ライフサイエンスコーパス: information science

1 applications ranging from sensing to quantum information science.

2 ng and sensing to quantum optics and quantum information science.

3 ught after as critical components of quantum information science.

4 with multipartite quantum states in quantum information science.

5 or application of quantum cloning in quantum information science.

6 are key elements for applications in quantum information science.

7 ntal physics and are at the heart of quantum information science.

8 g applications in quantum optics and quantum information science.

9 red for a variety of applications of quantum information science.

10 e realisation of many experiments in quantum information science.

11 ton generation, quantum sensing, and quantum information science.

12 e of the prime goals in the field of quantum information science.

13 tical ideas and the implications for quantum information science.

14 networks is one of the main goals of quantum information science.

15 em may allow for new applications in quantum information science.

16 w capabilities in quantum optics and quantum information science.

17 well as applications in sensing and quantum information science.

18 mechanics and is a key resource for quantum information science.

19 m may find important applications in quantum information science.

20 he first of these is that epidemiology is an information science.

21 r optomechanical quantum control and quantum information science.

22 c ensembles, a powerful resource for quantum information science.

23 tific advances in quantum optics and quantum information science.

24 central challenge in spintronics and quantum information science.

25 system is a key capability in modern quantum information science.

26 h systems also provide test beds for quantum information science.

27 thus we describe a valuable tool for quantum information science.

28 and engendering a new view of biology as an information science.

29 s for accomplishing diverse tasks in quantum information science.

30 herence and has fueled the growth of quantum information science.

31 ntum objects, and is at the heart of quantum information sciences.

32 y new collaborations between biology and the information sciences.

33 ion not only from physics, but also from the information sciences.

34 s drawn from across the natural, social, and information sciences.

35 gration of social, natural, and geographical information sciences.

36 f quantum states enables advances in quantum information science and also contributes to the understa

37 igated for applications ranging from quantum information science and optoelectronics to high-resoluti

38 dual atoms and photons is central to quantum information science and precision measurement, and optic

39 systems is an outstanding problem in quantum information science and quantum communication.

40 ging quantum technologies, including quantum information science and quantum-assisted sensing.

41 bit registers is a key challenge for quantum information science and technology.

42 igence, cognitive science, computer science, information science, and social science.

43 on a chip for a variety of photonic quantum information science applications.

44 pervasive problem in biological, social and information sciences as correlation-based networks conta

45 Quantum information science attempts to exploit capabilities fro

46 Computer and information science can assist environmental biotechnolo

47 correlations-play a crucial role in quantum information science (for example, in demonstrations of q

48 ults constitute an important step in quantum information science, for example, toward the realization

49 Over the past several decades, quantum information science has emerged to seek answers to the q

50 ntum systems is an important tool in quantum information science; however, the large number of unknow

51 The results have applications in quantum information science, including for controlled interactio

52 ecules for precision measurement and quantum information science, including the search for an electro

53 Quantum information science involves the storage, manipulation a

54 uirement for diverse applications in quantum information science is the capability to disseminate qua

55 An outstanding goal in quantum information science is the faithful mapping of quantum i

56 The key challenge in experimental quantum information science is to identify isolated quantum mech

57 All sources of medical informatics and information science literature, including MEDLINE, along

58 lds of optics, such as quantum and classical information science or optical tweezers.

59 To advance quantum information science, physical systems are sought that me

60 Active cooling of qubits, applied to quantum information science, provides a means for qubit-state pr

61 Developments in quantum information science rely critically on entanglement-a fu

62 tum computing is an emerging area within the information sciences revolving around the concept of qua

63 lids are actively being explored for quantum information science, sensing, and imaging.

64 Neutron-based studies of quantum information science, the foundations of quantum mechanic

65 Motivated by quantum information science, there has been a leap in the formul

66 studies of quantum entanglement and quantum information science to imaging.

67 es, methodologies, and tools in computer and information science to solve biological problems.

68 Geographic information science was then used to create satellite im

69 In an effort to exploit chemistry for information science, we have constructed a system to sen

70 ent structure holds great promise in quantum information science where there is a strong demand for e

71 otonics has become a mature field of quantum information science, where integrated optical circuits o

72 The scalable application of quantum information science will stand on reproducible and contr