Synthesis evidence

Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms

Yao M.-S., Otake K.-I., Koganezawa T. et al. · Proceedings of the National Academy of Sciences of the United States of America · 2023 · e2305125120

11 structured synthesis routes

Completeness describes how fully the route could be reconstructed from the main article and supporting information.

Complete recipeSource: SI

Route 1: Other

SI p002 · Preparation of Cu-BDC thin films

Metal precursorscopper acetate (1.0 mM in ethanol)
Linker precursors1,4-benzenedicarboxylic acid (BDC, 0.2 mM in ethanol)
Solventsethanol
Additivesfunctionalized substrate
Atmosphereambient/room temperature; drying atmosphere not specified
Temperatureroom temperature
Time10 s Cu immersion then 20 s BDC immersion per cycle; 10 cycles
Substrate orientationoriented thin film on substrate
Oxidant / reductantnone reported
Work-upethanol rinse between each step
Activationnone reported
Scalability contextDipping/immersion LPE-style cycle.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate1.0 mMSI p002 · Preparation of Cu-BDC thin films
Linker1,4-benzenedicarboxylic acid (BDC)0.2 mMSI p002 · Preparation of Cu-BDC thin films
SolventethanolNot specifiedSI p002 · Preparation of Cu-BDC thin films
Complete recipeSource: SI

Route 2: Other

SI p002 · Preparation of Cu-BTC thin films

Metal precursorscopper acetate (1.0 mM in ethanol)
Linker precursors1,3,5-benzenetricarboxylate (BTC, 0.5 mM in ethanol)
Solventsethanol
Additives-NH2 functionalized substrates
Atmosphereambient/room temperature; drying atmosphere not specified
Temperatureroom temperature
Time3 min Cu immersion then 5 min BTC immersion per cycle; 10 cycles
Substrate orientation-NH2 functionalized substrate
Oxidant / reductantnone reported
Work-upethanol rinse between each step
Activationnone reported
Scalability contextDipping/immersion cycle adapted from Weckhuysen work.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate1.0 mMSI p002 · Preparation of Cu-BTC thin films
Linker1,3,5-benzenetricarboxylate (BTC)0.5 mMSI p002 · Preparation of Cu-BTC thin films
SolventethanolNot specifiedSI p002 · Preparation of Cu-BTC thin films
Complete recipeSource: SI

Route 3: Solvothermal

SI p003 · Preparation of Cu-HHTP nanocrystals

Metal precursorscopper acetate (40 mg)
Linker precursorsHHTP (32.5 mg)
Solventsmethanol (28 mL; text typo 'methnol')
Additivesnone reported
Atmospheresealed glass bottle; dried under vacuum
Temperature65
Time24 h reaction after 15 min ultrasonication; 2 h vacuum drying
Substrate orientationnone
Oxidant / reductantnone reported
Work-upwash five times with methanol by dispersion and centrifugation at 4500 rpm for 10 min
Activationdried under vacuum at 65 C for 2 h
Scalability contextBatch nanocrystal synthesis in a 50 mL sealed glass bottle.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate40 mgSI p003 · Preparation of Cu-HHTP nanocrystals
LinkerHHTP32.5 mgSI p003 · Preparation of Cu-HHTP nanocrystals
Solventmethnol (MeOH) [sic]28 mLSI p003 · Preparation of Cu-HHTP nanocrystals
Partial recipeSource: Both

Route 4: Other

SI p002 · Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films

Metal precursorsas corresponding Cu-HHTP face-on or edge-on route
Linker precursorsas corresponding Cu-HHTP face-on or edge-on route
Solventsethanol
AdditivesCu-BDC or Cu-BTC bottom iMOF thin films as substrates
AtmosphereN2 drying for Cu-HHTP LbL steps
Temperatureroom temperature for Cu-HHTP LbL spraying
Timesame as face-on/edge-on Cu-HHTP routes; cycle count depends on upper layer
Substrate orientationCu-BDC or Cu-BTC thin film substrate
Oxidant / reductantnone reported
Work-upsame rinse/drying as Cu-HHTP LbL route
Activationnone reported
Scalability contextBottom iMOF significantly affects quality of the secondary cMOF film.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
OtherCu-BDC or Cu-BTC thin film substrateNot specifiedSI p002 · Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
Metal Sourcecopper acetate0.1 or 1.0 mM depending on Cu-HHTP routeSI p002 · Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
LinkerHHTP0.1, 1.0, or 2.0 mM depending on routeSI p002 · Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
Complete recipeSource: Both

