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1 for many years ("the productivity paradox of information technology").
2 for the workings of mind, of culture, and of information technology.
3 optoelectronic communication technology, and information technology.
4 ea, in part through innovative use of health information technology.
5 eas relating to financing, organisation, and information technology.
6 tronics is crucial for continued progress in information technology.
7 from sensing and biomedicine to imaging and information technology.
8 e photonic circuits, bio-sensing and quantum information technology.
9 care performance goals that depend on health information technology.
10 on, research and innovation, and health care information technology.
11 ential applications in energy conversion and information technology.
12 le-photon source for applications in quantum information technology.
13 increasingly important in communication and information technology.
14 ic memory that suits modern high-performance information technology.
15 s a primary focus of public policy on health information technology.
16 synthetic DNA that could shape the future of information technology.
17 complement the efficiency benefits of health information technology.
18 kyrmions, with the potential next-generation information technology.
19 pes, magnetic resonance imaging, and quantum information technology.
20 mplementation, use, and evaluation of health information technology.
21 ractical importance in metrology and quantum information technology.
22 emes, emergency medical services, and health information technology.
23 mportant step for its application in quantum information technology.
24 gration and low energy consumption in modern information technology.
25 y solitons in broad-area lasers as pixels in information technology.
26 Motion sickness is an emerging hazard in information technologies.
27 iour with potential applications in magnetic information technologies.
28 otential applications in ferroelectric-based information technologies.
29 ds regarding health, environment, energy and information technologies.
30 tial as a host material for emerging quantum information technologies.
31 ill undoubtedly impact development of future information technologies.
32 g systems for ordering providers, and use of information technologies.
33 multidisciplinary teams and in using modern information technologies.
34 e and enantio-selective chemistry to quantum information technologies.
35 that exploits the spin degree of freedom in information technologies.
36 to harness spin waves in magnetic films for information technologies.
37 s are strong candidates for scalable quantum-information technologies.
38 ring for photonics, electronics, and quantum information technologies.
39 s and their potential applications in future information technologies.
40 velopment of chiral photonics for health and information technologies.
41 providing opportunities for next-generation information technologies.
42 itters) are known to be the heart of quantum information technologies.
43 tates is a ubiquitous requirement in quantum information technologies.
44 f triplet radical pairs as qubits in quantum information technologies.
45 ution imaging, optical computing and quantum information technologies.
46 ition metal oxides widely used in energy and information technologies.
47 romising properties for future bioelectronic information technologies.
48 is a key requirement in solid-state quantum information technologies.
49 the realization of new classical and quantum information technologies.
50 and the use of geolocalization services and information technologies.
51 heart of quantum optics and photonic quantum-information technologies.
52 perconductivity, electronics, photonics, and information technologies.
53 V nanolasers for biological applications and information technologies.
54 ransport and is an emerging hazard in visual information technologies.
58 is the foundation of modern electronics and information technology(1-11), and quantum materials with
60 of informed public participation, supportive information technologies, a skilled workforce, and adequ
61 e-nots." This will include supporting health information technology access in homes and public places
63 regenerators and optical sources for quantum information technology, all demonstrated using four-wave
64 etic state of matter lays the foundation for information technologies and for understanding of spintr
65 asses a wide range of telecommunications and information technologies and many clinical applications,
66 ing sensor systems will enable radically new information technologies and powerful new tools for scie
67 tion-leverages recent developments in health information technology and a growing health data infrast
68 ent and biomedical engineering, big data and information technology and allergic diseases and asthma
69 meaningful ways to implement and use health information technology and before a statement of the eff
70 c modalities that includes the harnessing of information technology and big data are some areas where
72 s at the SUSY points can be used for quantum information technology and can open an avenue for quantu
76 cope of nonphysician clinicians, adoption of information technology and disease management programs t
77 cal systems based on principles adopted from information technology and engineering (Andrianantoandro
78 of DNA for near-memory computing for future information technology and health analysis applications.
