Geleen, Netherlands
Geleen, Netherlands

DSM is a Dutch-based multinational life science and materials science company. DSM's global end markets include food and dietary supplements, personal care, feed, medical devices, automotive, paints, electrical and electronics, life protection, alternative energy and bio-based materials. DSM has annual net sales of around €10 billion and employs some 24,500 people worldwide. The company is headquartered in the Netherlands, with locations on five continents. The company is listed on NYSE Euronext. Wikipedia.


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News Article | March 3, 2017
Site: www.prnewswire.co.uk

Royal DSM, a global science-based company active in health, nutrition and materials, today announces the publication of its 2016 Integrated Annual Report, in which DSM reports on its progress and performance over the year in terms of People, Planet and Profit. DSM's Integrated Annual Report offers stakeholders detailed insight into the company's business development and financial results, as well as into its environmental and social performance. The sustainability reporting in DSM's Integrated Annual Report is based on the Global Reporting Initiative (GRI) Standards. The 2016 Report also follows the Framework of the International Integrated Reporting Council (IIRC), which provides additional guiding principles and content elements for integrated reporting. DSM has also aligned its sustainability strategy with the Sustainable Development Goals (SDGs). The company is familiar with the opportunities and responsibilities that the SDGs represent for DSM's business, and while mapping shows that it contributes to all of them, DSM has chosen to focus on the goals which most closely align with its strategic ambitions. In the 2016 Integrated Annual Report, a start has been made with building the SDGs into DSM's reporting process, for example by mapping SDG reporting priorities in the company's value creation model, and its material topics. The 2016 Integrated Annual Report is available online and via the DSM IR app. Royal DSM is a global science-based company active in health, nutrition and materials. By connecting its unique competences in life sciences and materials sciences, DSM is driving economic prosperity, environmental progress and social advances to create sustainable value for all stakeholders simultaneously. DSM delivers innovative solutions that nourish, protect and improve performance in global markets such as food and dietary supplements, personal care, feed, medical devices, automotive, paints, electrical and electronics, life protection, alternative energy and bio-based materials. DSM and its associated companies deliver annual net sales of about €10 billion with approximately 25,000 employees. The company is listed on Euronext Amsterdam. More information can be found at http://www.dsm.com. This press release may contain forward-looking statements with respect to DSM's future (financial) performance and position. Such statements are based on current expectations, estimates and projections of DSM and information currently available to the company. DSM cautions readers that such statements involve certain risks and uncertainties that are difficult to predict and therefore it should be understood that many factors can cause actual performance and position to differ materially from these statements. DSM has no obligation to update the statements contained in this press release, unless required by law.


