, indicating that more highly mobile human populati
152 auma to the head, right chest, and bilateral femurs (Injury Severity Score = 27-41) with captive bolt
153 ats declines were higher than pancreatic and femur intermuscular fats (1% to 2%) loss.
154 rogenitor cells previously measured in mouse femur is also present within human cancellous bone.
155  conclude, slow growth velocity of the fetal femur is associated with an increased risk of sPTB.
156 f 20 kV for the following examinations: hip (femur), knee, ankle, and computed tomographic (CT) angio
157 more evenly distributed among motions of the femur, knee, and ankle.
158 before week 12 showed reduced growth only in femur length (-5.5; 95% CI: -10.1, -0.9).
159 mference (AC), estimated fetal weight (EFW), femur length (FL), and biparietal diameter (BPD) during
160 er, humerus length, abdominal circumference, femur length and its ratio with head circumference and w
161 cental VDR was a positive predictor of fetal femur length Z score (P=0.018; R(2)=0.06) and was positi
162 nfirm initially observed loci for one trait (femur length), and, when the two groups were merged, the
163                         Biparietal diameter, femur length, abdominal circumference, and estimated fet
164  growth characteristics (head circumference, femur length, abdominal circumference, and weight) were
165 occlusion, 10% lower body weight, 3% reduced femur length, and 30% elevated serum alkaline phosphatas
166 head circumference, abdominal circumference, femur length, and biparietal diameter are negatively ass
167                The reduction was greatest in femur length, at -9.4% (95% confidence interval -13.4, -
168 ormal by radiography, with no differences in femur length, cortical/trabecular structure or mineral d
169 ontal diameter, abdominal circumference, and femur length--were obtained every 5 weeks (within 1 week
170 ine) were linear for biparietal diameter and femur length.
171 eatments resulted in significantly increased femur length.
172 (0.8), 0.03 mm (0.8), and -0.65 mm (0.8) for femur length.
173 e, with midfemur girth increasing 1,200% and femur mass increasing 380% in 9-week-old mice.
174       A total of 40 pairs of excised cadaver femurs (mean patient age at time of death, 82 years +/-
175 ontrol animals in lumbar vertebra and distal femur metaphysis and epiphysis; significant differences
176  loss (compared to baseline controls) in the femur metaphysis was associated with lower trabecular nu
177 spatial-resolution 3-T MR images of proximal femur microarchitecture can allow detection of lower ela
178                           Images of proximal femur microarchitecture were obtained by using a high-sp
179 aria as well as osteoblasts in vitro and the femur microenvironment in vivo.
180 l human femur and compared to the simplified femur model.
181 n those with an acid-etched surface in a rat femur model.
182 to obtain critical stresses within the human femur model.
183               Geometrically simplified human femur models with different curvatures were developed an
184         Primary tumor locations included the femur (n = 17; 50%), tibia (n = 9; 26%), and humerus (n
185 us (n = 7), proximal tibia (n = 4), proximal femur (n = 3), and distal femur (n = 3).
186  (n = 4), proximal femur (n = 3), and distal femur (n = 3).
187 or patients with fracture to the neck of the femur (NOF) was assessed using a low-density array.
188                          Studies to repair a femur non-union fracture demonstrate only osteogenic pro
189 significant changes in shape of the proximal femur occurred within the OA group from baseline to foll
190  an excised mouse femur and implanted in the femur of a living mouse.
191  lesion was constructed and implanted in the femur of a living mouse.
192 ticular cartilage defect (n = 5 each) on the femur of a nude rat, and the quality of the repaired tis
193 d structures observed around the humerus and femur of Kulindadromeus are support fibers associated wi
194 al endothelial cells respectively inside the femur of mice bearing early, middle and late stage metas
195 cise reduced progression of OA in the medial femur of obese mice.
196 ay a portion of trichome-free cuticle on the femur of the second leg called the "naked valley." It wa
197  metres long), likely including the holotype femur of Timimus hermani, and a single cervical vertebra
198 s simulating the CML were produced in distal femurs of 20 deceased fetal pigs.
199 ion of ephrinB1 and EphB1, as well as B3, in femurs of adult mice injected with alendronate (10 micro
200 lysis was performed using RNA extracted from femurs of COP, DA, F344 and LEW rats.
201 e distal and proximal ablations in the right femurs of eight pigs.
202 ortical thickness and sub-periosteal area in femurs of HMWKO.
