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Pd-205

CAS Number: 2548904-06-7

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Pd-213

Efficient precatalyst for challenging cross-coupling reactions; CAS Number: 166445-62-1

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Pd-30

CAS Number: 7647-10-1

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Pd-61

CAS Number: 14220-64-5

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Pd-63

CAS Number: 21797-13-7

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Pd-93

CAS Number: 32005-36-0

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Pd-94

CAS Number: 51364-51-3

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Phosphine pi-allyl Catalyst Kit

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

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Pd-90

CAS Number: 12107-56-1

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Pd-62

CAS Number: 14592-56-4

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Pd-70

CAS Number: 14024-61-4

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Pd-101

CAS Number: 14221-01-3

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Pd-107

CAS Number: 851232-71-8

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Ru-90

CAS Number: 50982-12-2

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Ru-120

Tetrachlorobis(4-cymene)diruthenium (II) | CAS: 52462-29-0

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Rh-110

CAS Number: 15956-28-2

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Ir-93

CAS Number: 12112-67-3

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Rh-120

CAS Number: 12354-85-7

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Karstedt catalysts

Explore our range of Karstedt catalysts.

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AlaDH-6

Alanine dehydrogenase (AlaDH) catalyses the reductive amination of pyruvate to L-alanine.

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C=C double bond reduction kit

This kit contains 7 ene reductase (ENE) enzymes for the reduction of C=C double bonds in the presence of an electron withdrawing group (EWG).

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Ir-94

CAS Number: 41396-69-4 | [IrCl(COD)Phen] · THF

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Rh-95, rhodium (acetylacetonato)(1,5-cyclooctadiene)

Rhodium(2,4-pentanedionate)(1,5-cyclooctadiene) | CAS: 12245-39-5

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Ru-721

CAS Number: 850424-32-7

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Catalyst enhancement FCC additive

CAT-AID, Johnson Matthey’s catalyst enhancement additive, is designed to overcome many of the shortcomings related to deactivation of base catalyst from metal contaminants such as vanadium, nickel, iron, calcium, sodium, and potassium.

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10R394

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10R487

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5R424

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A402028-10 |10% Palladium/Carbon

10% Palladium/Carbon

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A405028-5

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A405032-5

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A503023-5

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B312099-5

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10R39

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1R128M

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A302011-5

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Oxidation technology

In terms of organic chemistry, oxidation is defined as a reaction which causes carbon to lose electron density. This can be caused by a carbon atom forming a bond with a more electronegative atom (e.g. oxygen, nitrogen), or breaking a bond with a less electronegative atom (e.g. hydrogen).

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Communities

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Butanediol BDO THF GBL DMS process, Hydrogenolysis and Esterification technology

Johnson Matthey is the leading technology provider for butanediol plants worldwide. The DAVY™ butanediol process can produce in a single reaction train, varying ratios of three products; 1,4 butanediol (BDO), tetrahydrofuran (THF), Di-methyl succinate (DMS) and gamma butyrolactone (GBL). Hydrogenolysis is a reaction where hydrogen is added to a compound and breaks that compound’s bonds, forming two molecules as a result. Johnson Matthey's DAVY™ hydrogenolysis technology reacts hydrogen gas (H2) with a vapour-phase carbonyl compound. Esters are organic compounds characterized by the RCOOR’ functional group, and are most commonly derived from the reaction of carboxylic acids with alcohols.

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PURACARE service

PURACARE tailored service is designed to take care of all aspects of operation, maintenance and absorbent/catalyst recycling for our global customers in the Gas Processing industry.

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Product stewardship

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Ruthenium nitrosyl nitrate solution

CAS: 34513-98-9

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Ethanolamine hexahydroxyplatinic acid (Platinum EA solution)

Ethanolamine hexahydroxyplatinic acid

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Achieving net zero by 2040

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BPC-307

P(Ad)2(nBu) A Gen 3 | CAS # 1651823-59-4

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Health and safety

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Membrane electrode assembly (MEA)

MEA solutions for your fuel cell system.

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Gold bromide solid

Hydrogen tetrabromoaurate(III) solid | CAS: 10294-28-7

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Pd-119

CAS Number: 215788-65-1 | PdCl2 (dippf)

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Pd-140

PdCl2 (DCEPhos) | CAS Number: 69861-71-8

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Ammonia cracking catalysts

Ammonia cracking is the process by which ammonia is decomposed towards hydrogen and nitrogen over a catalyst (based on base or pgm metals).

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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.

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Hydrogenation technology

Hydrogenation is a key part of the oxo alcohols process for the production of oxo alcohols, where aldehyde produced by hydroformylation or aldolisation is hydrogenated to produce oxo alcohols.

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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.

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Ethyl acetate process

This Johnson Matthey DAVY™ process is a breakthrough in ethyl acetate (EA) production. We have developed a process that is ideally suited for use with bio-based ethanol feeds and so offers an EA production route that is almost 100% carbon neutral.

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Dehydrogenation technology

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

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Monoethylene glycol (MEG) process

Our new process using proprietary catalyst developed by Johnson Matthey and East­man enables the production of MEG from methanol via formaldehyde. This offers a unique and exciting opportunity for methanol and/or formaldehyde pro­ducers who are interested in diversifying their product slate.

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