ライフサイエンスコーパス: artificial cell

1 nced drug delivery vehicles, bioreactors and artificial cells.

2 selection of restriction endonucleases using artificial cells.

3 ields ranging from targeted drug delivery to artificial cells.

4 s/oil/aqueous) to prototype mechanosensitive artificial cells.

5 d by oxidative stress, lipid scrambling, and artificial cell aging modulate the cell response to the

6 c biology, vesicles define the boundaries of artificial cells and are increasingly being used as bioc

7 used to develop novel bioreactors, primitive artificial cells and plausible pathways to prebiotic org

8 ications, including biosensing, constructing artificial cells, and engineering biological batteries.

9 ibuted system of on-chip DNA compartments as artificial cells, and measured reaction-diffusion dynami

10 tial and temporal behavior of assemblies of "artificial cells," and allows us to design a rich variet

11 tic cells, ranging from simple protocells to artificial cells approaching the complexity of bacteria,

12 The artificial cells are generated in the form of a water-in

13 omes offers an exceptional platform to build artificial cells as exemplified by the in vitro transcri

14 ted from the numerical model, we designed an artificial cell based on an optimized selection of condu

15 It seems natural to ask if artificial cells can be built to use ion transport as ef

16 The assembly of artificial cells capable of executing synthetic DNA prog

17 al DNA compartments fabricated in silicon as artificial cells capable of metabolism, programmable pro

18 er through cannabinoid CB(1) receptors in an artificial cell-cell communication assay that was develo

19 in eukaryotes, we developed and analyzed two artificial cell-cell communication systems in yeast.

20 ht become useful components for constructing artificial cell-cell communication systems that program

21 uses a common metabolite to achieve tunable artificial cell-cell communication.

22 the development of small-scale, bio-inspired artificial cell components that recreate the function of

23 otein (red dots, see scheme) is expressed in artificial cells composed of biocompatible polymersomes,

24 microfluidic device to mechanically activate artificial cells creates new opportunities in force-acti

25 the critical bottlenecks in the synthesis of artificial cell, depends on the properties of phospholip

26 Artificial cells designed for specific applications comb

27 The artificial cells expand the senses of Escherichia coli b

28 storage or detoxification) organelles or as artificial cell factories for in situ biocatalysis.

29 that it may be possible to construct simple artificial cells from two subsystems: a self-replicating

30 occurs in polyploid hepatocytes generated by artificial cell fusion.

31 scale biological inspiration in the field of artificial cells has great potential for successes in th

32 Artificial cells have generated much interest since the

33 Parallel efforts to construct more complex artificial cells, incorporating translational machinery

34 compartments, abiogenesis, and the design of artificial cell-inspired systems are considered.

35 sults highlight a new strategy for designing artificial cell interfaces that can nondestructively pen

36 The problem of a self-replicating artificial cell is a long-lasting goal that might imply

37 paving the way towards rudimentary forms of artificial cell-like entities (protocells).

38 ms of collective behaviour in communities of artificial cell-like entities (synthetic protocells).

39 ad to new types of chemical bio-reactors and artificial cell-like entities, and bring new insights co

40 Coacervation creates an artificial cell-like environment in which the rate of mR

41 s atomic scale observation, we have built an artificial cell-like environment with nano-scale enginee

42 has been restricted in higher eukaryotes to artificial cell lines and reporter genes.

43 R signaling is traditionally investigated in artificial cell lines which do not provide sufficient ph

44 ollowing transplantation in vivo arises from artificial cell manipulations ex vivo.

45 trast, the growth of tumor cells grown on an artificial cell matrix (Matrigel) was unaffected by deco

46 lar and extracellular environments across an artificial cell membrane construct.

47 he detection of gadolinium spin labels in an artificial cell membrane under ambient conditions using

48 ated into supported lipid bilayers (SLBs, an artificial cell membrane), which in turn were interfaced

49 ements of the interactions between SERMs and artificial cell membranes and independent observations o

50 cles through the integration of bio-inspired artificial cell membranes and naturally derived cell mem

51 e observations were collected in vitro using artificial cell models transfected with cloned receptors

52 rmacologic agents, recombinant proteins, and artificial cell-permeable proteins have been developed t

53 escribes the state and the development of an artificial cell project.

54 tworks is a crucial step towards engineering artificial cell-scale devices and systems.

55 We describe artificial cells, selected current applications and how

56 gohistidine affinity tags, we synthesized an artificial cell surface receptor comprising an N-alkyl d

57 ein and protein-nucleic acid interactions in artificial cell systems comprising water-in-oil emulsion

58 Whereas initial studies were performed in artificial cell systems, recent publications are shiftin

59 on/translation for applications of DIB-based artificial cell systems.

60 mploying receptor/arrestin overexpression in artificial cell systems.

61 sible to design and construct communities of artificial cells that can perform different tasks relate

62 We suggest methods for producing these artificial cells that could potentially be used to power

63 and remaining challenges in the synthesis of artificial cells, the possibility of creating new forms

64 Engineering mechanosensitive artificial cell through bottom-up in vitro reconstitutio

65 as a response of our mechanically activated artificial cell through thinning of oil.

66 In order to demonstrate mechanosensation in artificial cells, we develop a novel microfluidic device