203 sing to bone forming upon injection into the femurs of immunodeficient mice.
204 anium Kirshner-wire was surgically placed in femurs of LysEGFP mice, which possess EGFP-fluorescent n
205 cations of megakaryocyte accumulation in the femurs of mice after injection of metastatic or non-meta
206 rentiation, were reduced dramatically in the femurs of Myoc-null mice compared with wild-type mice.
207           We also inserted implants into the femurs of our established transgenic mice after local ad
208 lines, whereas RUNX2 levels were elevated in femurs of Wwox-deficient mice.
209                           pQCT evaluation of femurs of young adult male progeny of three lines showed
210 s: trial group; location of tumour (proximal femur or proximal humerus vs other limb vs axial skeleto
211 years of age with isolated fractured neck of femur or pubic ramus fracture were excluded.
212 atric patients (</=18 years) the pattern was femur (OR, 20.6; 95% CI, 8.4-48.1), humerus, then verteb
213 nd to influence new bone formation in a 3 mm femur osteoporotic defect model in ovariectomized rats.
214 aling, 12-week-old C57BL/6J mice underwent a femur osteotomy.
215 terns of tractography varied with age in the femur (P < .001) and tibia (P < .001).
216 aBMD at the femoral neck (P = .05) and total femur (P < .05) but no differences at other sites.
217  significantly larger than that of the right femur (P = .01 for reader 1, P = .02 for reader 2).
218 s associated with significant improvement in femur (P = 0.03) and spine BMD (P < 0.001).
219 tment effect for spine (P = 0.46, P = 0.21), femur (P = 0.86, P = 0.46), neck (P = 0.17, P = 0.14), o
220 pine (P=0.012), femoral neck (P=0.02), total femur (P=0.003), and intertrochanter (P=0.005).
221 icient (P < .001 for both), axial diffusion (femur, P = .001; tibia, P < .001), and transverse diffus
222 physes were longer than those in the center (femur, P = .005; tibia, P = .004).
223 s significantly lower than sham (P = 0.0001, femurs; P < 0.0001, tibias) and returned to sham levels
224 turned to sham levels by day 10 (P = 0.6344, femurs; P = 0.3962, tibias).
225  animals when compared with 1LS (P = 0.0310, femurs; P = 0.5832, tibias).
226           The number of MSCs in the proximal femur quickly recovered, but no recovery was observed in
227 alyzed an enhancer specific for the proximal femur region which corresponds to the distal-most expres
228 us than did control subjects in all proximal femur regions (femoral head, 8.51-8.73 GPa vs 9.32-9.67
229 e mineral density z scores (lumbar spine and femur) remained stable and were maintained in the health
230 e tail limits pelvic rotation, which reduces femur retraction and decreases step length.
231        Micro-computed tomography analysis of femurs revealed increased trabecular bone volume, thickn
232         Microcomputed tomography of infected femurs revealed that S. aureus triggers profound alterat
233 al terms: humerus, handplate, fibula, tibia, femur, ribs, petrous part, scapula and head mesenchyme.
234  to 3000 muepsilon) to fluorescently stained femur samples from normal and ovariectomized rats.
235                                Twenty normal femurs served as control femurs.
236 ible to provide a seven-day fracture neck of femur service with no variation in thirty-day mortality
237       We prospectively studied patients with femur shaft fracture with RLS evaluation, daily transcra
238 action between the rs288326 SNP and proximal femur shape (SSM mode 2) in predicting radiographic hip
239 SNP alters the relationship between proximal femur shape and incident radiographic hip OA.
240 iation with increasing quartiles of proximal femur shape mode 2 (for the fourth quartile of mode 2, o
241   Micro-computed tomography of A(2A)KO mouse femurs showed a significantly decreased bone volume/trab
242                                      A(2A)KO femurs showed an increased TRAP-positive osteoclast.
243 , microcomputed tomography analysis of adult femurs showed lower bone density in A2BAR KO mice as com
244               Electron microscopy in A(2A)KO femurs showed marked osteoclast membrane folding and inc
245                    In vivo assessment in rat femurs shows the screws to be self-tapping, remain fixed
246 men, similar associations were seen at the 3 femur sites.
247  and DXA scans were acquired in 178 proximal femur specimens harvested from human cadavers (91 women,
248 re associated with the shape of the proximal femur (SSM mode 2).
