Guangzhou Eric Wei Chemical Co., Ltd.
Guangzhou Eric Wei Chemical Co., Ltd.

Clariant H2Max Series Catalyst

Clariant H2Max Series Catalyst is a high-performance, sulfur-tolerant hydrogenation catalyst designed for selective H₂ utilization in refining and chemical synthesis. Featuring proprietary nickel-molybdenum active phases on engineered alumina support, it delivers superior stability, extended cycle life, and enhanced resistance to feed impurities versus conventional catalysts—ideal for hydrotreating, hydrodeoxygenation, and sustainable fuel production.
  • clariant h2max series catalyst_6c8a3164
  • clariant h2max series catalyst_6c8a3164

Features Of Clariant H2Max Series Catalyst

  1. Highly selective hydrogenation performance for sensitive functional groups under mild operating conditions.

  2. Exceptional thermal and chemical stability, enabling extended catalyst lifetime in continuous fixed-bed reactors.

  3. Low metal leaching and minimal sintering, ensuring consistent activity and reduced downstream contamination risk.

  4. Tailored pore structure for optimized mass transfer and reduced pressure drop in large-scale industrial units.

  5. Sulfur-tolerant formulation suitable for feedstocks with trace sulfur impurities without rapid deactivation.

Typical Applications Of Clariant H2Max Series Catalyst

  1. Selective hydrogenation of nitroarenes to aromatic amines in fine chemical synthesis.

  2. Hydrogenation of unsaturated aldehydes to unsaturated alcohols (e.g., citral to geraniol/nerol).

  3. Dehydrogenation-coupled reactions in hydrogen purification and syngas conditioning systems.

  4. Upgrading of bio-based feedstocks including fatty acid methyl esters (FAME) and pyrolysis oil fractions.

  5. Catalytic treatment of refinery off-gases for deep hydrogen recovery and H₂S abatement support.

Specifications Of Clariant H2Max Series Catalyst

Chemical TypePromoted noble metal (Pd/Pt) on high-surface-area oxide support
Product FormExtrudates (1.5–3.0 mm diameter) or spherical pellets
AppearanceGray to black free-flowing solid granules
Primary ApplicationsSelective hydrogenation, hydrodeoxygenation (HDO), and hydrogen purification
Key FeaturesLow-temperature activity, sulfur resilience, regenerable design
BenefitsReduced energy consumption, higher product selectivity, lower catalyst replacement frequency
Storage ConditionsStore in sealed containers under inert atmosphere at ambient temperature
Handling PrecautionsAvoid exposure to air when reduced; use under nitrogen or argon during loading


Clariant H2Max Series Catalyst – Frequently Asked Questions (FAQ)

Q1: What is the primary function of the Clariant H2Max Series Catalyst in hydrogenation processes?

A: The H2Max Series Catalyst is designed to enhance reaction efficiency and selectivity in low-pressure hydrogenation applications, particularly for unsaturated organic compounds such as alkenes, alkynes, and nitro groups—enabling robust performance under milder process conditions.


Q2: Is the H2Max Series suitable for use in continuous-flow reactor systems?

A: Yes, the catalyst is engineered for compatibility with both batch and continuous-flow configurations, offering stable activity and minimal leaching when properly integrated into fixed-bed or slurry-phase systems.


Q3: How does the H2Max Series compare to conventional palladium-based catalysts in terms of sulfur tolerance?

A: The H2Max Series demonstrates improved resistance to sulfur-containing impurities compared to many standard Pd/C formulations, supporting longer catalyst lifetime in feedstocks with trace sulfur species—though pretreatment remains recommended for highly contaminated streams.


Q4: What are typical handling and storage recommendations for this catalyst?

A: Store in a cool, dry place under inert atmosphere; avoid exposure to air, moisture, or strong oxidizing agents. Handle using appropriate personal protective equipment, and follow standard industrial hygiene practices for fine metal catalysts.


Q5: Can the H2Max Series be regenerated after deactivation?

A: Regeneration feasibility depends on the nature and extent of deactivation; thermal or chemical treatments may restore partial activity in some cases, but Clariant recommends evaluating economic and technical viability on a case-by-case basis rather than routine regeneration.



Get in Touch with ERICW
Let competitive chemical materials go global.

Your Name *

Your Email *

Your Phone

Country

Your Message *