ライフサイエンスコーパス: prosthetic

1 ntal to the development of a visual cortical prosthetic.

2 al to the design of effective auditory brain prosthetics.

3 ides a new logic for enhanced-acuity retinal prosthetics.

4 icable for bridging injured sites and active prosthetics.

5 a key determinant of the success of cochlear prosthetics.

6 hophysical vestibular testing and vestibular prosthetics.

7 o maximize patient susceptibility to sensory prosthetics.

8 applicability and ease of operation of motor prosthetics.

9 ctrical stimulation in the context of visual prosthetics.

10 several new topics in the arena of cortical prosthetics.

11 chlear optogenetics in auditory research and prosthetics.

12 peptides, and proteins with the fluorine-18 prosthetic [(18)F]4-fluorophenylboronic acid.

13 in shuttles acyl intermediates linked to its prosthetic 4'-phosphopantetheine group among four acyltr

14 MBL rates were higher for prosthetic abutment < 2 mm vs. >/= 2 mm, for periodontal

15 In this study, we analyzed the influence of prosthetic abutment height on marginal bone loss (MBL) a

16 nd will ultimately, lead to a higher rate of prosthetic acceptance/use and a better level of motor pr

17 Prosthetic acrylic resin "mushrooms," internally illumin

18 e a systematic comparison between visual and prosthetic activations of the rat primary visual cortex

19 he most commonly used (18)F protein-labeling prosthetic agent N-succinimidyl 3-(18)F-fluorobenzoate (

20 rence was observed between use of mechanical prosthetic and bioprosthetic mitral valves in patients a

21 ast, BMI training designed to dissociate the prosthetic and phantom hands actually reduces pain.

22 logies have serious limitations for advanced prosthetic and therapeutic applications due primarily to

23 onics and energy harvesting devices to smart prosthetics and human-machine interfaces.

24 devices could have profound implications for prosthetics and medicine.

25 n, conversion and harvesting, soft robotics, prosthetics and optomechanics.

26 hat can be applied to bio-inspired robotics, prosthetics and rehabilitation medicine, while also prov

27 as interactive wearable devices, artificial prosthetics and smart robots.

28 otor commands are sent from the brain to the prosthetic, and feedback rate indicates how often visual

29 uch as in minimally invasive surgery, active prosthetics, and automation tasks involving delicate irr

30 ve garments, skin-like sensors for robots or prosthetics, and user interfaces in contaminated environ

31 ossible solution, predicting that increasing prosthetic ankle push-off should decrease leading limb c

32 Ns offer a potential alternative to CARs, as prosthetic antigen receptors.

33 acement (AVR), reoperation to relieve severe prosthetic aortic stenosis (PAS) is increasing.

34 acement (AVR), reoperation to relieve severe prosthetic aortic stenosis (PAS) is increasing.

35 Life-threatening prosthetic aortic stenosis was detected at a median of 6

36 nosis (n=10, 21.7%), moderate-severe central prosthetic aortic valve regurgitation (n=13, 28.3%), and

37 dications for redo TAVR were moderate-severe prosthetic aortic valve stenosis (n=10, 21.7%), moderate

38 tly, which would avoid undesired motion in a prosthetic application.

39 paradigm shift from conventional restorative/prosthetic approaches to regenerative modalities in clin

40 Recently commercialized powered prosthetic arm systems hold great potential in restoring

41 uld cause undesired motion when applied to a prosthetic arm.

42 Brain-computer interface (BCI) controlled prosthetic arms are being developed to restore function

43 ontrol signals for guiding computer cursors, prosthetic arms, and other assistive devices.

44 s 1 and 2, bearing either a fluorine-labeled prosthetic as a potential (18)F-PET radiotracer (1) or a

45 e poor quality of vision returned by retinal prosthetics by reducing the signal-to-noise ratio of pro

46 This arm is typically a prosthetic chemical group that is covalently attached to

47 t uses specific Trp amino acids instead of a prosthetic chromophore for light absorption during UV-B

48 Unlike typical photoreceptors employing a prosthetic chromophore to capture photons, LITE-1 strict

49 Three prosthetic complications (all fracture of veneer materia

50 Twelve prosthetic complications occurred in the NDI group and o

51 6.0% of biologic complications was reported; prosthetic complications were more frequent (12.9%).

