The Innovation Catalyst - XiMo - ヒドラス化学株式会社

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XiMo - The Innovation Catalyst

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XiMo 輸入元・日本代理店 ヒドラス化学株式会社 Tel.03-3258-5031 Fax.03-3258-6535 info@hydrus.co.jp www.hydrus.co.jp
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Our mission is to enable our clientsto reach their goals…

XiMo – The Innovation Catalyst

Timea Ladi, Commercial, Managing DirectorTimea.Ladi@ximo-inc.comXiMo Hungary Kft.Berlini utca 47-49. | H-1045Budapest

Phone: +36 1 580 2000Mobile: +36 30 151 23 88

Levente Ondi, Ph.D., Technology, Managing DirectorLevente.Ondi@ximo-inc.comXiMo Hungary Kft.Berlini utca 47-49. | H-1045Budapest

Phone: +36 1 580 2200Mobile: +36 30 975 18 21

www.ximo-inc.com

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Nobel Prize winning technology

Proven technology ready to transform the chemical industryExclusive licenses to metathesis technology

XiMo Founded in 2010 and

Acquired by Verbio in 2018 – Production and Application of Renewables

Verbio is a strategic investor with a focus on renewable fuels and chemicals.

Development, Manufacture and Supply of Highly Active Metathesis Catalysts

Process Development for Large-Scale Metathesis Reaction

Exclusive Licenses in Metathesis

MIT/Boston College, ETH/Osaka, University of Stuttgart, Max Planck Institute

Collaboration Driven Research - Fragrances, Pheromones, performance Polymers

Three partners are actively commercializing products.

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XiMo developed catalyst process technology and demonstrated scale production for both Mo- and W-based complexes.

From Glovebox to KiloLab – up to 3 kg / batch

Successful technology transfer with local manufacturer (SONEAS, Hungary)

Initial intermediate production up to 200 kg batch size

Process optimization: 3-4 process steps for catalyst synthesis

Industrial grade solvents with option of recycling

Produced catalysts was successfully applied using tons of feedstocks.

@25 ppm by weight loading 15 kg of catalyst is enough for the transformation of 600 mt of feedstock

Industrialization

Scaling production: Catalyst

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• Diverse technology platform with High TON offering a range of transformations including control of stereochemistry.

Industrialization

Scaling production: Commercial ProductsRenewables:

Olefin Feedstock Pretreatment Catalyst Addition Reaction Vessel

from Lab to Pilot Plant

Process Development

Successful Technology Transfer

Predictable results

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Market Driven Innovation

Applications for XiMo’s catalystsXiMo’s technology can be used for product solutions in a variety of industries

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Industrialization

Some real-life examplesRenewables: Sustainable Products

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Industrialization

Some real-life examplesFragrances:

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Industrialization

Some real-life examplesSpecialty Chemicals: Performance Polymers

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Exchange of alkylidene fragments

Scission and regeneration of carbon-carbon double bonds

Catalyzed by transition-metal alkylidenes

Versatile organic transformations

High potential in

Pharma, Agro, Polymer, Renewable and Fine Chemical Industries

Sustainable Solutions – Energy and Cost Effective with Less Waste

Since 1990 ca. 7500 publications, >900 patents, over 76,000 preparedsubstances *

Olefin metathesis – a powerful synthetic tool

*SciFinder, 2014.

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Developing New Catalysts

Stabilizing Active Catalysts – Chemical & Physical Protection

Catalyst Production – From Glovebox to KiloLab and Pilot Plant

Lowering Catalyst Loading – Optimization of reaction conditions: 30-100 ppmwt !!!

Process Development for Metathesis Reaction – from Lab to Pilot Plant

Catalyst Immobilization

Application in continuous processes

Cooperation with ETH Zürich and University of Stuttgart

Innovative R&D activities

Sigman, M. S. and Copéret, C. et al. J. Am. Chem. Soc. 2015, 137, 6699.Buchmeiser, M. and Copéret, C. et al. Angew. Chem. Int. Ed. 2016, 55, 4300.