Route 5: Other

SI p002 · Preparation of edge-on Cu-HHTP thin films

Metal precursorscopper acetate (0.1 mM in ethanol)
Linker precursorsHHTP (0.5 mM in ethanol)
Solventsethanol; pure ethanol rinse
Additivesfunctionalized substrate
AtmosphereN2 drying after each step
Temperatureroom temperature for spraying
Time13 s Cu spray and 26 s HHTP spray per LbL cycle; x cycles
Substrate orientation-OH functionalized substrate; weak edge-on/a-b orientation observed
Oxidant / reductantnone reported
Work-uppure ethanol spray/rinse; N2 drying
Activationnone reported
Scalability contextUses 5x higher HHTP concentration than Cu0.1 P0.1 face-on route.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate0.1 mMSI p002 · Preparation of edge-on Cu-HHTP thin films
LinkerHHTP0.5 mMSI p002 · Preparation of edge-on Cu-HHTP thin films
SolventethanolNot specifiedSI p002 · Preparation of edge-on Cu-HHTP thin films
Complete recipeSource: Both

Route 6: Other

SI p002 · Preparation of edge-on Cu-HHTP thin films

Metal precursorscopper acetate (0.1 mM in ethanol)
Linker precursorsHHTP (1.0 mM in ethanol)
Solventsethanol; pure ethanol rinse
Additivesfunctionalized substrate
AtmosphereN2 drying after each step
Temperatureroom temperature for spraying
Time13 s Cu spray and 26 s HHTP spray per LbL cycle; x cycles
Substrate orientationedge-on/a-b oriented; c-axis parallel to substrate
Oxidant / reductantnone reported
Work-uppure ethanol spray/rinse; N2 drying
Activationnone reported
Scalability contextHigh ligand concentration supports stand-up packing and edge-on orientation.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate0.1 mMSI p002 · Preparation of edge-on Cu-HHTP thin films
LinkerHHTP1.0 mMSI p002 · Preparation of edge-on Cu-HHTP thin films
SolventethanolNot specifiedSI p002 · Preparation of edge-on Cu-HHTP thin films
Complete recipeSource: Both

Route 7: Other

SI p002 · Preparation of edge-on Cu-HHTP thin films

Metal precursorscopper acetate (0.1 mM in ethanol)
Linker precursorsHHTP (2.0 mM in ethanol)
Solventsethanol; pure ethanol rinse
Additivesfunctionalized substrate
AtmosphereN2 drying after each step
Temperatureroom temperature for spraying
Time13 s Cu spray and 26 s HHTP spray per LbL cycle; x cycles
Substrate orientationedge-on/a-b oriented; c-axis parallel to substrate
Oxidant / reductantnone reported
Work-uppure ethanol spray/rinse; N2 drying
Activationnone reported
Scalability context20x higher HHTP concentration than Cu0.1 P0.1 route; feeding rate about 173.1 molecules nm-2 s-1.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate0.1 mMSI p002 · Preparation of edge-on Cu-HHTP thin films
LinkerHHTP2.0 mMSI p002 · Preparation of edge-on Cu-HHTP thin films
SolventethanolNot specifiedSI p002 · Preparation of edge-on Cu-HHTP thin films
Complete recipeSource: Both

