ライフサイエンスコーパス: prosthetics

1 al to the design of effective auditory brain prosthetics.

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

3 icable for bridging injured sites and active prosthetics.

4 a key determinant of the success of cochlear prosthetics.

5 hophysical vestibular testing and vestibular prosthetics.

6 o maximize patient susceptibility to sensory prosthetics.

7 applicability and ease of operation of motor prosthetics.

8 ctrical stimulation in the context of visual prosthetics.

9 several new topics in the arena of cortical prosthetics.

10 chlear optogenetics in auditory research and prosthetics.

11 bination of soft tissue repair and synthetic prosthetics.

12 aries during color matching in maxillofacial prosthetics.

13 ntial for safe and autonomous cortical motor prosthetics.

14 ia cell-type-specific optical neural control prosthetics.

15 y might help to increase the lifetime of the prosthetics.

16 of occlusion observed with smaller-diameter prosthetics.

17 autonomous intelligent robots and biomimetic prosthetics, among other applications.

18 With the development of newer prosthetics and approaches to the ventral hernia repair,

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

20 devices could have profound implications for prosthetics and medicine.

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

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

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

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

25 rategies for improved integration of retinal prosthetics, and for stem cell therapies, particularly t

26 the implant level, peri-implant soft tissue, prosthetics, and patient satisfaction.

27 improved referral for supportive counseling, prosthetics, and reconstruction.

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

29 Subretinal prosthetics are designed to electrically stimulate secon

30 es have demonstrated that the newer biologic prosthetics are reasonable options for hernia repair in

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

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

33 Implantable neural prosthetics devices offer a promising opportunity for th

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

35 Cortical neural prosthetics extract command signals from the brain with

36 Recent development of neural prosthetics for assisting paralyzed patients has focused

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

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

39 Retinal prosthetics have been designed to interface with the neu

40 Current prosthetics, however, are still very limited in the visi

41 In WT and RCS rats with active prosthetics, implant-driven responses were found in 100%

42 ing to ventral hernia repairs and the use of prosthetics in herniorrhaphy.

43 mb soft-tissue envelope change in lower-limb prosthetics is precise and can be used to detect the eff

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

45 Retinal prosthetics offer hope for patients with retinal degener

46 y understand the properties of the available prosthetics or the circumstances that warrant the use of

47 ent sham surgery, implantation with inactive prosthetics, or no treatment.

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

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

50 nsory characteristics in artificial skin and prosthetics remains challenging.

51 These prosthetics seek to mimic natural activity patterns to a

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

53 This has important implications for neural prosthetics, suggesting that accurate operation of a bra

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

55 Retinal prosthetics that can restore vision in animal models may

56 Neural prosthetics that use simultaneously a variety of cogniti

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

58 Motor prosthetics to date have typically used the motor cortex

59 physicians, who implant life-changing penile prosthetics, to understand the most recent advances in t

60 een the synthetics, composites, and biologic prosthetics used for ventral hernia repair in terms of m

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

62 ithms can improve the performance of retinal prosthetics where substantial irregularities arise at th

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

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

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