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Pd-205

[HJohnPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-06-7

Pd-172

SPhos Pd(crotyl)Cl | CAS Number: 1798781-99-3

Pd-171

RuPhos Pd(crotyl)Cl | CAS Number: 1798781-96-0

Pd-192

[HXPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-04-5

Pd-193

[HRuPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-00-1

Pd-194

[HSPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-02-3

Pd-195

[HBrettPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-08-9

Pd-196

[HtBuXPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-05-6

Pd-197

[HtBuBrettPhos]₂[Pd₂Cl₆] | CAS Number: 2548904-09-0

Pd-173

[BrettPhos Pd(crotyl)]OTf | CAS Number: 1798782-11-2

Pd-174

[tBuXPhos Pd(allyl)]OTf | CAS number: 1798782-25-8

Pi-allyl palladium catalyst kit

Our range of pi-allyl palladium catalysts are highly active, across a range of challenging cross-coupling reactions.

Pd-183

AmPhos Palladacycle 2nd Gen | CAS number: 2169976-34-3

Pd-184

APhos Pd G3 | CAS Number: 1820817-64-8

Pd-185

(PCy₃) Pd G2 | CAS Number: 1353658-81-7

Pd-187

XantPhos Pd G3 | CAS Number: 1445085-97-1

Pd-189

JohnPhos Pd(crotyl)Cl | CAS Number: 1798782-05-4

Pd-188

CyJohnPhos Pd(crotyl)Cl | CAS Number: 692782-19-7

Pt-114

CAS Number: 68478–92–2

Pd-215

[RockPhos Pd(allyl)]OTf | CAS Number: 1798782-31-6

Pd-166

PdCl₂ [P(tBu)(Cy)₂]₂ | CAS Number: 104889-13-6

Pd-168

[P(tBu)₃] Palladacycle 2nd Gen | GenCAS Number: 1375325-71-5

Pd-161

AmPhos Pd(crotyl)Cl | CAS Number: 1334497-06-1

Pd-162

[P(tBu₃)] Pd(crotyl)Cl | CAS Number: 1334497-00-5

Pd-164

[PdCl (crotyl)]₂ | CAS Number: 12081-22-0

Pd-170

XPhos Pd(crotyl)Cl | CAS Number: 1798782-02-1

RTA-194: R-transaminase

Aromatic and aliphatic primary amines can be obtained using our Transaminases

Ru-137

[(S)-Binap RuCl p-cymene]Cl | CAS Number: 14284-93-6

Ru-139

Tris(2,2′-bipyridyl)dichlororuthenium(II) hexahydrate | CAS Number: 50525-27-4

5R58

5R58

C301099-5

D9-5302011

5% Ruthenium on alumina

5R122

2.5% Pd, 2.5% Pt on carbon

5R430

5R122

5% Ru, 0.5% Pd on carbon

Cataflo Pt2

Pt on alumina catalyst for flow chemistry

Cataflo Pt1

Pt on carbon catalyst for flow chemistry

QuadraSil MP (I)

Irregular silica for metal impurity removal and value recovery

Amination technology

Amines are compounds derived from ammonia and contain a nitrogen atom with a lone electron pair. Amination is the process by which an amine group is added to an organic compound.

Amination catalysts

Our amination catalysts are used for a variety of speciality amines production and downstream of our oxo-alcohol catalysts.

Biorenewable catalysts

Following recent environmental legislation and an increasing awareness on the part of product manufacturers for sustainable products, the need to replace non-renewable fossil raw materials is more apparent than ever.

Pyrolysis gasoline hydrogenation catalysts

Formaldehyde plant range

The latest FORMOX™ plant design is a step further in the evolution of our plant technology.

Hydrogenation catalysts

Explore Johnson Matthey's hydrogenation catalysts, offering base metal and precious metal solutions for selective and total hydrogenation applications.

Dehydrogenation catalysts

Johnson Matthey offers a variety of different dehydrogenation catalysts for different markets, including the manufacture of caprolactam and olefins.

Fluorination catalysts

Johnson Matthey's fluorination catalysts are based on chromia for the vapour phase fluorination of alkenes and halocarbons with HF for the production of a wide range of fluorochemicals.

FORMOX 2.0

High pressure plants and catalysts - get 30% higher capacity with FORMOX 2.0

Choline chloride process

Our DAVY™ choline chloride technology includes a continuous single-stream process in which ethylene oxide, hydrochloric acid, trimethylamine (TMA) are reacted under moderate conditions to produce choline chloride.

Dehydrogenation technology

While various dehydrogenation pathways exist for different compounds, Johnson Matthey's DAVY™ technology focusses on alcohol dehydrogenation to yield an ester product.

Propylene glycol process

Our DAVY™ glycerol to propylene glycol (GPG) process is a perfect fit for our DAVY biodiesel process as the by-product, glycerol, can be fed to an adjoining GPG plant.

Oxo alcohols process

Johnson Matthey offers oxo-alcohol processes and a complete range of catalysts suitable for oxo-alcohol manufacture. The LP OxoSM technology is the world’s leading technology for use in the manufacture of oxo alcohols from olefins.

Ammonia synthesis catalysts

Johnson Matthey offers high-performance ammonia synthesis catalysts, including KATALCO™ series, ensuring long lifetimes and efficient ammonia production.

Secondary reforming catalysts

The range of KATALCO QUADRALOBE secondary reforming catalysts provide both high stability and high activity, allowing us to offer the best mix of activity, pressure drop and high temperature stability for your application.

CATACEL SSR catalyst for steam reforming

Johnson Matthey’s CATACEL SSR tailored catalyst technology is a proven high performance, direct replacement catalytic solution for producing hydrogen from natural gas through the steam reforming process.

High temperature shift catalysts

Read about our high temperature shift catalysts. Our latest high activity products are the result of extensive catalyst development in high temperature duties.

Low temperature shift catalysts

The latest products in our low temperature shift range combine high activity and poisons resistance with excellent selectivity to give low methanol by-product formation.

Methanation catalysts

Methanation is the reaction by which carbon oxides and hydrogen are converted to methane and water. The reaction is catalysed by nickel catalysts. In industry, there are two main uses for methanation, to purify synthesis gas (i.e. remove traces of carbon oxides) and to manufacture methane.

Other shift catalysts

Medium temperature shift (MTS) and isothermal shift (ITS) catalysts are becoming more common in use.

Pre-reforming catalysts

Johnson Matthey has a long legacy in pre-reforming catalysts dating back to the 1960s and offers the CRG series of catalysts.