52 were implant and FPD failures, biologic and prosthetic complications, and marginal bone loss.

53 SDIs, although NDIs showed a higher risk of prosthetic complications.

54 of implants and prostheses; 2) biologic and prosthetic complications; 3) peri-implant marginal bone

55 ral basis of BMIs that should lead to better prosthetic control and clinically viable solutions, as w

56 s needed for designing biologically inspired prosthetic control strategies.

57 monstrated application possibilities include prosthetic control with sensory feedback, monitors, and

58 ability of movement information and enhanced prosthetic control.

59 ated at initial placement, implant uncovery, prosthetic delivery, and 3 to 6, 7 to 11, and 12 to 18 m

60 At time of prosthetic delivery, mesial aspect implant position was

61 onjunction with restorative, orthodontic, or prosthetic dentistry.

62 s in disease investigations, drug discovery, prosthetic design and neuropathic pain investigations.

63 f implantable therapeutic devices-oculomotor prosthetics-designed to modify eye movements dynamically

64 skin flora, is an opportunist, often causing prosthetic device infections.

65 nction of a missing or paralyzed limb with a prosthetic device that acts and feels like one's own lim

66 r implant (CI) is the most successful neural prosthetic device to date and has restored hearing in hu

67 activity of cortical neurons and movement of prosthetic devices [1-4].

68 Prosthetic devices are being developed to restore moveme

69 such as pacemakers, implantable sensors, or prosthetic devices in hybrids of living and non-living s

70 Current prosthetic devices suffer from the limitation of low spa

71 This phenomenon might be exploited in novel prosthetic devices to enhance their control, thus ultima

72 Current prosthetic devices using arrays consisting of electrodes

73 or the development of new sensory and neural prosthetic devices which are capable of more precise poi

74 performs specific movements, but real-world prosthetic devices will need to operate correctly during

75 o the development of brain-controlled neural prosthetic devices.

76 nt infections of the bloodstream, bones, and prosthetic devices.

77 ls and enabling better evaluations of future prosthetic devices.

78 tant consideration in the design of cortical prosthetic devices.SIGNIFICANCE STATEMENT Understanding

79 Implantable neural prosthetics devices offer a promising opportunity for th

80 preserve the fidelity of signals either from prosthetic electronic devices, or from cells optogenetic

81 ve the quality of vision elicited by retinal prosthetics, elicited neural activity should resemble ph

82 nths after implant, and 2.7% of patients had prosthetic endocarditis.

83 l [CI]: 0.31 to 3.31; P = 0.98; I(2): 0%) or prosthetic failure (OR: 0.64; 95% CI: 0.21 to 1.96; P =

84 rocedures, which present similar implant and prosthetic failure rates but greater morbidity.

85 other for the primary outcomes (implant and prosthetic failure).

86 e primary outcome variables were implant and prosthetic failure.

87 Implant-related and prosthetic failures and complications were recorded.

88 smoking habit, history of periodontitis, and prosthetic features, among other variables.

89 ical microcircuits and the promise of neural prosthetics for patients with neurological and psychiatr

90 st-guest interactions to endow proteins with prosthetic functionality.

91 In addition to robotics and prosthetics, future applications include smart textiles

92 nhance the design and performance of a novel prosthetic graft, which utilises internal ridge(s) to in

93 Prosthetic grafts and patches are commonly used in cardi

94 was produced by a 2-step procedure with the prosthetic group 6-(18)F-fluoronicotinic acid 2,3,5,6-te

95 rostatic interactions of a compound with the prosthetic group allows the prediction of inhibitory pot

96 the existence of covalent bonds between the prosthetic group and the protein, which has a strong imp

97 d a smaller alpha-subunit, which harbors the prosthetic group at its N terminus.

98 omplex homo-tetrameric enzymes with one heme prosthetic group buried in each subunit.

99 ly on using traditional metal ion chelate or prosthetic group chemistries.

100 tated the distance between the catalytic MIO prosthetic group created from (189)Ala-Ser-Gly(191) resi

101 Redox responses associated with the heme prosthetic group in a myoglobin-polymer surfactant solve

102 Heme is an essential prosthetic group in proteins that reside in virtually ev

103 orphyrin ring and functioning primarily as a prosthetic group in proteins.