— This report studies sales (consumption) of Bio-Polyamide, Specialty Polyamide & Precursors in Global market, especially in United States, China, Europe and Japan, focuses on top players in these regions/countries, with sales, price, revenue and market share for each player in these regions, covering Market Segment by Regions, this report splits Global into several key Regions, with sales (consumption), revenue, market share and growth rate of Bio-Polyamide, Specialty Polyamide & Precursors in these regions, from 2011 to 2021 (forecast), like Split by product Types, with sales, revenue, price and gross margin, market share and growth rate of each type, can be divided into Fiber Engineering Plastics Split by applications, this report focuses on sales, market share and growth rate of Bio-Polyamide, Specialty Polyamide & Precursors in each application, can be divided into Textile Industrial Carpet Staple Global Bio-Polyamide, Specialty Polyamide & Precursors Sales Market Report 2017 1 Bio-Polyamide, Specialty Polyamide & Precursors Overview 1.1 Product Overview and Scope of Bio-Polyamide, Specialty Polyamide & Precursors 1.2 Classification of Bio-Polyamide, Specialty Polyamide & Precursors 1.2.1 Fiber 1.2.2 Engineering Plastics 1.3 Application of Bio-Polyamide, Specialty Polyamide & Precursors 1.3.1 Textile 1.3.2 Industrial 1.3.3 Carpet 1.3.4 Staple 1.4 Bio-Polyamide, Specialty Polyamide & Precursors Market by Regions 1.4.1 United States Status and Prospect (2012-2022) 1.4.2 China Status and Prospect (2012-2022) 1.4.3 Europe Status and Prospect (2012-2022) 1.4.4 Japan Status and Prospect (2012-2022) 1.4.5 Southeast Asia Status and Prospect (2012-2022) 1.4.6 India Status and Prospect (2012-2022) 1.5 Global Market Size (Value and Volume) of Bio-Polyamide, Specialty Polyamide & Precursors (2012-2022) 1.5.1 Global Bio-Polyamide, Specialty Polyamide & Precursors Sales and Growth Rate (2012-2022) 1.5.2 Global Bio-Polyamide, Specialty Polyamide & Precursors Revenue and Growth Rate (2012-2022) 9 Global Bio-Polyamide, Specialty Polyamide & Precursors Manufacturers Analysis 9.1 Ascend Performance Materials Inc 9.1.1 Company Basic Information, Manufacturing Base and Competitors 9.1.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.1.2.1 Fiber 9.1.2.2 Engineering Plastics 9.1.3 Ascend Performance Materials Inc Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.1.4 Main Business/Business Overview 9.2 BASF 9.2.1 Company Basic Information, Manufacturing Base and Competitors 9.2.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.2.2.1 Fiber 9.2.2.2 Engineering Plastics 9.2.3 BASF Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.2.4 Main Business/Business Overview 9.3 Formosa Group 9.3.1 Company Basic Information, Manufacturing Base and Competitors 9.3.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.3.2.1 Fiber 9.3.2.2 Engineering Plastics 9.3.3 Formosa Group Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.3.4 Main Business/Business Overview 9.4 Honeywell International Inc 9.4.1 Company Basic Information, Manufacturing Base and Competitors 9.4.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.4.2.1 Fiber 9.4.2.2 Engineering Plastics 9.4.3 Honeywell International Inc Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.4.4 Main Business/Business Overview 9.5 Invista 9.5.1 Company Basic Information, Manufacturing Base and Competitors 9.5.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.5.2.1 Fiber 9.5.2.2 Engineering Plastics 9.5.3 Invista Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.5.4 Main Business/Business Overview 9.6 Li Peng Enterprise Co 9.6.1 Company Basic Information, Manufacturing Base and Competitors 9.6.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.6.2.1 Fiber 9.6.2.2 Engineering Plastics 9.6.3 Li Peng Enterprise Co Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.6.4 Main Business/Business Overview 9.7 Radici Group 9.7.1 Company Basic Information, Manufacturing Base and Competitors 9.7.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.7.2.1 Fiber 9.7.2.2 Engineering Plastics 9.7.3 Radici Group Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.7.4 Main Business/Business Overview 9.8 Royal DSM 9.8.1 Company Basic Information, Manufacturing Base and Competitors 9.8.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.8.2.1 Fiber 9.8.2.2 Engineering Plastics 9.8.3 Royal DSM Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.8.4 Main Business/Business Overview 9.9 Solvay/Rhodia 9.9.1 Company Basic Information, Manufacturing Base and Competitors 9.9.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.9.2.1 Fiber 9.9.2.2 Engineering Plastics 9.9.3 Solvay/Rhodia Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.9.4 Main Business/Business Overview 9.10 Shenma Industrial Co 9.10.1 Company Basic Information, Manufacturing Base and Competitors 9.10.2 Bio-Polyamide, Specialty Polyamide & Precursors Product Type, Application and Specification 9.10.2.1 Fiber 9.10.2.2 Engineering Plastics 9.10.3 Shenma Industrial Co Bio-Polyamide, Specialty Polyamide & Precursors Sales, Revenue, Price and Gross Margin (2012-2017) 9.10.4 Main Business/Business Overview For more information, please visit https://www.wiseguyreports.com/sample-request/969302-global-bio-polyamide-specialty-polyamide-precursors-sales-market-report-2017


