ライフサイエンスコーパス: we present

1 We present 2 new animal models that will serve to elucidate t

2 We present a compilation of global records of anthropogenic a

3 We present a new, automated method for arriving at a classifi

4 We present a rare case presenting to our emergency room with

5 We present an acoustic ejection mass spectrometry (AEMS) setu

6 We present data indicating that this repression occurs, at le

7 We present evidence suggesting pressure to reduce reflected b

8 We present image sequences containing internal temporal struc

9 We present Matched Forest (MF), an algorithm for variable sel

10 We present partially coherent sources that are statistically

11 We present Spectrum, a new spectral clustering method for com

12 We present the current evidence for the two proposed models o

13 We present the first 3D fully kinetic simulations of laser dr

14 We present the method as a challenge to the community to dete

15 ions of the amphibian host Rana pipiens in Ontario, Canada, we present the spatial and temporal heterogeneity in pathogen

16 scovery and subsequent structure-function characterization, we present simple peptides that bind alpha-cobratoxin (alpha-

17 ng cells expressing a WT or S838A/T841A mutant RB fragment, we present evidence that deficiency for this phosphorylation

18 Here we present an End-to-End deep learning framework, circDeep, t

19 Here we present cryo-electron microscopy (EM) data resolving the E

20 Here we present Hybridization of Probes to RNA for sequencing (HyP

21 Here we present recently available data on the atmospheric mole fr

22 Here we present structures of PIPS from Mycobacterium kansasii wit

23 Here we present the first analysis of the N- and O- and glycosphin

24 Here we present the first high-resolution structure of the recepto

25 Here we present two cryo-electron microscopy structures of human P

26 To address this challenge, here we present an enzymatic method to clean up and reconfigure DN

27 In conclusion, here we present a simple tool, extensible to Orbitrap-based mass s

28 Here, we present a combined analysis of 135 fungal genomes from 73

29 Here, we present a framework to quantitatively infer community asse

30 Here, we present a novel approach for in situ extraction of organic

31 Here, we present a protein design algorithm called TopoBuilder, wit

32 Here, we present a resource of SaB prognostic biomarkers.

33 Here, we present a series of Bi(3+)/In(3+) mixed-cationic Cs(2)Bi(1

34 Here, we present a single-cell aggregation and integration (scAI) m

35 Here, we present an approach to modulate extruded inks at the point

36 Here, we present and validate a novel method of MRI velocity-encodi

37 Here, we present global analyses of viral transcript levels to furt

38 Here, we present new tools to overcome these limitations.

39 Here, we present the all-fiber modular optical tweezers (AFMOTs), i

40 Here, we present the near-atomic structures of the BBSome by itself

41 Herein we present a balanced review of the role of exocytosis protei

42 Herein, we present an overview of the literature on carbon black-base

43 Herein, we present our results showing how surface-passivated gold na

44 Herein, we present the results of the prespecified renal composite ou

45 To our knowledge, we present the first study on a multispanning protein incorpo

46 In this Perspective we present key islet miRNA families involved in T2D pathogene

47 In this study, we present an updated land model (LM3PPA-TV) to improve the r

48 In summary, we present a method for ordering patients along a trajectory

49 Here, for the first time, we present a method of transient as well as stable transfecti

50 fic heat, and pressure induced magnetic phase transitions), we present a unifying dynamic bonding model for LnB(6) that e