ライフサイエンスコーパス: lumbar

1 lexors, and enhances the motor output during lumbar afferent-induced locomotor rhythms.

2 indlimb muscle) and functionally dissimilar (lumbar and cardiac) preganglionic neurons.

3 pinal neurons (LAPNs) that inter-connect the lumbar and cervical CPGs disrupts left-right limb coupli

4 s) similar to modern humans, articulation of lumbar and cervical vertebrae indicating pronounced lord

5 netic compensations at joints other than the lumbar and hip contribute to altered trunk dynamics in p

6 4-year-old woman presented with a history of lumbar and perineal pain and painful defecation.

7 MN2-FL) mRNA level increases were highest in lumbar and thoracic spinal cord.

8 tation anomalies and previous surgery in the lumbar area were excluded.

9 tudy is to evaluate the relationship between lumbar back pain, lumbar disc herniation, and erector sp

10 wed significant differences in whole-body or lumbar BMD Z scores between children/adolescents with an

11 of NgR1-Fc (n = 8) delivered via intrathecal lumbar catheter and osmotic minipump for 4 months.

12 erebrospinal fluid collection via indwelling lumbar catheter over 36 to 48 hours before, during, and

13 on whole blood as well as on ventricular and lumbar cerebrospinal fluid (CSF) of pediatric patients t

14 ks can activate and modulate the limb-moving lumbar circuitry, it is important to clarify the functio

15 Thoracic and lumbar Cobb angle were poor predictors of MRI tidal volu

16 Illumination of the lumbar cord in mice expressing eNpHR or Arch in ChAT(+)

17 of potassium-stimulated acute slices of the lumbar cord showed that oxytocin-neurophysin-immunoreact

18 ive neurocircuitry of the dorsal horn of the lumbar cord.

19 NAGLU activity was detected in lumbar CSF and was 15-20% of that in unaffected children

20 rior fossa anomalies, loss of brain neurons; lumbar CSF leakage, hindlimb somatosensory-motor deficit

21 The study included lumbar CSF samples from 82 patients with iNPH, 75 with v

22 imates were highest (0.3-0.8 mGy/MBq) in the lumbar CSF space.

23 life observations of reduced cfmtDNA seen in lumbar CSF translated to the post-mortem ventricular CSF

24 ntraction of one gait cycle in patients with lumbar disc herniation (LDH).

25 were 205 patients in the case group who had lumbar disc herniation between L1-S1 level and there wer

26 In the case group, lumbar disc herniation was detected mostly at L4-5 and L

27 gnoses were 'herniated nucleus pulposus' or 'lumbar disc herniation' or 'back pain' and their age ran

28 e the relationship between lumbar back pain, lumbar disc herniation, and erector spinae and multifidu

29 187 patients in the control group who had no lumbar disc herniation.

30 F and NP cells isolated from non-degenerated lumbar disc.

31 echanical damage to, or degeneration of, the lumbar discs can diminish their structural integrity and

32 atterns of the L5S1 discs, while the rest of lumbar discs exhibit great similarity.

33 tients with chronic back pain diagnosed with lumbar disk degeneration and unresponsive to conservativ

34 f chronic sciatica caused by herniation of a lumbar disk has not been well studied in comparison with

35 rgy CT series for the presence and degree of lumbar disk herniation and spinal nerve root impingement

36 atica that had lasted for 4 to 12 months and lumbar disk herniation at the L4-L5 or L5-S1 level in a

37 786 [92%] vs 665 of 786 [85%]) for detecting lumbar disk herniation compared with standard CT (all co

38 oncalcium (VNCa) images for the detection of lumbar disk herniation compared with standard CT image r

39 tic performance and confidence for depicting lumbar disk herniation compared with standard CT.

40 ica lasting more than 4 months and caused by lumbar disk herniation, microdiskectomy was superior to

41 Results A total of 112 herniated lumbar disks were depicted at MRI.

42 mprising 16 channels, were inserted into the lumbar dorsal horn and peripheral neurons activated elec

43 o be preferentially expressed in C fibers in lumbar dorsal root ganglions.

