Diffraction Structure — Vapor-Induced Superionic Conduction of Magnesium Ions in a Metal-Organic Framework

Measurement evidence

Diffraction Structure

Vapor-Induced Superionic Conduction of Magnesium Ions in a Metal-Organic Framework · Yoshida Y., Kato K., Sadakiyo M. · Journal of Physical Chemistry C · 2021 · 21124-21130

3 measurement groups · 11 results

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

XRPD comparison with simulated patterns

Mg-MOF-74 parent powder · Powder

Prepared Mg-MOF-74 and Mg(TFSI)2.8H2O were compared with simulated XRPD patterns.

Atmosphere
air
Geometry
powder
Context
parent MOF and Mg(TFSI)2.8H2O precursor/control
Measurement source
p002 / SI p.S2 · Supporting Information · Figures S2 and S3
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Prepared Mg-MOF-74 XRPD matches simulated patternprepared Mg-MOF-74 pattern corresponds to simulated Mg-MOF-74 patternCaption
Qualitative
p002 / SI p.S2 · Supporting Information · Figure S2
Prepared Mg(TFSI)2.8H2O XRPD matches simulated patternprepared Mg(TFSI)2.8H2O pattern corresponds to simulated patternCaption
Qualitative
p002 / SI p.S2 · Supporting Information · Figure S3

Synchrotron XRPD with Le Bail fitting, SPring-8 BL44B2, lambda = 0.80014 A

Mg-MOF-74 superset {Mg(TFSI)2}0.15 · Powder

Sample sealed in borosilicate glass capillary before and after MeOH vapour exposure following complete dehydration under vacuum at 130 deg C overnight.

Atmosphere
before and after MeOH vapour exposure
Geometry
sealed capillary powder
Context
x = 0.15 salt-loaded MOF under MeOH vapour
Measurement source
p007-p008 / SI p.S7-S8 · Adsorption Behavior for the Guest Vapors · Figures S9-S11
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Le Bail lattice parameter a after MeOH exposurea = 26.0131 A26.0131 AText
Exact Reported
p008 / SI p.S8 · Adsorption Behavior for the Guest Vapors · Figure S11
Le Bail lattice parameter a before MeOH exposurea = 25.7852 A25.7852 AText
Exact Reported
p007 / SI p.S7 · Adsorption Behavior for the Guest Vapors · Figure S10
Le Bail lattice parameter c after MeOH exposurec = 6.8264 A6.8264 AText
Exact Reported
p008 / SI p.S8 · Adsorption Behavior for the Guest Vapors · Figure S11
Le Bail lattice parameter c before MeOH exposurec = 6.8916 A6.8916 AText
Exact Reported
p007 / SI p.S7 · Adsorption Behavior for the Guest Vapors · Figure S10
MeOH adsorption inside MOF pores inferred from XRPD changespeaks shifted and intensity ratios changed after MeOH exposureText
Qualitative
p007-p008 / SI p.S7-S8 · Adsorption Behavior for the Guest Vapors · Figures S9-S11
Unit cell volume after MeOH exposure4000.42 A34000.42 A3Visual Estimate
Exact Reported
p008 / SI p.S8 · Supporting Information · Figure S11
Unit cell volume before MeOH exposure3968.14 A33968.14 A3Visual Estimate
Exact Reported
p007 / SI p.S7 · Supporting Information · Figure S10

Powder X-ray diffraction (Rigaku MiniFlex600, Cu Kalpha) in air

Mg-MOF-74 superset {Mg(TFSI)2}x loading series · Powder

XRPD patterns measured for Mg-MOF-74 superset {Mg(TFSI)2}x at x = 0, 0.07, 0.13, 0.15, and 0.17.

Atmosphere
air
Geometry
powder
Context
salt-loaded MOF series compared with x = 0 control and Mg(TFSI)2.8H2O reference
Measurement source
p003 / article p.21126 · Results and Discussion - Preparation of Mg-Included MOF · Figure 1b
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Mg-MOF-74 framework retained after Mg(TFSI)2 loading up to x = 0.15All samples showed almost the same pattern attributable to Mg-MOF-74.Text
Qualitative
p003 / article p.21126 · Results and Discussion - Preparation of Mg-Included MOF · Figure 1b
Additional Mg(TFSI)2 peaks for x = 0.17x = 0.17 showed additional peaks from Mg(TFSI)2 saltText
Qualitative
p003 / article p.21126 · Results and Discussion - Preparation of Mg-Included MOF · Figure 1b