104 te the overall reaction, the tethered biotin prosthetic group must first gain access to the biotin ca

105 e (FB)-anti-MMR sdAb was developed using the prosthetic group N-succinimidyl-4-(18)F-fluorobenzoate (

106 Most commonly it binds as a prosthetic group to proteins, and it has been widely sup

107 fluoro-2-pentafluorophenyl naphthoate (PFPN) prosthetic group was synthesized to incorporate fluorine

108 unusual decarboxylase containing a pyruvoyl prosthetic group within the active site.

109 monooxygenases, contains a tightly bound FAD prosthetic group, and is required for the stereoselectiv

110 rrier protein (MdcC subunit) with a distinct prosthetic group, as well as decarboxylase (MdcD-MdcE) a

111 s synthesis featured fluorination of a novel prosthetic group, followed by a copper-free click conjug

112 ve rise to a mature PSD harboring a pyruvoyl prosthetic group.

113 acquisition and endogenous synthesis of this prosthetic group.

114 ossesses an organometallic nickel-containing prosthetic group.

115 as a metabolic intermediate rather than as a prosthetic group.

116 f lysozyme, a well-studied protein lacking a prosthetic group.

117 HMP), which contains one heme and one FAD as prosthetic groups and is capable of reducing O(2) by its

118 features to be included, e.g. novel ligands, prosthetic groups and post-translational/transcriptional

119 In mitochondria FeS clusters, prosthetic groups critical for the activity of many prot

120 Fe4S4 clusters are very common versatile prosthetic groups in proteins.

121 ith the binding of dioxygen (O2) to the heme prosthetic groups of the globin chains: from paramagneti

122 ctionalized with different iodine-containing prosthetic groups to generate a library of candidate cat

123 cture includes 16 subunits and more than 200 prosthetic groups, which are mostly light harvesting pig

124 ss Fe(2+) or Fe/S complexes as co-factors or prosthetic groups.

125 ion using click tethering of fluorophores as prosthetic groups.

126 to Compound II, which has Fe(IV) in its heme prosthetic groups.

127 rdiovascular disease, results in loss of the prosthetic haem group of soluble guanylate cyclase (sGC)

128 restoration in the next generation of neuro-prosthetic hands.

129 .60; 95% confidence interval [CI], 1.6-8.0), prosthetic heart valve (HR, 6.2; 95% CI, 3.8-10.1), male

130 and fluoroscopy are the main techniques for prosthetic heart valve (PHV) evaluation, but because of

131 ptake on PET/CT in patients with noninfected prosthetic heart valve (PHV).

132 ion aid to support shared decision making in prosthetic heart valve selection does not lower decision

133 Dutch online patient decision aid to support prosthetic heart valve selection was recently developed.

134 in optimization of shared decision making in prosthetic heart valve selection.

135 faecalis bacteremia, community acquisition, prosthetic heart valve, and male sex are associated with

136 , and is defined by infection of a native or prosthetic heart valve, the endocardial surface, or an i

137 Those with prosthetic heart valves, significant mitral stenosis, an

138 )/Fe(II) couple, and we demonstrate that the prosthetic heme group is post-translationally modified a

139 d species that further participates into the prosthetic heme modification through the formation of an

140 sis and its limitations, we believe that the prosthetic hiatal herniorrhaphy and suture cruroplasty p

141 Presently, the use of prosthetic hiatal herniorrhaphy for large hiatal hernia

142 ive RCTs comparing suture cruroplasty versus prosthetic hiatal herniorrhaphy for large hiatal hernia

143 2, P = 0.03), the pooled effect size favored prosthetic hiatal herniorrhaphy over suture cruroplasty.

144 vidual BMD data points on a typical archived prosthetic hip scan.

145 T studies in patients referred for suspected prosthetic infection and in those assessed for diseases

146 Demographic, medical, surgical, and prosthetic information was recorded.

147 The technique of best choice in open prosthetic inguinal hernia repair remains a subject of o

148 Early prosthetic intervention should revive this process.

149 5 cases and iris adenoma in 1 case underwent prosthetic iris device implantation surgery.