44 or a combined treatment approach of IVF plus lumbar drains (LDs).

45 The left sixth and seventh lumbar DRG (L6-L7) were instrumented with penetrating an

46 -unit activity from primary afferents in the lumbar DRG using non-penetrating electrode arrays and to

47 el with a reduction in all components in the lumbar DRGs.

48 microelectrode into various locations of the lumbar enlargement of the spinal cord, targeting the ven

49 mulation of NPs was seen in the thoracic and lumbar enlargement regions of the spinal cord, which in

50 e exosuit provided approximately 12-16 Nm of lumbar extension torque.

51 exosuit reduced the rate of fatigue for six lumbar extensor muscles during leaning.

52 g fluoroscopy-guided compared with CT-guided lumbar facet injections (0.46 x 10(-3) mSv +/- 0.93 vs 0

53 tive participant dose for fluoroscopy-guided lumbar facet joint injections was 0.10 mSv +/- 0.11, com

54 = 0.80) between strain changes and amount of lumbar flexion-extension motion compared to L5S1 (R(2) <

55 on adrenoceptor-dependent sacral control of lumbar flexor motoneuron firing in newborn rats.

56 nking adrenoceptor-activated sacral CPGs and lumbar flexor motoneurons, thereby providing novel insig

57 e required for direct rhythmic activation of lumbar flexor motoneurons.

58 echanisms by which sacral circuitry recruits lumbar flexors, and enhances the motor output during lum

59 or (SEG) has been identified in the rat with lumbar galaninergic interneurons playing a pivotal role

60 Unilateral disc puncture of one lumbar intervertebral disc revealed a bilateral behavior

61 sensory neuron changes to a single affected lumbar intervertebral disc.

62 ledge on in vivo mechanical responses of the lumbar intervertebral discs during functional tasks.

63 muscle group III/IV afferent inhibition via lumbar intrathecal fentanyl on peak exercise capacity (

64 tional exhaustion to determine VO2 peak with lumbar intrathecal fentanyl or placebo.

65 tional exhaustion to determine VO2 peak with lumbar intrathecal fentanyl or placebo.

66 ork rate, 4 min each) either with or without lumbar intrathecal fentanyl to attenuate group III/IV af

67 udy was to assess the safety and efficacy of lumbar intrathecal HPbetaCD.

68 delivered into 3-week-old Sh3tc2-/- mice by lumbar intrathecal injection and gene expression was ass

69 he LV-Mpz.GJB1 lentiviral vector by a single lumbar intrathecal injection into 6-month-old Gjb1-null

70 ight male and female Sprague-Dawley rats had lumbar IVD puncture or sham surgery.

71 of the notochord remnants with aging in the lumbar IVDs of BALB/c mice.

72 pulposus and annulus fibrosus regions of all lumbar IVDs were assessed by means of principal frequenc

73 alysis of the morphometry and deformation of lumbar (L2-S1) intervertebral discs in 10 healthy partic

74 lumbar lordosis, interarticulation of lower lumbar (L4-S1) and cervical (C4-T2) vertebrae, and consi

75 Fifth lumbar (L5) nerve injury in rats causes neuropathic pain

76 One-time injection at cervical and lumbar levels just before disease onset in mice expressi

77 f serotonergic reticulospinal innervation at lumbar levels, the propriospinal projection network, neu

78 seal facets that shift from thoracic-like to lumbar-like at the penultimate rib-bearing level, rather

79 ervical excitatory neurons and modulates the lumbar locomotor network independently of the motor cort

80 nts 1 exhibits a pelvic incidence (and hence lumbar lordosis) similar to modern humans, articulation

81 1 using a new pelvic reconstruction to infer lumbar lordosis, interarticulation of lower lumbar (L4-S

82 (NT-3) to lumbar MNs attenuated SCI-induced lumbar MN dendritic atrophy and enabled functional recov

83 We find that residual projections to lumbar MNs are required to produce leg movements after S

84 gradely transported neurotrophin-3 (NT-3) to lumbar MNs attenuated SCI-induced lumbar MN dendritic at

85 clamp electrophysiological recordings in rat lumbar MNs.