Air-StableSelf Activating

Catalyst

Supported Catalysts

FormulatedCatalysts

Bulk Catalyst Powder

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Special features of Mo/W metathesis catalysts:

High activity - Low catalyst loading in the range of 10 – 100 ppmwt

Z-selective carbon-carbon double bond formation

Enantioselective metathesis reactions

Ethenolysis: Cross metathesis with ethylene

Functional group tolerance:

Amines – frequently present in natural and biologically active substances

Enol ethers – introduction of a readily convertible FG to the molecule

Vinyl halides – introduction of Cl, Br, and F into the molecule

Introduction of a CF3 group into biologically active molecules can beparticularly beneficial; modification of membrane permeability and drugmetabolism

Triple bond – triple bond (alkyne-alkyne) metathesis

Industrial Benefits of XiMo’s Catalysts

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Fundamental of Cross Metathesis(Statistical distribution of alkene fragments)

Z-selective Cross Metathesis of Allylic Amides

Hoveyda, et al. Nature 2011, 471, 461.

Literature Examples

Cross Metathesis I.

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Direct synthesis of Z-alkenyl fluorides through catalytic cross-metathesis

Demonstration of functional group compatibility

Hoveyda, et al. Nature 2016, 531, 459.

Literature Examples

Cross Metathesis II.

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Schrock, Hoveyda, et al. J. Am. Chem. Soc, 2013, 135, 6026.

Synthesis of Z-(Pinacolato)boron Compounds through Stereoselective CatalyticCross Metathesis – Intermediates for Cross Coupling

Literature Examples

Cross Metathesis III.

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Z-Selective Cross Metathesis of Enol Ethers

Hoveyda, et al. Nature 2011, 471, 461.

N

Mo

O Br

OTBSBr

PhN

Literature Examples

Cross Metathesis IV.

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Cross Metathesis with Ethylene - Ethenolysis

Schrock, et al. J. Am. Chem. Soc. 2009, 131, 10840.

Literature Examples

Cross Metathesis V.

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Bi-functionalization of substrates derived from renewable sources

XiMo unpublished results

Literature Examples

Cross Metathesis VI.

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Direct synthesis of Z-alkenyl halides through catalytic ring opening cross-metathesis – Intermediates for Cross Coupling

Hoveyda, et al. Nature 2016, 531, 459.

Literature Examples

Ring Opening Cross Metathesis (ROCM)

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Z-selective/Enantioselective RCM towards biologically active products

Hoveyda, et al. Nature 2011, 479, 88. Hoveyda, et al. Nature 2008, 456, 933.

Literature Examples

Ring Closing Cross Metathesis (RCM) I.

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Asymmetric Ring Closing Metathesis (ARCM) - Amides

Schrock, Hoveyda, et al. J. Am. Chem. Soc. 2005, 127, 8526.

Literature Examples

Ring Closing Cross Metathesis (RCM) II.

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Schrock, Hoveyda, et al. PNAS 2004, 101, 5805.

Schrock, Hoveyda, et al. J. Am. Chem. Soc. 2001, 123, 3139.

Asymmetric Ring Opening and Ring Closing Metathesis

Literature Examples

Tandem Asymmetric ROM/RCM

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Stereospecific ROMP of norbornenes to produce polymers with high meltingpoints and crystallinity

Literature Examples

Ring Opening Cross Metathesis Polymerization (ROMP)

Schrock, et al. Macromolecules 2015, 48, 2480.

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Literature Examples

Ring Opening Cross Metathesis Polymerization (ROMP)Thermally Latent Catalysts

Tunable onset polymerization temperatureTunable exothermic maximumTailor-made catalysts with high flexible polymerization properties

Neutral Mo-based NHC (N-Heterocyclic Carbenes)

Penta- or hexacoordinate

High structural variability

High stability – air stability

resistance to impurities in monomer

(e.g.: DCPD)

Mo

CMe2R1

TfO

TfO

N

N NR3

R3

R2

Pentacoordinate

MoTfO

TfON

R2

N N R3R3

O

R1= Ph;

R2 = 2,6-Me2-C6H3, 3,5-Me2-C6H3, ...

R3= Mesityl, iPr, 2,6-diisopropylphenyl, ...

Hexacoordinate

Elser, I.; Kordes, B.R.; Frey, W.; Herz, K.; Schowner, R.; Stöhr, L.; Altmann, H.J.; Buchmeiser, M.R. Chem. Eur. J. 2018, 24, 12652.

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Literature Examples

Ring Opening Cross Metathesis Polymerization (ROMP)

Mo

CMe2R1

TfO

TfO

N

N N MesMes

R2

I3: R1= Ph; R2 = 2,6-Me2-C6H3,

I4: R1= Ph; R2 = 3,5-Me2-C6H3.