79 ic imaging tools of the future, aided by new information technology and image fusion/integration capa
80 d by others to combine registry resources in information technology and medicine for future collabora
81 acing with new and important domains such as information technology and molecular biology and by play
82 Younger generations have deeply embraced information technology and multitasking in their persona
83 d improvement infrastructure, lagging use of information technology and participation in the developm
84 n, enhanced visual cues, and cautious use of information technology and redundancy, all while avoidin
85 orm for the emergent many-valued non-Boolean information technology and target challenges posed by ne
86 The learning healthcare system uses health information technology and the health data infrastructur
87 placed on the individual based on the use of information technology and the latest in behavioural sci
89 nd diverse information, advances in clinical information technology and user interfaces will permit g
91 ion of practice guidelines, effective use of information technologies, and intensive involvement by d
92 amalgam of chemistry, computer science, and information technology, and assess the wider e-Science a
95 nd formation of clinical primary care teams, information technology, and improving the supply of medi
96 e recommend leveraging strategic purchasing, information technology, and local pilots to build a prim
98 lts enable new applications in photonics and information technology, and may enable explorations of q
99 ancing communication training, disseminating information technology, and mitigating external factors
100 ies, detection systems, microelectronics and information technology, and will involve the expertise o
103 ombining automated behavioral monitoring and information technologies are currently under development
104 ent of photonic devices and systems, on-chip information technologies are mostly limited to two-level
106 es and improvements in vehicle design and in information technology are necessary but not sufficient
107 nversion, solid-state lighting, sensing, and information technology are undergoing rapid development.
108 ffice of the National Coordinator for Health Information Technology at the U.S. Department of Health
109 nation, utilizing comprehensive and flexible information technology, automating biospecimen processin
110 promises a new generation of ultralow-energy information technologies, based around functional molecu
113 long carrier lifetime are also valuable for information technology, but fundamental challenges like
114 as the foundation for the new generation of information technology, but it is challenged by the diff
116 Brain-inspired computation can revolutionize information technology by introducing machines capable o
117 ave seen rapid advances in communication and information technology (C&IT), and the pervasion of the
118 lized training to support use of this health information technology can be a powerful approach to inc
119 some of the ways in which communication and information technology can be used to enhance the learni
121 mputing, sensor networks, and other advanced information technology capabilities to transform massive
122 f individuals and providers, building health information technology capacity, incorporating self-meas
128 of this review is to illustrate how Web 2.0 information technologies could be used to improve anesth
131 idance to quality improvement professionals, information technology developers, educators, administra
133 w classes of electronic, energy-storage, and information-technology devices depends critically on und
135 applications in photovoltaic solar cells and information technology due to their unique electrical an
136 ase-change storage is widely used in optical information technologies (DVD, CD-ROM and so on), and re
139 lular reprogramming, tissue engineering, and information technologies, especially artificial intellig
142 r Graduate Program, the Funai Foundation for Information Technology (FFIT), the Honjo International S
145 found their way into various types of modern information technology hardware, applications of ferroel
149 e recent transformation in communication and information technology has brought about new platforms f
153 The push for a semiconductor-based quantum information technology has renewed interest in the spin
160 With ongoing developments in healthcare information technology, implementation of the latter sur
161 ons have demonstrated the efficacy of health information technologies in improving quality and effici
162 mation about the human genome and how modern information technology, in particular the internet, allo
163 urers, pharmacies, and benefit managers; (2) information technology, in which investment has occurred
164 ted oscillometric device (GE Medical Systems Information Technologies, Inc., Milwaukee, Wisconsin) fo
171 s, access to the appropriate computation and information technology infrastructure, and recruiting an
176 tal imaging platforms, an overhaul of legacy information-technology infrastructures, modification of
177 o launch CancerLinQ, a groundbreaking health information technology initiative that will provide phys
178 lian Oil and Gas Company (Eni) (5200 m(2) of Information Technology installed, 30 MW) and based on a
179 -risk patients (control) or a pharmacist-led information technology intervention (PINCER), composed o
181 All other quantitative analyses of health information technology interventions effect on mortality
184 in transfusion medicine and other novel ways information technology is being applied to support patie
187 ant underwent the following measurements: an information technology (IT) experience questionnaire, a
188 safety, better manage finances, and upgrade information technology (IT) for organ transplantation.