86 rons provides a novel way to recruit rostral lumbar motoneurons and modulate the output required to e

87 ents, cervical motoneurons are born prior to lumbar motoneurons, and spinal cord development follows

88 esses occur in cervical motoneurons prior to lumbar motoneurons, correlating with the maturation of p

89 NaP) and KCC2, respectively, in neonatal rat lumbar motoneurons.

90 rrupts descending projections and denervates lumbar motor neurons (MNs).

91 d an increase in axonal reinnervation of the lumbar motor neurons.

92 ir receptor complexes in distinct subsets of lumbar motor neurons: HGF supports hindlimb motor neuron

93 We analyze lumbar motor patterns of intact adult rats and the same

94 Methods In a cross-sectional study, in vivo lumbar MR elastography was performed once in the morning

95 the contraction of transversus abdominis and lumbar multifidus in supine lying using a novel exercise

96 contraction of the transversus abdominis and lumbar multifidus muscles, and regional differences exis

97 , chair stand test, sitting and rising test; lumbar multifidus: timed up and go) as well as trunk mus

98 We measured lumbar muscle activity (via surface electromyography) an

99 tudy provides novel insights into changes in lumbar muscle behavior in individuals with LBP.

100 te (ranging from 26% to 87%) for a subset of lumbar muscles (ranging from one to all six lumbar muscl

101 lumbar muscles (ranging from one to all six lumbar muscles measured).

102 fy the functional organization of sacral and lumbar networks and their linking pathways.

103 ated sacral CPGs to modulate the activity of lumbar networks via sacral VF neurons provides a novel w

104 Locomotor function, mediated by lumbar neural circuitry, is modulated by descending spin

105 bulbar onset 28.7%, cervical onset 33.5% and lumbar onset 37.7%.

106 To investigate correlation between lumbar opening pressure (LOP) and radiological scores ba

107 observed between uRBP/uCr and DXA T scores (lumbar [P = .03], femoral neck [P < .001], and total hip

108 ctrodes (13 x 5) placed bilaterally over the lumbar paraspinal muscles in individuals with and withou

109 Whole volume of the abdominal and lumbar paraspinal muscles was imaged and transversus abd

110 eous rami (dorsolumbar iWAT portion) and the lumbar plexus (inguinal iWAT portion).

111 ng reliable MTR measurements in the proximal lumbar plexus of healthy volunteers using MRN to identif

112 ng reliable MTR measurements in the proximal lumbar plexus, opening up the possibility of studying a

113 profile represents brain injury whereas the lumbar profile represents protein translation and cytoki

114 result demonstrates that axon collaterals of lumbar-projecting RVLM neurons project to, and excite, b

115 condary analyses included risks of traumatic lumbar puncture (>300 x 106 erythrocytes/L after excludi

116 roup was more likely to receive an indicated lumbar puncture (86% vs 32%, p<0.001), and more likely t

117 nfected adult patients undergoing diagnostic lumbar puncture (LP) at a single center between 2011 and

118 uted tomography (CT) scan of the head before lumbar puncture (LP) in adults with community-acquired m

119 Venipuncture and lumbar puncture (LP) were performed.

120 of microglial markers at time of diagnostic lumbar puncture (LP) with different aspects of disease a

121 CNS disease; 25 subjects (35.2%) required >1 lumbar puncture and 8 (11.3%) required ventriculostomies

122 M(+) and 11 M(-) participants who underwent lumbar puncture and compared the findings to PiB-PET and

123 registries to identify persons who underwent lumbar puncture and had cerebrospinal fluid analysis (Ja

124 Patients with CIS underwent a lumbar puncture and magnetic resonance imaging scan with

125 rom 85 patients with gliomas who underwent a lumbar puncture because they showed neurological signs o

126 In CrAg-positive participants, postscreening lumbar puncture before initiating preemptive fluconazole

127 se findings may inform decision-making about lumbar puncture by describing rates in this sample, the

128 al suspicion of severe second-stage disease, lumbar puncture can be avoided and fexinidazole can be g

129 A subset of patients also underwent a lumbar puncture for CSF biomarker analysis.

130 laboratory records from patients receiving a lumbar puncture for evaluation of meningitis.