150 either residual iris or opaque portions of a prosthetic iris device.

151 Prosthetic iris implantation was combined with phacoemul

152 months after implantation of the Ophtec 311 prosthetic iris.

153 e indicates how often visual feedback of the prosthetic is provided to the subject.

154 rove the efficacy of microelectronic retinal prosthetics it will be necessary to better understand th

155 culture in 97 sonication fluid samples from prosthetic joint and other orthopedic device infections.

156 8 and 196 samples were classified as showing prosthetic joint infection (PJI) and aseptic failure (AF

157 Of these, 152 and 279 subjects had prosthetic joint infection (PJI) and aseptic failure, re

158 g the microbial etiology of culture-negative prosthetic joint infection (PJI) can be challenging.

159 the first reported case of Ureaplasma parvum prosthetic joint infection (PJI) detected by PCR.

160 ecently demonstrated improved sensitivity of prosthetic joint infection (PJI) diagnosis using an auto

161 ecently demonstrated improved sensitivity of prosthetic joint infection (PJI) diagnosis using an auto

162 The primary outcome was prosthetic joint infection (PJI) in the first postoperat

163 Accurate and rapid diagnosis of prosthetic joint infection (PJI) is vital for rational a

164 Treatment of prosthetic joint infection (PJI) usually requires surgic

165 ed for decades for bone infection, including prosthetic joint infection (PJI), often in combination w

166 Its role in diabetic pedal osteomyelitis and prosthetic joint infection is not established.

167 Nineteen additional cases of Campylobacter prosthetic joint infection reported in the literature ar

168 tis such as diabetic pedal osteomyelitis and prosthetic joint infection, it is not useful for spondyl

169 clinical features, and treatment options for prosthetic joint infection.

170 luid culture positivity for the diagnosis of prosthetic joint infection.

171 y and a 95% specificity for the diagnosis of prosthetic joint infection.

172 he first published case of Coxiella burnetii prosthetic joint infection.

173 thout any significant impact on incidence of prosthetic joint infection.

174 s support a two-step model of staphylococcal prosthetic joint infection: As we previously reported, i

175 ld standard for microbiological diagnosis of prosthetic joint infections (PJI).

176 ylococcus aureus is a leading cause of human prosthetic joint infections (PJIs) typified by biofilm f

177 bic cocci that are associated with wound and prosthetic joint infections as well bacteremia and empye

178 important implications for the management of prosthetic joint infections, because treatment strategie

179 Staphylococcus aureus is a leading cause of prosthetic joint infections, which, as we recently showe

180 Aseptic loosening is a major complication of prosthetic joint surgery, characterized by chronic infla

181 als dislodged from the surfaces of explanted prosthetic joints using sonication.

182 cluding catheters, pacemakers, dentures, and prosthetic joints, which provide a surface and sanctuary

183 diagnosed with probable Campylobacter jejuni prosthetic knee infection after a diarrheal illness.

184 res can achieve uniform surface heating of a prosthetic knee joint.

185 and group-specific PCR assay panel using 284 prosthetic knee synovial fluid samples collected from pa

186 application of robotic technology to powered prosthetic knees and ankles is limited by the lack of a

187 Prosthetic leaflet thrombosis was detected in 1 patient

188 t, terminal illness, inflammatory arthritis, prosthetic leg, cognitive impairment, lack of a telephon

189 The participant was able to move the prosthetic limb freely in the three-dimensional workspac

190 Given the complexity of state-of-the-art prosthetic limbs and, thus, the huge state space they ca

191 onstrate the viability of human operation of prosthetic limbs using non-invasive BCI technology.

192 amputations may be candidates for motorized prosthetic limbs.

193 Prosthetic lipoyl groups are required for the function o

194 , mediated through the disulfide bond of the prosthetic lipoyl moiety.

195 an follow-up at 39.3 (20 to 56) months since prosthetic loading, all 65 implants were functional (100

196 f prosthesis, implant surface, and timing of prosthetic loading, were found to have influenced the im

197 me in noninfected grafts, in relationship to prosthetic material and location.

198 ation and infection of mucosal surfaces (not prosthetic material).