Route 8: Other

SI p002 · Preparation of face-on Cu-HHTP thin films

Metal precursorscopper acetate (0.1 mM in ethanol)
Linker precursorsHHTP (0.1 mM in ethanol)
Solventsethanol; pure ethanol rinse
Additivesfunctionalized substrate
AtmosphereN2 drying after each step
Temperatureroom temperature for spraying
Time20 s Cu spray and 40 s HHTP spray per LbL cycle; x cycles
Substrate orientation-OH functionalized substrate; face-on/c-oriented 2D planes
Oxidant / reductantnone reported
Work-uppure ethanol spray/rinse; N2 drying
Activationnone reported
Scalability contextReduced Cu concentration gives about 2 nm growth per cycle and improved orientation.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate0.1 mMSI p002 · Preparation of face-on Cu-HHTP thin films
LinkerHHTP0.1 mMSI p002 · Preparation of face-on Cu-HHTP thin films
SolventethanolNot specifiedSI p002 · Preparation of face-on Cu-HHTP thin films
Complete recipeSource: Both

Route 9: Other

SI p002 · Preparation of face-on Cu-HHTP thin films

Metal precursorscopper acetate (1.0 mM in ethanol)
Linker precursorsHHTP (0.1 mM in ethanol)
Solventsethanol; pure ethanol rinse
Additivesfunctionalized Si, Si/SiO2, glass, Cr/Au, or mica substrates depending on measurement
AtmosphereN2 drying after each step
Temperatureroom temperature for spraying; substrate functionalization includes Piranha at 100 C and optional 3-APTS at 50 C for 24 h
Time20 s Cu spray and 40 s HHTP spray per LbL cycle; x cycles
Substrate orientation-OH functionalized substrate; face-on/c-oriented 2D planes
Oxidant / reductantnone reported
Work-uppure ethanol spray/rinse to remove residual reactants; N2 drying each step
Activationnone reported
Scalability contextSpray LbL-LPE method gives controlled thickness increment and smooth surface.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Metal Sourcecopper acetate1.0 mMSI p002 · Preparation of face-on Cu-HHTP thin films
LinkerHHTP (2,3,6,7,10,11-hexahydrotriphenylene)0.1 mMSI p002 · Preparation of face-on Cu-HHTP thin films
SolventethanolNot specifiedSI p002 · Preparation of face-on Cu-HHTP thin films
Complete recipeSource: SI

Route 10: Other

p002-p003 · Materials and Methods; Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films

Show 5 structured reagent records
RoleReagentAmount / concentrationSource
OtherCu-BTC-10C thin filmNot specifiedp002-p003 · Materials and Methods; Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
Metal Sourcecopper(II) acetate in ethanol1.0 mMp002-p003 · Materials and Methods; Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
LinkerHHTP (2,3,6,7,10,11-hexahydrotriphenylene) in ethanol0.1 mMp002-p003 · Materials and Methods; Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
SolventethanolNot specifiedp002-p003 · Materials and Methods; Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
OthernitrogenNot specifiedp002-p003 · Materials and Methods; Preparation of face-on/edge-on Cu-HHTP thin films on iMOF heterostructured thin films
Partial recipeSource: Both

Route 11: Other

p006 · Materials and Methods

Metal precursorsCu-BTC route precursors for top layer; Cu-HHTP/Cu-BTC bilayer substrate
Linker precursorsBTC for top iMOF layer
Solventsethanol
Additivesface-on Cu1.0 P0.1-40C-on-Cu-BTC thin film substrate
Atmospherenot specified beyond component routes
Temperatureroom temperature for Cu-BTC dipping
Timesimilar Cu-BTC route; exact details not restated
Substrate orientationMoM thin film substrate
Oxidant / reductantnone reported
Work-upethanol rinse between Cu-BTC steps by analogy
Activationnone reported
Scalability contextDemonstrates multilayered MoM construction.
Show 3 structured reagent records
RoleReagentAmount / concentrationSource
Otherface-on Cu1.0 P.01-40C-on-Cu-BTC thin filmsNot specifiedp006 · Materials and Methods
Metal Sourcecopper acetate1.0 mM by Cu-BTC routep006 · Materials and Methods
LinkerBTC0.5 mM by Cu-BTC routep006 · Materials and Methods