131 tic needles and conventional needles for any lumbar puncture indication.

132 Success of lumbar puncture on first attempt, failure rate, mean num

133 Incidence of IIH, lumbar puncture opening pressures, and body mass index.

134 Newborns with cCMV and a lumbar puncture performed were included and classified a

135 In children with cerebral malaria who had a lumbar puncture performed, angiopoietin-2 was associated

136 opsychological assessment in parallel with a lumbar puncture to obtain CSF was performed 1.5-7 years

137 ort study, risk of spinal hematoma following lumbar puncture was 0.20% among patients without coagulo

138 Lumbar puncture was performed on 5958 suspected meningit

139 Venipuncture and lumbar puncture were performed.

140 and were taking ART and underwent venous and lumbar puncture with measurement of HIV RNA concentratio

141 INTERPRETATION: Among patients who had lumbar puncture, atraumatic needles were associated with

142 edle gauge, patient position, indication for lumbar puncture, bed rest after puncture, or clinician s

143 In 35 of the patients, lumbar puncture, clinical assessment, and magnetic reson

144 rs Cohort Study (A5321) underwent concurrent lumbar puncture, phlebotomy, and neurocognitive assessme

145 derwent amyloid-beta PET with (18)F-AZD4694, lumbar puncture, structural MRI, and genotyping for APOE

146 Lumbar puncture-related adverse events were observed in

147 hy subjects and NT1 patients was obtained by lumbar puncture.

148 al alternation test (MAT), venipuncture, and lumbar puncture.

149 s a superior option for patients who require lumbar puncture.

150 n proposed to lower complication rates after lumbar puncture.

151 Coagulopathy at the time of lumbar puncture.

152 pathy may deter physicians from performing a lumbar puncture.

153 s selecting relatively low-risk patients for lumbar puncture.

154 negative cerebrospinal fluid CrAg tests from lumbar punctures (LPs) at the time of CrAg screening.

155 Performing cranial imaging prior to lumbar punctures (LPs) in patients with suspected centra

156 Traumatic lumbar punctures occurred more frequently among patients

157 A total of 83 711 individual lumbar punctures were identified among 64 730 persons (5

158 Lumbar punctures were performed and assayed for cerebros

159 Lumbar punctures were performed in GWI, CFS and control

160 All participants underwent 3 lumbar punctures, blood draw, clinical assessment of str

161 cy by actigraphy in the six nights preceding lumbar punctures, was associated with higher tau (r = 0.

162 stigate features of the IGF 11778 pelvis and lumbar region based on torso preparations and supplement

163 dity at the base of the tail with a flexible lumbar region.

164 of morbidity, especially for the "low back" lumbar region.

165 ound examination because of the pain in left lumbar region.

166 This lumbar rhythm depended on continuity of the ventral funi

167 th thoracic vertebra, diminutive thoracic or lumbar rib, os centrale carpi and bipartite scaphoid, tr

168 t of myelination and reduced inflammation in lumbar roots and peripheral nerves at 10 months of age,

169 ull mice, we confirmed expression of Cx32 in lumbar roots and sciatic nerves correctly localized at t

170 ckness, and ratios of demyelinated fibres in lumbar roots and sciatic nerves of treated Sh3tc2-/- mic

171 yc-tagged human SH3TC2 in sciatic nerves and lumbar roots in the perinuclear cytoplasm of a subset of

172 y mammals more readily tolerate intermediate lumbar/sacral vertebrae.

173 ll as Western blot analyses, on cervical and lumbar sections of the spinal cord in patients diagnosed

174 orn of the gray matter, in both cervical and lumbar sections.

175 teers using MRN to identify and segment each lumbar segment (L2-L5) and regions (preganglionic, gangl

176 ganglionic and postganglionic regions in all lumbar segments.