Research and Markets has announced the addition of the "Global Flavors & Fragrances Market Analysis & Trends - Industry Forecast to 2025" report to their offering. The Global Flavors & Fragrances Market is poised to grow at a CAGR of around 6.1% over the next decade to reach approximately $53.9 billion by 2025. This industry report analyzes the market estimates and forecasts for all the given segments on global as well as regional levels presented in the research scope. The study provides historical market data for 2013, 2014 revenue estimations are presented for 2015 and forecasts from 2016 till 2025. The study focuses on market trends, leading players, supply chain trends, technological innovations, key developments, and future strategies. Some of the prominent trends that the market is witnessing include biotic ingredients usage has been increased in recent years, rising vegan population increasing demand for flavors & fragrances, recent technological developments of flavors & fragrances and growth opportunities/investment opportunities. Based on application the market is categorized into dairy products, soap & detergent, beverages, cosmetics and toiletries, oral care, confectionary and bakery products and household and other products. By product, flavors & fragrances market is segmented into aroma chemicals, synthetic aroma chemicals, flavor blends, natural aroma chemicals and fragrance blends. Depending on the technology the market is segregated by flavor encapsulation, cold extraction technology, enzymatic routes, conventional technologies and supercritical fluid extraction. Report Highlights: - The report provides a detailed analysis on current and future market trends to identify the investment opportunities - Market forecasts till 2025, using estimated market values as the base numbers - Key market trends across the business segments, Regions and Countries - Key developments and strategies observed in the market - Market Dynamics such as Drivers, Restraints, Opportunities and other trends - In-depth company profiles of key players and upcoming prominent players - Growth prospects among the emerging nations through 2025 - Market opportunities and recommendations for new investments Key Topics Covered: 1 Market Outline 2 Executive Summary 3 Market Overview 3.1 Current Trends 3.1.1 Biotic Ingredients Usage Has Been Increased In Recent Years 3.1.2 Rising Vegan Population Increasing Demand for Flavors & Fragrances 3.1.3 Recent Technological Developments of Flavors & Fragrances 3.1.4 Growth Opportunities/Investment Opportunities 3.2 Drivers 3.3 Constraints 3.4 Industry Attractiveness 4 Flavors & Fragrances Market, By Application 4.1 Dairy Products 4.1.1 Dairy Products Market Forecast to 2025 (US$ MN) 4.2 Soap & Detergent 4.2.1 Soap & Detergent Market Forecast to 2025 (US$ MN) 4.3 Beverages 4.3.1 Beverages Market Forecast to 2025 (US$ MN) 4.4 Cosmetics And Toiletries 4.4.1 Cosmetics And Toiletries Market Forecast to 2025 (US$ MN) 4.5 Oral Care 4.5.1 Oral Care Market Forecast to 2025 (US$ MN) 4.6 Confectionary And Bakery Products 4.6.1 Confectionary And Bakery Products Market Forecast to 2025 (US$ MN) 4.7 Household And Other Products 4.7.1 Household And Other Products Market Forecast to 2025 (US$ MN) 5 Flavors & Fragrances Market, By Product 5.1 Aroma chemicals 5.1.1 Aroma chemicals Market Forecast to 2025 (US$ MN) 5.2 Synthetic Aroma chemicals 5.2.1 Synthetic Aroma chemicals Market Forecast to 2025 (US$ MN) 5.3 Flavor blends 5.3.1 Flavor blends Market Forecast to 2025 (US$ MN) 5.4 Natural Aroma chemicals 5.4.1 Natural Aroma chemicals Market Forecast to 2025 (US$ MN) 5.5 Fragrance blends 5.5.1 Fragrance blends Market Forecast to 2025 (US$ MN) 6 Flavors & Fragrances Market, By Technology 6.1 Flavor Encapsulation 6.1.1 Flavor Encapsulation Market Forecast to 2025 (US$ MN) 6.2 Cold Extraction Technology 6.2.1 Cold Extraction Technology Market Forecast to 2025 (US$ MN) 6.3 Enzymatic Routes 6.3.1 Enzymatic Routes Market Forecast to 2025 (US$ MN) 6.4 Conventional Technologies 6.4.1 Conventional Technologies Market Forecast to 2025 (US$ MN) 6.5 Supercritical Fluid Extraction 6.5.1 Supercritical Fluid Extraction Market Forecast to 2025 (US$ MN) 7 Flavors & Fragrances Market, By Geography 8 Key Player Activities 8.1 Mergers & Acquisitions 8.2 Partnerships, Joint Venture's, Collaborations and Agreements 8.3 Product Launch & Expansions 8.4 Other Activities 9 Leading Companies - Cargill Flavor Systems - International Flavors & Fragrances, Inc. - Agilex Flavors & Fragrances, Inc. - Takasago International Corp. - Aromatech SAS - Firmenich SA - Symrise AG - Bell Flavors & Fragrances Inc. - Givaudan SA - ConAgra Foods Incorporated - Royal DSM NV - BASF SE - Frutarom Industries Ltd. - Bedoukian Research, Inc. - Solvay SA - David Michael & Co. - Kerry Group plc - Comax Flavors - Flavorchem Corp. For more information about this report visit http://www.researchandmarkets.com/research/kp2v5f/global_flavors Research and Markets Laura Wood, Senior Manager press@researchandmarkets.com For E.S.T Office Hours Call +1-917-300-0470 For U.S./CAN Toll Free Call +1-800-526-8630 For GMT Office Hours Call +353-1-416-8900 U.S. Fax: 646-607-1907 Fax (outside U.S.): +353-1-481-1716