189 cal attention at high levels upon the use of information technology (IT) in routine clinical care in
190 to the application of telecommunication and information technology (IT) in the delivery of health an
191 ow nurses and care workers work, the role of information technology (IT) in their work and what contr
192 Barriers to uptake and compliance involved information technology (IT) logistical reasons, lack of
198 gs include lack of infrastructure and health information technology, lack of support staff, and incre
201 l applications of ferroelectric materials in information technology, materials science and optoelectr
202 ns in care delivery, payment structures, and information technologies may support HCT, pediatricians
204 lines and, along with novel patient-centered information technologies, may help support individuals a
205 ter define the roles of home-based services, information technology, mental health care, caregiver su
206 ient-provider interventions (n = 12), health information technologies (n = 11), and health system int
208 oreal and that mediated by communication and information technology), new types of people-place relat
209 ts, with direct implications for stealth and information technology, non-disturbing sensors, near-fie
213 ethodical evaluation of the impact of health information technology on outcomes is essential for inst
214 ol diploma or college degree, and to work in information technology or another technical occupation.
215 ents and staff, human resource requirements, information technology or infrastructure requirements, c
217 ; 533 (5.6%) were biotechnology, health care information technology, or medical device companies; and
219 of this study was to develop a robotics and information technology-oriented platform that could cont
221 including registries and databases, emerging information technology, patient-centered and -driven cli
222 for transfer (87% agreed), developing common information technology platforms across hospitals (86% a
225 es is highly desirable, as modern integrated information technologies predominantly are operated with
230 ing several emerging applications in quantum information technology, quantum sensing, and quantum com
231 locality is a viable new resource in quantum information technology realized with superconducting cir
236 agement in health care and the use of health information technology resources in the electronic healt
238 ves, coupled with the increasing adoption of information technology, resulted in a broad geographic e
239 e longevity of pertinent infrastructure, the information technology revolution, the growth of the glo
240 with Moore's law, compose the engine of the information technology revolution, whereas complexity--t
244 ta collected include participant demographic information, technology self-efficacy, and adverse event
246 Despite a consensus that the use of health information technology should lead to more efficient, sa
248 ment, Defence and Security, Economy, Health, Information Technology, Social Welfare, Technology), Eco
250 as spin, may enable applications in quantum information technology, spintronics and quantum sensing(
251 nurses, hospital leadership, nurse managers, information technology staff, and physical/occupational
252 face outsourcing to lower labor cost and to information technology substitutes, raising commoditizat
253 e use of TM, particularly when combined with information technologies such as electronic health recor
254 s and topological fluids, as well as quantum information technologies such as multimode photon-by-pho
256 lus is of interest in developing devices for information technology, such as data storage and quantum
258 ten, collective intelligence is supported by information technology, such as online prediction market
259 were contacted to determine if they had the information technology support to hold the examination.
262 ost-effectiveness and its compatibility with information technology systems currently employed in the
263 t be available in federally regulated health information technology systems such as certified EHRs.
264 ls for reform of U.S. payment, delivery, and information technology systems to achieve this vision.
265 pread interoperability-the ability of health information technology systems to exchange information a
266 mmittee, pilot-testing interventions, use of information technology systems to provide data about fal
267 rnover of village doctors, fragmented health information technology systems, a paucity of digital dat
268 if feedback reports could be generated from information technology systems, sensitivity analyses ind
270 tion requirements; and development of health information technologies that enhance the patient-physic
271 stimated: in one year, for 1 kW of installed information technology, the estimated energy saving is 7
272 energy-efficient magnetic memory devices for information technology, the manifestation of their nontr
273 government is stimulating adoption of health information technology through meaningful use policy.
278 escribe current and future strategies to use information technology to improve the process of antimic
281 digital medicine-that is, the application of information technology to medicine-has the potential to
284 cialty is ideally suited to apply the newest information technology to traditional needs in areas of
285 dditional current applications of healthcare information technology to transfusion medicine include c
287 on, and experiences and gaps in using health information technology tools for hypertension, were expl
288 n in the past because of the availability of information technology tools to collect and analyze data
289 s about the existing functionality of health information technology tools to support increasingly asy
292 oton interface in silicon would move quantum information technologies toward a mature semiconducting
293 ekly diet/physical activity tracking; Health Information Technology Usability Evaluation Scale, mean
294 and app engagement/usability (by the Health Information Technology Usability Evaluation Scale; range
295 motor function determined by CatWalk (Noldus Information Technology, Wageningen, The Netherlands) gai
296 ion-based racetrack memory is attractive for information technology, where skyrmions are used to stor
297 requirements of data-intensive research with information technology will enable scientists to gain re
298 provide a useful tool for developing quantum-information technologies with single electronic excitati
299 cessary to complement advancements in health information technology with high-quality team function.