177 eparation and trabecular number of femur and lumbar, serum osteocalcin, total calcium, intact parathy

178 In obese males, the enhanced lumbar SNA (LSNA) responses were associated with reduced

179 Insulin increased lumbar SNA (LSNA) similarly in CON/OR males and females

180 pregnant rats, which exhibited increases in lumbar SNA (LSNA), splanchnic SNA and heart rate (HR) co

181 n-dependent increase in OVLT cell discharge, lumbar SNA and ABP.

182 n (20 nl) of 1.0 m NaCl significantly raised lumbar SNA, adrenal SNA and ABP.

183 Interactions between cervical and lumbar spinal circuits are mediated by long propriospina

184 scular Blockade (NMB) and another undergoing lumbar spinal cord (SC) transection, both serving as con

185 and chemokine-related genes increased in the lumbar spinal cord after RSD, there was no accumulation

186 pro-inflammatory cytokines/chemokines in the lumbar spinal cord and plasma and decreased mast cell de

187 ant increase in motor neuron survival in the lumbar spinal cord as well as a significant decrease in

188 Neural circuitry in the lumbar spinal cord governs two principal features of loc

189 h chronic incomplete cervical, thoracic, and lumbar spinal cord injury were randomly assigned to 10 s

190 ed that, in rats, release of oxytocin in the lumbar spinal cord is not limited to conventional synaps

191 ease in microgliosis and astrogliosis in the lumbar spinal cord of SOD1(G93A) transgenic mice before

192 Lumbar spinal cord PET signal was significantly higher i

193 ect to extrahypothalamic brain areas and the lumbar spinal cord play an important role in the control

194 eract with higher centers and the sacral and lumbar spinal cord to coordinate complex voiding behavio

195 (AAV) throughout the cervical, thoracic and lumbar spinal cord, as well as brain motor centers.

196 f the features of excitatory synapses in the lumbar spinal cord, detailing synaptic diversity that is

197 In lumbar spinal cord, inflammatory signaling is reduced in

198 g IL-1beta, TNF-alpha, CCL2, and TLR4 in the lumbar spinal cord.

199 ersity of excitatory synapses throughout the lumbar spinal cord.

200 1beta, CCR2, and TLR4 mRNA expression in the lumbar spinal cord.

201 d inflammation within the dorsal horn of the lumbar spinal cord.SIGNIFICANCE STATEMENT Mounting evide

202 At the same time, in vitro isolated lumbar spinal cords became hyperreflexive and displayed

203 at about 12-13 or 19 weeks of age, and their lumbar spinal cords were processed for histo- and immuno

204 ical analyses were performed in cervical and lumbar spinal cords.

205 Within the cervical and lumbar spinal enlargements, central pattern generator (C

206 ion Radiation exposure in fluoroscopy-guided lumbar spinal injections was lower for participants and

207 between fluoroscopy-guided versus CT-guided lumbar spinal injections.

208 s improved by MRI imaging which demonstrated lumbar spinal nerve root enhancement and clumping or les

209 Kcc2(E/E) mice also displayed disrupted lumbar spinal neuron locomotor rhythmogenesis and touch-

210 cellularity of the CC lining in reference to lumbar spinal segment L4 during the postnatal developmen

211 f sympathetic premotor neurons projecting to lumbar spinal segments also produced activation of sympa

212 atures, including carpal tunnel syndrome and lumbar spinal stenosis, raise suspicion and may afford a

213 revalence of osteoporosis at baseline at the lumbar spine (LS) and femoral neck (FN) was 17.6% and 7.