PARSIPPANY, New Jersey, March 2, 2017 /PRNewswire/ -- Royal DSM, a global science-based company active in health, nutrition and materials is the driving force behind the SunRISE TechBridge Challenge II, building on the success of the first SunRISE TechBridge Challenge. Sponsored b...


Ager D.J.,DSM Innovative Synthesis BV | De Vries A.H.M.,Royal DSM | De Vries J.G.,Royal DSM
Chemical Society Reviews | Year: 2012

Asymmetric hydrogenations are increasingly being used to introduce stereogenic centres into products used in the life sciences industries. There are a number of potential pitfalls when moving from a laboratory reaction to a manufacturing process, not least of which is safety. Time-to-market pressure leads to short development times, which in the past could be a large barrier for the implementation of catalytic steps; now there are new ways to minimise this problem. The potential problems associated with impurities and other methods that can shut down the hydrogenation reactions are highlighted in this critical review (353 references). © 2012 The Royal Society of Chemistry.


De Vries J.G.,Royal DSM
Topics in Organometallic Chemistry | Year: 2012

Palladium-catalysed coupling reactions have gained importance as a tool for the production of pharmaceutical intermediates and to a lesser extent also for the production of agrochemicals, flavours and fragrances, and monomers for polymers. In this review only these cases are discussed where it seems highly likely that the technology is or has been used for ton-scale production. We document twelve cases where the Mizoroki-Heck reaction was used to arylate an alkene. In two of these cases allylic alcohols were arylated, leading to the aldehyde or the ketone. The Suzuki reaction has been used mostly to produce biaryl compounds from aryl halides and arylboronic acid derivatives. Twelve processes were recorded. Ortho-tolyl-benzonitrile, a biaryl compound produced via the Suzuki reaction, is used as an intermediate in six different pharmaceuticals all belonging to the Sartan group of blood pressure-lowering agents. The Kumada-Corriu reaction in which an aryl or alkenyl Grignard is coupled to an aryl or alkenyl halide was used nine times. In these coupling reactions palladium is often replaced by the much cheaper nickel or iron catalysts. The Negishi reaction couples an arylzinc halide with an aryl or alkenyl halide. These reactions are fast and highly selective; the only drawback being the stoichiometric zinc waste. Two cases were found. In one of these it was possible to use only a catalytic amount of zinc (double metal catalysis). The Sonogashira reaction couples a terminal alkyne to an aryl or alkenyl halide. Three cases were found. Acetylene is usually not coupled as such in view of its instability. Instead, trimethylsilylacetylene or the acetylene acetone adduct is used. Finally, one case was found of a palladium-catalysed allylic substitution and one case of a CH-activation reaction to form a benzocyclobutane ring. Most of these reactions were implemented in production in the past ten years. © 2012 Springer-Verlag Berlin Heidelberg.