199 y be hampered by hypertrophied myocardium or prosthetic material.

200 Placement of a prosthetic mesh by the laparoscopic approach following t

201 Importance: Prosthetic mesh is frequently used to reinforce the repa

202 We infer that iron is the prosthetic metal in vivo.

203 Percutaneous closure of prosthetic mitral valve paravalvular leak (PVL) has emer

204 Bioprosthetic vs mechanical prosthetic mitral valve replacement.

205 ntly higher in those who received mechanical prosthetic mitral valves compared with those who receive

206 Our results indicate that prosthetic moieties in both holo and loaded forms are in

207 sex; education; people living in the house; prosthetic needs; or number of decayed, missing, or fill

208 ocomotion, as well as for the development of prosthetic, orthotic and robotic devices.

209 Significant prosthetic paravalvular leakage (PVL) could have serious

210 tions are increasing, and the options of the prosthetic pathways are currently evolving.

211 Both implant-supported prosthetic pathways represent a valuable treatment optio

212 es the quality of vision returned by retinal prosthetics, paving the way to novel clinical applicatio

213 e toward amino acid substrates delivered via prosthetic phosphopantetheine arms.

214 No prosthetic problem was observed.

215 Four months later, a second surgery and prosthetic procedures were performed.

216 y the periodontitis and assign a periodontal/prosthetic prognosis.

217 bovine bone (ABB), and identify surgical and prosthetic prognostic variables.

218 flow patterns in PHV obstruction and allowed prosthetic regurgitation assessment.

219 econstructions allowed implant placement and prosthetic rehabilitation in all cases.

220 This study evaluates implant-borne prosthetic rehabilitation of 10 totally edentulous atrop

221 atrophic maxillae to allow for implant-borne prosthetic rehabilitation.

222 ree males and 12 females, who required fixed prosthetic rehabilitation.

223 y for motor control, the development of hand prosthetics remains a major challenge.

224 nsory characteristics in artificial skin and prosthetics remains challenging.

225 We also report the impact of prosthetic replacement of the ocular surface ecosystem (

226 g how subjects adapt to tooth loss and their prosthetic replacement.

227 ics by reducing the signal-to-noise ratio of prosthetic responses.

228 yperactivity can improve optogenetic retinal prosthetic responses.

229 982) and the interaction between the type of prosthetic restoration and the amount of residual corona

230 l was to assess the influence of the type of prosthetic restoration as well as the degree of hard tis

231 = 60) were defined depending on the type of prosthetic restoration needed: 1) single unit porcelain-

232 Degree of hard tissue loss and type of final prosthetic restoration should be carefully considered wh

233 orbable graft biomaterial and with a delayed prosthetic restoration shows positive final esthetic out

234 plications for disease management, including prosthetic restoration strategies.

235 rences were found between the two methods of prosthetic retention: the cemented group presented signi

236 follow-up period, 3142 individuals underwent prosthetic revision.

237 Characteristics of THR are related to early prosthetic revision: antibiotic-impregnated cemented THR

238 The crude cumulative 2-y risk of requiring prosthetic (risk difference [RD], 0.21) and endodontic (

239 These prosthetics seek to mimic natural activity patterns to a

240 Here we demonstrate smart prosthetic skin instrumented with ultrathin, single crys

241 ly to normal vision, the retinal response to prosthetic stimulation exhibited flicker fusion at high

242 Recently, prosthetic stimulation in the human inferior colliculus

243 this new technology into neural stimulation prosthetics, such as cochlear implants for the deaf, wit

244 Prosthetic survivorship may depend on characteristics of

245 We translated a neural prosthetic system previously developed in animal model s

246 owed significant differences between the two prosthetic techniques in favor of using DAs.

247 rce for cognitive control signals for neural prosthetics that assist paralyzed patients.

248 Retinal prosthetics that can restore vision in animal models may

249 ecessary for the proper function of cochlear prosthetics, therefore, it is of great interest to under

250 ns to Co, Cr and Ti by analysing viable peri-prosthetic tissue.

251 itory pathway after the cochlea need a brain prosthetic to restore hearing.

