Carbon Recycling Catalysts

Carbon Recycling Catalysts

[Carbon Recycling Catalyst product image] (Top) TRC10, (Left) TRC40A, (Right) TRS30A

Carbon Recycling Catalysts by TANAKA Precious Metals


We contribute toward solving the issue of climate change by providing methanation catalysts—which generate methane that serves as a fuel from CO2, a global warming substance that is released into the atmosphere—as well as other catalysts such as carbon dioxide gas reforming catalysts and reverse shift catalysts—which generate CO and hydrogen that serve as chemical raw materials.

Carbon Recycling Catalysts Overview

Features

  • Provides various catalysts based on ruthenium, platinum, and rhodium
  • High durability from use of precious metals
  • High catalytic activity can be maintained even with low precious metal content, enabling the supply of catalysts at low cost

Main products lineup

Reaction Product name Precious metals Particle size (sieve sorting)
Carbon dioxide gas reforming(H2O) TRC10 series Ru Approx. φ2 mm
Carbon dioxide gas reforming(O2) TRC40A series Rh Approx. φ2 mm
Reverse shift TRS30A series Pt Approx. φ2 mm
Methanation TRC10 series Ru Approx. φ2 mm
  • We request for the signing of a Non-Disclosure Agreement (NDA) when providing samples and information such as precious metal content.
  • We also offer consultations regarding the trial manufacture and made-to-order production of customized catalysts tailored to customers’ specific needs.

Carbon Dioxide Gas Reforming Catalysts (H2O)

Hydrogen (H2) and carbon monoxide (CO), which serve as the raw materials for chemical products and fuel, are generated from carbon dioxide gas (CO2) and methane (CH4).


  • Carbon Dioxide Gas Reforming Catalysts (H2O)
  • TRC10

Characteristics of carbon dioxide gas reforming

TRC10〔Ru〕

  • H2 generation concentration, SV-dependence
    [Characteristics of carbon dioxide gas reforming] H2 generation concentration, SV-dependence test results graph
  • CO generation concentration, SV-dependence
    [Characteristics of carbon dioxide gas reforming] CO generation concentration, SV-dependence test results graph
  • 【TEST CONDITION】
    Item Value(Unit)
    CO2/(CO2+CH4) 30.00%
    SV(wet) 2,000 – 4,000 /h
    S/C 0.4
    Pressure 0.3MPa(G)
  • [Post-test catalyst]
    Post-test catalyst
  • *Data for reference from laboratory experiments
  • *This is approximate data as results are affected by factors such as catalyst evaluation conditions, manufacturing conditions, and usage environment.

Carbon Dioxide Gas Reforming Catalysts (O2)

Hydrogen (H2) and carbon monoxide (CO), which serve as the raw materials for chemical products and fuel, are generated from carbon dioxide gas (CO2) and methane (CH4).


  • Carbon Dioxide Gas Reforming Catalysts (O2)
  • TRC40A

Characteristics of carbon dioxide gas reforming

TRC40〔Rh〕

  • H2 generation concentration
    Characteristics of carbon dioxide gas reforming - H2O generation concentration test results graph
  • CO generation concentration
    Characteristics of carbon dioxide gas reforming - CO generation concentration test results graph
  • 【TEST CONDITION】
    Item Value(Unit)
    CH4 4.76%
    CO2 4.76%
    O2/CO2 0.1
    SV 12,000 /h
    Pressure Atmospheric pressure
  • *Data for reference from laboratory experiments
  • *This is approximate data as results are affected by factors such as catalyst evaluation conditions, manufacturing conditions, and usage environment.

Reverse Shift Catalysts

Carbon monoxide (CO), which serve as the raw materials for chemical products and fuel, are generated from carbon dioxide gas (CO2) and hydrogen (H2).


  • Reverse Shift Catalysts
  • TRS30A

Reaction characteristics of Reverse Shift Catalysts

TRS30A series〔Pt〕

  • 【TEST CONDITION】
    Item Value(Unit)
    CO2 5%
    H2 5%
    SV(wet) 4,800 /h

    [Post-test catalyst]
    Post-test catalyst
  • CO generation concentration
    Reaction characteristics of Reverse Shift Catalysts - CO generation concentration  test results graph
  • *Data for reference from laboratory experiments
  • *This is approximate data as results are affected by factors such as catalyst evaluation conditions, manufacturing conditions, and usage environment.

Methanation Catalysts

Methane (CH4), which serves as the raw material for city gas and such, is synthesized from carbon dioxide gas (CO2)—which causes global warming—and hydrogen (H2).


  • Methanation Catalyst  TRC10

Reaction characteristics of Methanation Catalyst

TRC10〔Ru〕

  • 【TEST CONDITION】
    Item Value(Unit)
    H2 75%
    CO2 19%
    N2 5%
    GHSV(h-1) 3,000~9,000 /h
  • CO2 conversion rate, SV-dependence
    Reaction characteristics of Methanation Catalyst - CO2 conversion rate, SV-dependence test results graph
  • *Data for reference from laboratory experiments
  • *This is approximate data as results are affected by factors such as catalyst evaluation conditions, manufacturing conditions, and usage environment.

Methane combustion catalyst (sulfur-resistant)

  • Methane combustion catalyst (sulfur-resistant)

Features

  • Allows combustion of methane at relatively low temperatures
  • Enhanced resistance to sulfur, reducing deterioration of catalytic performance due to sulfur

Main product lineup

Product name Active species Shape Features
CC41 Pt/Ir Honeycomb High resistance to sulfur
  • We request for the signing of a Non-Disclosure Agreement (NDA) when providing samples and information such as precious metal content.
  • We also offer consultations regarding the trial manufacture and made-to-order production of customized catalysts tailored to customers’ specific needs.

Methane combustion reaction characteristics

CC41〔Pt/Ir〕

  • SV-dependence
    Methane combustion reaction characteristics - SV-dependence test results graph
  • Performance change when sulfur is introduced
    Methane combustion reaction characteristics - Performance change when sulfur is introduced test results graph
  • 【TEST CONDITION】
    Item Value(Unit)
    CH4 2,000ppm
    O2 10%
    H2O 10%
    SV 25,000 – 80,000 /h
  • 【TEST CONDITION】
    Item Value(Unit)
    CH4 2,000ppm
    O2 10%
    H2O 10%
    SV 50,000 /h
    S 1ppm

It exhibits sustainable performance even in methane oxidation containing sulfur.

  • *Data for reference from laboratory experiments
  • *This is approximate data as results are affected by factors such as catalyst evaluation conditions, manufacturing conditions, and usage environment.