MoTfO

TfON

R2

N N MesMes

O

3: R2 = 2,6-Me2-C6H3,

4: R2 = 3,5-Me2-C6H3.

Elser, I.; Kordes, B.R.; Frey, W.; Herz, K.; Schowner, R.; Stöhr, L.; Altmann, H.J.; Buchmeiser, M.R. Chem. Eur. J. 2018, 24, 12652.

Tunable onset temperature of polymerization (Tonset = 65-140°C)

pre-catalyst Tonset [oC]

I3 100

3 >140

I4 60

4 100

DSC curves of the temperature scan DSCmeasurements of I1-I5.Catalyst/CH2Cl2/DCPD 1 eq./10 µL for 5mgcatalyst/500 eq.Heating program: 0°C for 1 minute, 0 °C to 200°C (10 Kmin-1). Values in brackets: Tonset.

DSC curves of the temperature scan DSC measurements of pentacoordinatecomplexes I3/I4 in comparison to the hexacoordinate pre-catalysts 3/4.Catalyst/TCB/DCPD 1 eq./10 eq./100 eq. Heating program: 0°C for 1 minute,0 °C to 200 °C or 220 °C (5 Kmin-1). TCB: 1,2,4-trichlorobenzene.

Thermally Latent Catalysts

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Forbes, et al. J. Am. Chem. Soc. 1992, 114, 10978.

Literature Examples

Acyclic Diene Metathesis Polymerization (ADMET)

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Fürstner, et al. Angew. Chem. Int. Ed. 2011, 50, 7829.

Rendering Schrock-type Molybdenum Alkylidene Complexes Air Stable:User-Friendly Precatalysts for Alkene Metathesis

Literature Examples

User-Friendly Pre-catalysts for Alkene Metathesis

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Buchmeiser, et al. Angew. Chem. Int. Ed. 2014, 53, 1.

Excellent functional group tolerance

Tolerated functional groups:

Literature Examples

N-Heterocyclic Carbene (NHC) Metathesis Catalysts

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TON= 1.200.000 (with in 6 days)

metathesis selectivity greater than 99%

in Propene self-metathesis

Buchmeiser, Coperet, et al. Angew. Chem. Int. Ed. 2016, 55, 4300.

Substrate mol% TONs

Ethyl oleate 0.001 11874 (1h)

Diallyl ether 0.1 780 (24h)

Diallyl diphenylsilane 0.1 880 (24h)

Ethyl oleate ethenolysis 0.1 930 (1h)

Catalytic Activity of 2@SiO2 with functionalized substrates:

Literature Examples

Immobilized Catalyst

2@SiO2 – A remarkable catalyst

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Unformulated Schrock-type Mo-/W-based complexes: Extraordinarily effective, but sensitive towards O2 and moisture Their handling and use requires inert atmosphere and appropriate care

Formulation of paraffin pellets from the metathesis complexes: Catalytic performance is retained while bench-top stability is prolonged by hours They can be used in a standard laboratory environment

Isolated, highly active catalyst

Developed formulation technology

Air-tolerant pelletized product

An Easy-to-Use Form of Schrock-type Metathesis Catalysts

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• CM

• endoselective ene-yne RCM

• E & Z-selective CM with di-halo ethylene

formation of alkenyl halides

• stereoselective macrocyclic RCM

Formulated catalyst pellets are available at www.ximo-inc.com/webshop

• Cross Metathesis(CM)

• Ring Closing Metathesis(RCM)

• the ‚gold standard’

• highly active and most commonly used in cross metathesis

• substrate pretreatment

XiMoPacs on the Market

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• Z-selective (CM)

• ene-ene or ene-yne RCM

enantioselective or

diastereoselective

Formulated catalyst pellets are available at www.ximo-inc.com/webshop

Z-selective CM

• macrocyclization or

• CM with boronic esters

RCM

• enantioselective and

• endoselective ene-yne

XiMoPacs on the Market

N

Mo

O Br

OTBSBr

PhN

XiMoPac-Mo004

Ra

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Pelletized catalyst is stable on the bench for up to 24 hours*,

Catalytic performance was retained

The same conversion was obtained as in the control experiment

Manipulation on the bench is feasible

Pellet allowed to stand in air [h]

Conversion in HCM of 9DAME [%]

0 98

4 97

24 96

*Catalyst content was determined by 1H-NMR and was identical to the reference sample. Ondi, L. et al. Org. Process Res. Dev. 2016, 20, 1709.