252 Motor prosthetics to date have typically used the motor cortex

253 such as SMA, as well as for next generation prosthetics, utilizing in vitro phenotypic models would

254 alve (P<0.001) and 78% of patients without a prosthetic valve (P<0.001).

255 (P<0.001), and in 4.9% of patients without a prosthetic valve (P<0.001).

256 (P=1.000), and in 0.2% of patients without a prosthetic valve (P=0.025).

257 14 years) patients with suspected mechanical prosthetic valve dysfunction assessed by transesophageal

258 uishing pannus and thrombus in patients with prosthetic valve dysfunction is essential for the select

259 company the high-shear state associated with prosthetic valve dysfunction.

260 unctive value in the difficult assessment of prosthetic valve dysfunction.

261 es amenable to thrombolysis in patients with prosthetic valve dysfunction.

262 Prosthetic valve endocarditis (PVE) after TAVI is a seri

263 but can be inconclusive in patients in whom prosthetic valve endocarditis (PVE) is suspected.

264 13, over 100 cases of Mycobacterium chimaera prosthetic valve endocarditis and disseminated disease w

265 e patients aged between 49 and 64 years with prosthetic valve endocarditis or vascular graft infectio

266 s for PET were oncology (n=26), suspicion of prosthetic valve endocarditis subsequently excluded (n=1

267 For all patients with prosthetic valve endocarditis, bioprosthetic valves are

268 cently acknowledged as a diagnostic tool for prosthetic valve endocarditis, but its specificity is li

269 ed when interpreting FDG PET/CT in suspected prosthetic valve endocarditis, with specific attention t

270 in some cases of apparently culture-negative prosthetic valve endocarditis.

271 describe a case of Mycobacterium mageritense prosthetic valve endocarditis.

272 Signs of moderate prosthetic valve failure were observed in 3.4% of patien

273 To review the current literature on prosthetic valve function and para-valvular regurgitatio

274 1 month, and 2 months demonstrated excellent prosthetic valve function with a low transvalvular gradi

275 on the outcome of Staphylococcus aureus (SA) prosthetic valve infective endocarditis (PVIE) is unreso

276 re routine surveillance within 3 years after prosthetic valve insertion (73 [17.1%]), routine surveil

277 ents admitted to our hospital with suspected prosthetic valve or cardiac device IE between November 2

278 Association functional class I/II with good prosthetic valve performance.

279 ay be a reasonable alternative to mechanical prosthetic valve replacement in patients aged 50 to 69 y

280 ereafter, the authors: 1) review the data on prosthetic valve thrombosis; 2) discuss the pathophysiol

281 eart valve and 2620 other patients without a prosthetic valve.

282 whether the infection occurs in a native or prosthetic valve.

283 s 17; P=0.046) and had a better knowledge of prosthetic valves (85% versus 68%; P=0.004).

284 inconclusive, particularly in patients with prosthetic valves (PVs) and implantable cardiac electron

285 diagnosis of infective endocarditis (IE) in prosthetic valves and intracardiac devices is challengin

286 Prosthetic valves currently used in children lack the ab

287 eciding between bioprosthetic and mechanical prosthetic valves is challenging because long-term survi

288 odified DC in patients with suspected IE and prosthetic valves or cardiac devices.

289 Mechanical prosthetic valves were associated with lower risk of reo

290 lied to guide the design and implantation of prosthetic valves, and have potential clinical utility a

291 late might be reconsidered for patients with prosthetic valves, who require life-long anticoagulation

292 F-FDG PET/CT is of value in the diagnosis of prosthetic vascular graft infection, but potential pitfa

293 8)F-FDG for therapy control in patients with prosthetic vascular graft infections (PVGIs).

294 spectively searched for cancer patients with prosthetic vascular grafts.

295 ns in the development of long-term pixelated prosthetic vision for future devices.

296 by propensity score who underwent mechanical prosthetic vs bioprosthetic mitral valve replacement.

297 brain-machine interface is a cortical motor prosthetic, which is used to assist paralyzed subjects.

298 Recent efforts to develop smart prosthetics, which exploit rigid and/or semi-flexible pr

299 g implies that, with current methods, visual prosthetics will have a limited dynamic range available

300 tect and repair damage, or robotic skins and prosthetics with a realistic sense of touch.