249 ter- and intraoperator analyses for proximal femur stiffness, yield strain, yield load, ultimate stra
250 54 harbors quantitative trait loci (QTL) for femur strength in COPxDA and F344xLEW F2 rats.
251 ed based on the strength of correlation with femur strength in F2 animals derived from these rats.
252                    MR assessment of proximal femur strength may provide information about bone qualit
253 L region that contribute to the variation in femur strength.
254 d to be strongly correlated (r(2)>0.50) with femur strength.
255 of trichome patterns on the posterior second femur (T2p) of Drosophila species.
256         Meanwhile, CLA significantly reduced femur tartrate resistant acid phosphatase (TRAP) activit
257 centration and bone mineral density at total femur (TFBMD), femoral neck (FNBMD), lumbar spine (LSBMD
258 ozygous mutants were smaller and had shorter femurs than controls; and at 1 month of age they exhibit
259  affecting sites such as the subtrochanteric femur that are infrequently affected by osteoporotic fra
260 dicals diffuse ipsilaterally to the proximal femur through bone medullary canal.
261 ned the weight, length, and strength of egg, femur, tibia, and keel.
262  performed active appearance modeling of the femur, tibia, and patella and linear discriminant analys
263 e mice, infectious virus was detected in the femur, tibia, patella, and foot, together with reduced b
264                              On average, the femur-tibia angle was 3.4 degrees more valgus (3.0 degre
265                                          The femur-tibia angle, corrected for mean offset, was sensit
266                                   Use of the femur-tibia angle, corrected for offset, should be consi
267 passes different joints (coxa-trochanter and femur-tibia), and in this species we also show that nub
268 profiling of osteoblasts from mandibular and femur/tibia bone marrow revealed deficiencies in several
269 ed them with donor-matched, mesoderm-derived femur/tibia HSCs, including clonogenic assay and long-te
270  growth plate of recipient mouse limb bones (femur/tibia) in vivo.
271 irradiated the distal half of the mouse left femur to study the mechanism of irradiation-induced bone
272  configuration) and assignment of the paired femur to the sideways fall configuration (hereafter, sid
273                                     Proximal femur trabecular bone structure was quantified from micr
274  damage were determined in the corresponding femurs using microfocal computed tomography and the Mank
275 erformed to assess the shape of the proximal femur, using 10 independent modes of shape variation gen
276  the greater trochanter of the left proximal femur was exposed and the intraosseous space was cannula
277 consequently, the mechanical strength of the femur was significantly increased.
278 r both readers), and antetorsion of the left femur was significantly larger than that of the right fe
279 ction matching ecogeographic hypotheses, the femur was subject to little or no directional selection
280  an active shape model (ASM) of the proximal femur was used to determine whether morphologic changes
281 racture of the subtrochanteric or diaphyseal femur was very rare, even among women who had been treat
282 , prostate cancer cell trafficking to murine femurs was dependent on E-selectin ligand, beta1 integri
283 mplantation of mammary MRMT-1 cells in a rat femur, we performed minimally invasive imaging procedure
284  located muscles that retract and rotate the femur, we show with path analysis that locomotion is alt
285 he posteroanterior lumbar spine and proximal femur were measured by dual-energy x-ray absorptiometry.
286 e location: scaphoid, tibia plus fibula, and femur were most likely to be nonunion.
287 ptake values (SUVs) (SUVs of iliac bones and femurs were 0.26 and 0.3 at 1 h and 0.22 and 0.4 at 2 h,
288                                              Femurs were evaluated using micro-computed tomography, h
289                                       The 80 femurs were fractured via mechanical testing, with rando
290 asma and BM mononuclear cells from bilateral femurs were harvested.
291                                              Femurs were imaged with a standard single-side-read 100-
292                                In this study femurs were isolated from genetically double-labeled mBS
293  images, the outer bone volume of the distal femurs were measured using a semi-automated contour base
294                  In this study, mature mouse femurs were plastic-embedded and longitudinal sections w
295 ristle row on the posterior second and third femurs, whereas higher levels of expression are required
296                            The short, robust femur with hypertrophied flexor attachment and the low,
297 assess the compressive failure load of human femur with simulated lytic defects.
298 est the proposed method, ten human cadaveric femurs with and without simulated defects were mechanica
299 ium micro-implants were inserted into murine femurs with low and high IT using torque values that wer
300     Calcium intake was associated with fetal femur z scores and birth length only when maternal 25(OH

WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。
 
Page Top