XiMoPacs – Air Stability

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Entry TEAl amount Conversion [GC, %] Z/E Ratio

1 NO 74 15/852 0.8 mol% (1 pellet) 91 15/853 1.6 mol% (2 pellets) 97 14/864 2.4 mol% (3 pellets) 91 14/86

Metathesis catalysts are sensitive towards polar impurities of the substrate:water, organic (hydro)peroxides, acids etc., which can be eliminated bytreatment with triethyl aluminum (TEAl).

TEAl is formulated into stable and non-pyrophoric paraffin pellets: XiMoPac-Al001. Use of these pellets obviates the need for tedious substratepretreatment.

XiMoPac - Pretreatment with Triethyl Aluminum Pellets

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Direct synthesis of E-alkenyl halides through catalytic cross metathesis:

Synthesis of biologically active compounds, modification of therapeutic agents:

Hoveyda, et al. Science 2016, 352, 569.

XiMoPac – Cross Metathesis I.

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Catalyst ReagentH2C=CH(CH2)0-1X

Conditions Conversion[%]

Selectivity [%]

CM Product Yield [%]

XiMoPac-Mo007Acrylonitrile(n=0, X=CN)

Glovebox 84 88 66

Bench 82 81 67

XiMoPac-Mo001Allylphthalimide(n=1, X=NPhth)

Glovebox 93 50 31

Bench 92 69 49

XiMoPac-Mo001BOC-allylamine(n=1, X=NBoc)

Glovebox 79 40 32

Bench 74 38 28

Identical results were obtained in and outside of the glovebox.

XiMoPac-Mo007

N Mo Ph

N

i-Pr i-Pr

Ph

Ph

Ph

Ph

XiMoPac-Mo001

O

OCF3

CF3

Mo Ph

N

i-Pr i-Pr

OCF3

CF3

XiMoPac – Cross Metathesis II.

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Asymmetric Ring Closing Metathesis (ARCM)

XiMo unpublished results, based on Hoveyda, et al. Nature, 2008, 456, 933.

CatalystConversion

(%)Isolated yield

(%)Purity

(%)Enantiomeric ratio

(R:S)

XiMoPac-Mo001 >99 65 96 50 : 50

XiMoPac-Mo006 >99 77 99 96 : 4

XiMoPac-Mo003 >99 73 99 4 : 96

XiMoPac - Enantioselectivity

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Ionically-tagged complexes in SILP*

Schowner R. et al. Chem. Eur. J. 2018, 24, 13336.

N

N+C2H5

P-

C2F5 C2F5

C2F5

FF F

X+Y- = IL: EMIM-FAP

N

WN

Ph

iPriPr

Mes

Mes

O

P

Ph

Ph

Ph

BArF

X818

N

MoN

Ph

Mes

Mes

O

P

Ph

Ph

Ph

BArF

X819

*supported ionic liquid phase

Literature Examples

Metathesis in Liq.-Liq. Biphasic Media

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Homo cross metathesis of methyl oleate (MO):

Entry Catalyst Substrate Loading (ppm) Media Conversion (%) TON E/Z ratio1 1000 100 1000 35/652 250 100 4000 2/983 100 66 6600 >2/98

Pyrrole/HeptaneMOX819

N

MoN

Ph

Mes

Mes

O

P

Ph

Ph

Ph

BArF

X819

Reaction in IL (Ionic Liquid) and reusability of the ionic MAP-type complexes:

Entry Catalyst Substrate Loading (ppm) Media Conversion (%) TON E/Z ratio Recycl.1 100 1000 53/47 #02 100 1000 25/75 #13 64 640 9/91 #24 100 5000 7/93 #05 64 3000 8/92 #1

X819 MO

MOX819 IL/Heptane

IL/Heptane1000

200

Successful use in IL/heptane biphasic media - stable and highly active complexes Demonstrated good to excellent Z-selectivity in heterogeneous reactions Simplified work-up, recyclable and reusable catalyst Virtually metal free product Opportunity for use in continuous flow processes

Literature Examples

Metathesis in Liq.-Liq. Biphasic MediaCatalytic Performance of Ionically-tagged Catalysts

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Location – Budapest, Hungary

XiMo

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