Fig. 6: Interface structures of a1-a5 PG/AZ91D, b1-b5 PG@PyC-60/AZ91D, c1-c5 PG@PyC-90/AZ91D, and d1-d5 PG@PyC-120/AZ91D composites. | Nature Communications

Fig. 6: Interface structures of a1-a5 PG/AZ91D, b1-b5 PG@PyC-60/AZ91D, c1-c5 PG@PyC-90/AZ91D, and d1-d5 PG@PyC-120/AZ91D composites.

From: Increased electromagnetic interference shielding and load bearing with a three-dimensional pristine graphene@pyrocarbon skeleton in AZ91D

Fig. 6: Interface structures of a1-a5 PG/AZ91D, b1-b5 PG@PyC-60/AZ91D, c1-c5 PG@PyC-90/AZ91D, and d1-d5 PG@PyC-120/AZ91D composites.

a1, b1, c1, d1 TEM images. a2 HRTEM image of Area A in (a1). a3 IFFT image of Area B in (a2). a4 HRTEM image of Area C in (a1). a5 HRTEM image of Area D in (a1). b2 HRTEM image of Area E in (b1). b3 HRTEM image of Area F in (b1). b4 SAED pattern of Area G in (b2). b5 Atomic-resolution HAADF-STEM image of Area H in (b3) (inset image: schematic diagram of HCP Mg). c2 HRTEM image of Area I in (c1). c3 SAED pattern of Area J in (c2). c4 FFT pattern of Area K in (c2). c5 HRTEM image of Area L in (c1). d2, d3 HRTEM images of Area M in (d1). d4 SAED pattern of Area N in (d3). d5 HRTEM image of Area O in (d1). Pristine graphene and pyrocarbon are defined as PG and PyC, respectively.

Back to article page