Sagt C.M.J.,Royal DSM
Applied Microbiology and Biotechnology | Year: 2013

Systems metabolic engineering is based on systems biology, synthetic biology, and evolutionary engineering and is now also applied in industry. Industrial use of systems metabolic engineering focuses on strain and process optimization. Since ambitious yields, titers, productivities, and low costs are key in an industrial setting, the use of effective and robust methods in systems metabolic engineering is becoming very important. Major improvements in the field of proteomics and metabolomics have been crucial in the development of genome-wide approaches in strain and process development. This is accompanied by a rapid increase in DNA sequencing and synthesis capacity. These developments enable the use of systems metabolic engineering in an industrial setting. Industrial systems metabolic engineering can be defined as the combined use of genome-wide genomics, transcriptomics, proteomics, and metabolomics to modify strains or processes. This approach has become very common since the technology for generating large data sets of all levels of the cellular processes has developed quite fast into robust, reliable, and affordable methods. The main challenge and scope of this mini review is how to translate these large data sets in relevant biological leads which can be tested for strain or process improvements. Experimental setup, heterogeneity of the culture, and sample pretreatment are important issues which are easily underrated. In addition, the process of structuring, filtering, and visualization of data is important, but also, the availability of a genetic toolbox and equipment for medium/high-throughput fermentation is a key success factor. For an efficient bioprocess, all the different components in this process have to work together. Therefore, mutual tuning of these components is an important strategy. © 2013 Springer-Verlag Berlin Heidelberg.


Van Den Berg M.A.,Royal DSM
Applied Microbiology and Biotechnology | Year: 2011

The genome sequence of Penicillium chrysogenum has initiated a range of fundamental studies, deciphering the genetic secrets of the industrial penicillin producer. More than 60 years of classical strain improvement has resulted in major but delicate rebalancing of the intracellular metabolism leading to the impressive penicillin titres of the current production strains. Several leads for further improvement are being followed up, including the use of P. chrysogenum as a cell factory for other products than β- lactam antibiotics. © Springer-Verlag 2011.


Jansen M.L.A.,Royal DSM | van Gulik W.M.,Technical University of Delft
Current Opinion in Biotechnology | Year: 2014

Fermentative production of succinic acid (SA) from renewable carbohydrate feed-stocks can have the economic and sustainability potential to replace petroleum-based production in the future, not only for existing markets, but also new larger volume markets. To accomplish this, extensive efforts have been undertaken in the field of strain construction and metabolic engineering to optimize SA production in the last decade. However, relatively little effort has been put into fermentation process development. The choice for a specific host organism determines to a large extent the process configuration, which in turn influences the environmental impact of the overall process. In the last five years, considerable progress has been achieved towards commercialization of fermentative production of SA. Several companies have demonstrated their confidence about the economic feasibility of fermentative SA production by transferring their processes from pilot to production scale. © 2014 Elsevier Ltd.


The activity and stability of homogeneous olefin polymerisation catalysts, when immobilised on a support, are dependent on both chemical and physical effects. Chemical factors affecting catalyst activity include the ease of formation of the active species, which is strongly dependent on the transition metal. Catalyst productivity is dependent on the balance between activity and stability. Immobilisation can lead to a lower proportion of active species and therefore lower initial polymerisation activity, but nevertheless give higher polymer yields in cases where increased catalyst stability is obtained. Important physical factors are support porosity and the ability of a support to undergo progressive fragmentation during polymerisation, facilitating monomer diffusion through the growing catalyst/polymer particle. This article illustrates the importance of these factors in olefin polymerisation with both early- and late-transition metal catalysts, with particular reference to the use of silica and magnesium chloride supports as well as to effects of immobilisation on polymer structure and properties. © 2013 The Royal Society of Chemistry.

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