Diffraction Structure — Electrochemical synthesis of metal organic framework films with proton conductive property

Measurement evidence

Diffraction Structure

Electrochemical synthesis of metal organic framework films with proton conductive property · Zhang F., Zhang T., Zou X. et al. · Solid State Ionics · 2017 · 125-132

5 measurement groups · 12 results

Reported values remain attached to the sample, method, conditions, extraction quality and source location that produced them.

PXRD after water immersion

as-prepared NENU-3 films on copper · Thin Film

NENU-3 film soaked in water at room temperature for 3 days; HKUST-1 comparison immersed in water for 30 min.

Temperature
room temperature
Atmosphere
water
Geometry
film
Context
guest-loaded target framework and pristine HKUST-1 control
Measurement source
5-6 · Stability · Fig. 6B
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
HKUST-1 water instabilitystructure collapse after immersion in water for 30 minText
Qualitative
6 · Stability · Fig. 6B
NENU-3 hydrolytic stabilityminimal PXRD changes after water immersion for 3 daysText
Qualitative
6 · Stability · Fig. 6B

PXRD and mass-loss observations after oxidative exposure

as-prepared NENU-3 films on copper · Thin Film

NENU-3 films exposed to air and oxygen at 50 deg C for 12 h, and to Fenton reagent at 50 deg C up to 24 h.

Temperature
323
Atmosphere
air, oxygen, or Fenton reagent
Geometry
film
Context
guest-loaded target framework
Measurement source
6-7 · Stability · Fig. 7
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
air oxidative-stability exposure50 deg C for 12 hText
Rounded Reported
6-7 · Stability · Fig. 7
Fenton reagent intact timefilm remains intact after 6 hText
Rounded Reported
6-7 · Stability · Fig. 7
Fenton reagent PXRD retention timenegligible PXRD change after 24 hText
Rounded Reported
6-7 · Stability · Fig. 7
Fenton reagent weight loss after 24 habout 2.1% weight lost after 24 hText
Approximate
6-7 · Stability · Fig. 7
oxygen oxidative-stability exposure50 deg C for 12 hText
Rounded Reported
6-7 · Stability · Fig. 7

PXRD

as-prepared NENU-3 films on copper · Thin Film

NENU-3 films prepared for 0.5, 1 and 8 h at 2.0 V compared with simulated pattern.

Temperature
room temperature
Atmosphere
ambient
Geometry
films on copper substrate
Context
guest-loaded target framework
Measurement source
4-5 · Synthesis and characterizations · Fig. 3
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
NENU-3 crystalline phase assigned across time seriesPXRD pattern similar to simulated one, indicating high-purity crystalline phaseQualitative
Qualitative
5 · Synthesis and characterizations · Fig. 3

PXRD, Rigaku D/MAX2550, Cu Kalpha, 2theta 4-40 deg, 6 deg min-1

as-prepared NENU-3 films on copper · Thin Film

NENU-3 films prepared at 1.0, 2.0, 5.0 and 8.0 V for 2 h compared with simulated NENU-3 pattern.

Temperature
room temperature
Atmosphere
ambient
Geometry
films on copper substrate
Context
guest-loaded target framework
Measurement source
2,5 · Characterizations; Synthesis and characterizations · Fig. 1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
NENU-3 crystalline phase assigned across voltage seriesPXRD patterns almost identical to NENU-3 single-crystal simulated patternQualitative
Qualitative
5 · Synthesis and characterizations · Fig. 1

single-crystal structure/literature structural description and PXRD assignment

as-prepared NENU-3 films on copper · Thin Film

NENU-3 framework described as a three-dimensional network with small and larger pores.

Context
guest-loaded target framework
Measurement source
1-2 · Introduction
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
larger pore diameter upper bound11-15 AText
Range
1-2 · Introduction
larger pore diameter lower bound11-15 AText
Range
1-2 · Introduction
small pore diameter6 AText
Rounded Reported
1-2 · Introduction