214 ears) perinatally infected with HIV with low lumbar spine (LS) BMD (Z score < -1.5) were randomized t

215 otein intake may have a protective effect on lumbar spine (LS) bone mineral density (BMD) compared wi

216 a GWA study of DXA bone area of the hip and lumbar spine (N >= 28,954), we find thirteen independent

217 ary statistics from the GEFOS consortium for lumbar spine (n = 31,800) and femoral neck (n = 32,961)

218 fter ZOL infusion, BMD did not change at the lumbar spine (P = .22) but declined at the hip (P = .04)

219 fter ZOL infusion, BMD did not change at the lumbar spine (p=0.22), but declined at the hip (p=0.04)

220 g/d) had no significant effect on BMD at the lumbar spine (WMD: 0.74%; 95% CI: -0.10%, 1.59%; I2 = 47

221 ensive bone marrow metastases throughout the lumbar spine and a soft tissue mass in the lower sacral

222 With a broad thorax, long lumbar spine and extended hips and knees, as in bipeds,

223 avone therapies for treating BMD loss at the lumbar spine and femoral neck in estrogen-deficient wome

224 nd logistic regression, respectively, at the lumbar spine and femoral neck, stratified by male, preme

225 vely assessed standardized BMD (sBMD) at the lumbar spine and femoral neck, World Health Organization

226 Mean bone mineral density z scores (lumbar spine and femur) remained stable and were maintai

227 -old women with or without low BMD underwent lumbar spine and hip bone densitometry and a complete pe

228 coordinates that assist in targeting of the lumbar spine and instructional videos.

229 al examination, and general knowledge of the lumbar spine and pelvic anatomy relevant to the child in

230 Bone mineral density was measured at lumbar spine and the hip.

231 an increase of bone mineral density in both lumbar spine and total hip sites, with a significant pos

232 Lumbar spine and whole body BMD z-scores remained below

233 microRNA MIR196A2 gene that associates with lumbar spine area (P = 2.3 x 10(-42), beta = -0.090) and

234 l hip (0.029 +/- 0.006 g/cm2, P <0.001), and lumbar spine BMD (0.025 +/- 0.007 g/cm2, P = 0.001).

235 combined OA phenotype (hip and/or knee) and lumbar spine BMD (rg=0.18, P = 2.23 x 10-2), which may b

236 ual-energy x-ray absorptiometry to determine lumbar spine BMD and total-body BMD.

237 Low and very low BMD were defined as lumbar spine BMD and/or total-body BMD z scores of -1 or

238 No differences were observed in change in lumbar spine BMD or lean body mass.

239 At 48 weeks, lumbar spine BMD with ZOL was 11% higher than placebo (n

240 At 48 weeks, lumbar spine BMD with ZOL was 11% higher than placebo (n

241 ineral density (BMD), with femoral neck BMD, lumbar spine BMD, and lumbar spine trabecular bone score

242 Baseline total hip, femoral neck, and lumbar spine BMDs were 1.016 +/- 0.160, 0.941 +/- 0.142,

243 inuation of football after 6 months, hip and lumbar spine bone mineral density (BMD), mental health s

244 Lumbar spine bone mineral density showed a mean increase

245 with cervical, as compared to patients with lumbar spine disease.

246 he dual-energy x-ray absorptiometry scans of lumbar spine in 39 KTR and 77 controls.

247 phic (CT) trabecular texture analysis of the lumbar spine in patients with anorexia nervosa and norma

248 outcomes at 1 day, 1 week, and 1 month after lumbar spine injections.

249 Lumbar spine instability (LSI), or aging, induces spinal

250 th low bone mineral density (BMD) (g/cm(2)), lumbar spine L2-L4 and femoral neck (T-scores) (P = 0.01

251 l hip arthroplasty, hip fracture repair, and lumbar spine surgery.

252 ) and up to one year (Y1) after cervical and lumbar spine surgery.

