Synthesis evidence

Electrically Conductive Photoluminescent Porphyrin Phosphonate Metal–Organic Frameworks

Zorlu Y., Wagner L., Tholen P. et al. · Advanced Optical Materials · 2022 · 2200213

1 structured synthesis route

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

Partial recipeSource: Both

Route 1: Solvothermal

3; SI S6 · 2.1 Synthesis of GTUB3; SI 3. Synthesis · Figure S3

Metal precursors0.03 mmol Zn(NO3)2.6H2O; Cu-p-H8TPPA metalloporphyrin linker contains Cu
Linker precursors0.01 mmol {Cu-p-H8TPPA}; 1.5 mmol phenylphosphonic acid
Solvents10 mL DMF and 7.5 mL H2O
Additivesphenylphosphonic acid; pH controlled between 1.7 and 7 to ensure limited deprotonation
Atmospherenot reported
Temperature80
Timenot reported
Work-upyield 90%; purity confirmed by EDX elemental analysis, ICP-MS and powder XRD; isolation/washing/drying not reported
Activationnot reported
Scalability contextMain text reports high-yield synthesis but no scale-up assessment.
Show 5 structured reagent records
RoleReagentAmount / concentrationSource
Metal SourceZn(NO3)2.6H2O0.03 mmol3; SI S6 · 2.1 Synthesis of GTUB3; SI 3. Synthesis · Figure S3
Linker{Cu-p-H8TPPA}0.01 mmol3; SI S6 · 2.1 Synthesis of GTUB3; SI 3. Synthesis · Figure S3
Additivephenylphosphonic acid1.5 mmol3; SI S6 · 2.1 Synthesis of GTUB3; SI 3. Synthesis · Figure S3
SolventDMF10 mL3; SI S6 · 2.1 Synthesis of GTUB3; SI 3. Synthesis · Figure S3
SolventH2O7.5 mL3; SI S6 · 2.1 Synthesis of GTUB3; SI 3. Synthesis · Figure S3