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Copper Chromite (CuCr₂O₄) — Catalyst Grade Cu–Cr Oxide for Hydrogenation Systems
Cu–Cr mixed oxide supplied as a catalyst component or precursor, designed for reduction activation and structured catalytic formulations.
Introduction

Copper chromite (CuCr₂O₄) catalyst grade is a copper–chromium mixed oxide supplied for use as an active catalytic component or precursor in industrial hydrogenation and reduction systems.

This material is not a finished catalyst. It is intended for formulation with supports, binders, and shaping processes, followed by controlled reduction activation (typically hydrogen) to generate the catalytically active Cu–Cr surface.

Typical applications include aldehyde-to-alcohol hydrogenation, ester hydrogenation, and Cu–Cr based catalytic systems where thermal stability, controlled reducibility, and mechanical robustness are required.

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Product Parameter
ParameterValue
ColorBlack
Main crystalline phaseCuCr₂O₄
Heat resistance (°C)480 °C
Particle size / fineness (µm)1–3 µm
Electrical conductivity (C: graphite reference)>75% IACS
Acid resistance5
Product feature

Product Characteristics (Catalyst Grade)

Copper Chromite (CuCr₂O₄) — Catalyst Grade

Concepts Referenced

  • Copper chromite (CuCr₂O₄)
  • Copper–chromium mixed oxide
  • Catalyst component / precursor
  • Reduction activation (hydrogen activation)
  • Supported catalysts (inorganic supports)
  • Shaping (pelletization, extrusion)
  • Porosity and mass transfer
  • Deactivation (poisoning, sintering)
  • Hydrogenation (aldehyde-to-alcohol, ester hydrogenation)

Copper chromite (CuCr₂O₄) is a Cu–Cr mixed oxide supplied as a catalyst component or precursor. After formulation and reduction activation, it forms catalytically active copper species stabilized by chromium oxide phases.

  • Chemical composition: Cu–Cr mixed oxide (primary phase: CuCr₂O₄)
  • Physical form: Black ceramic oxide powder
  • Typical particle size (D50): 1–3 µm (formulation dependent)
  • Thermal stability: Suitable for high-temperature catalyst preparation and operation (≤ ~480 °C typical; atmosphere dependent)
  • Redox behavior: Reducible Cu²⁺ → Cu⁰/Cu⁺ under hydrogen activation
  • Mechanical robustness: Suitable for pelletization, extrusion, or supported systems

Functional Role in Catalysis

  • Acts as an active catalytic component after reduction activation
  • Provides Cu active sites stabilized by Cr-oxide matrix
  • Supports long-term thermal and mechanical stability

Explicit Boundary Conditions

  • Not supplied as a ready-to-use catalyst
  • Requires formulation with supports/binders
  • Requires reduction activation before catalytic use
  • Final performance depends on shaping, porosity, and operating conditions

FAQ

  1. Is this a finished catalyst?
    No. It is a catalyst-grade component or precursor.
  2. Does it require activation?
    Yes. Typically reduced under hydrogen.
  3. What reactions is it used for?
    Hydrogenation and Cu–Cr based reduction systems.
  4. Can it be supported?
    Yes. Commonly formulated with inorganic supports.
  5. Is it electrically conductive?
    Conductivity is not a functional design target for catalytic use.
  6. What data is available?
    TDS, SDS, CoA, phase ID, and redox behavior summaries.
  7. Is chromium leachable?
    Leachability depends on formulation and operating environment.
  8. Can it replace Raney copper?
    No. It serves different stability and structural roles.

Data source: Internal QC and typical catalyst-grade specifications. Final performance must be validated in the customer’s catalytic system.

Definition: Copper chromite (CuCr₂O₄) is a Cu–Cr mixed oxide used as a catalyst component or precursor that typically requires reduction activation to generate catalytically active copper sites stabilized by chromium oxide phases.

Application area
Hydrogenation catalysts (aldehydes, esters); Cu–Cr mixed oxide catalytic systems; supported copper catalysts; structured catalysts requiring thermal and mechanical stability; research and industrial catalyst formulation.