253 Lumbar spine TBS significantly increased at 6 mo in the

254 with femoral neck BMD, lumbar spine BMD, and lumbar spine trabecular bone score (TBS) as secondary ou

255 X-ray absorptiometry images at the L1 to L4 lumbar spine using TBS software.

256 bone mineral density (BMD) loss at the L2-L4 lumbar spine vertebra (P < 0.05), femoral neck (P < 0.01

257 The patient initially had a CT scan of the lumbar spine which only revealed a protrusion of the L5-

258 posture with correction at the cervical and lumbar spine with the 3D-printed padded collar being wor

259 ased from extension baseline by 16.5% at the lumbar spine, 7.4% at total hip, 7.1% at femoral neck, a

260 reased from FREEDOM baseline by 21.7% at the lumbar spine, 9.2% at total hip, 9.0% at femoral neck, a

261 BMC, or bone area for the total-body radius, lumbar spine, and total hip were observed between subjec

262 spondylodiscitis include: involvement of the lumbar spine, ill-defined paraspinal abnormal contrast e

263 At the lumbar spine, isoflavone treatment was associated with a

264 as well as bone mineral density (BMD) at the lumbar spine, total hip, femoral neck, and one-third rad

265 se and reproducible injection throughout the lumbar spine.

266 RP) on BMD at the forearm, femoral neck, and lumbar spine.

267 by g-ratio analysis within the thoracic and lumbar spine.

268 method in the lower cervical, thoracic, and lumbar spine.

269 or lower at the total hip, femoral neck, or lumbar spine; and a history of fracture.

270 n is thought to be played by a population of lumbar spino-thalamic neurons (LSt), which express galan

271 actions of leptin with respect to increasing lumbar, splanchnic and renal SNA, as well as baroreflex

272 0.33 respectively to differentiate ALS from lumbar spondylosis disease and peripheral neuropathy.

273 ysiological marker to differentiate ALS from lumbar spondylosis disease and peripheral neuropathy.

274 normal controls, 67 disease controls, and 32 lumbar spondylosis disease patients.

275 produced a significantly greater increase in lumbar sympathetic nerve activity (SNA), adrenal SNA and

276 OVLT injection of hypertonic NaCl increases lumbar sympathetic nerve activity, adrenal sympathetic n

277 ficantly reduced arterial blood pressure and lumbar sympathetic nerve discharges in SHRs.

278 ell as cardiac and either hindlimb muscle or lumbar sympathetic nerves.

279 42, and 1.287 +/- 0.246 g/cm2, respectively; lumbar TBS was 1.398 +/- 0.109.

280 g fluoroscopy-guided compared with CT-guided lumbar transforaminal epidural injections (body: 0.42 x

281 tive participant dose for fluoroscopy-guided lumbar transforaminal epidural injections was 0.24 mSv +

282 ique for intraspinal injection targeting the lumbar ventral horn in rodents.

283 Following reimplantation of lumbar ventral roots, timed GDNF-gene therapy enhanced m

284 d to route of administration (ie, cisternal, lumbar, ventricular).

285 tablish reference normative ranges for first lumbar vertebra (L1) trabecular attenuation values acros

286 lysis of CT-scans, at the level of the third lumbar vertebra (L3), to estimate the skeletal muscle in

287 nd higher cancellous bone volume fraction in lumbar vertebra (LV).

288 letal muscle index (muscle area at the third lumbar vertebra divided by squared height).

289 (aorta, liver, spleen, kidney, small bowel, lumbar vertebra, psoas muscle, urinary bladder) as well

290 We aimed to evaluate whether lumbar vertebrae can be correctly numbered using auxilia

291 A total of 210 thoracic and lumbar vertebrae showed compression fractures and were e

292 IGF 11778 anterior inferior iliac spine and lumbar vertebrae structure and identifications.

293 libration phantom and a porcine phantom with lumbar vertebrae were imaged with a dual-energy x-ray ab

294 vity concentration in all visible vertebrae, lumbar vertebrae, and thoracic vertebrae, respectively.

295 here was a predilection towards thoracic and lumbar vertebrae, with L4 being the commonest.

296 res and measure bone density of thoracic and lumbar vertebral bodies on computed tomographic (CT) ima

297 ng novel dynamic radiographic imaging of the lumbar vertebral body motion.

298 Although several complete lumbar vertebral columns are known for early hominins, t

299 The lumbar vertebral level 4/5 IVDs harvested from 15-day-,

300 bral lesions (five cervical, 61 thoracic, 25 lumbar) were present in 55 of the 243 study participants