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2021 www.chemietechnik.de CHEMPHARM INNOVATIONS 2021 CHEMICALS AND PHARMA Industry on the Move 4 CHEMIE TECHNIK · 06_AGE 2021
ENGINEERING SUMMIT 2021 23.-24.06.2020 in Wiesbaden Prospects and Challenges of Plant Construction December 1 and 2, 2021 / With German aneous English simult translation! More Details: COMPETENCE MATTERS. www.engineering-summit.de Large Industrial Plant Manufacturer’s Group Challenges and Chances in a Changing World Growing volatility and global competition in plant engineering still presents major challenges for European suppliers. At the 8th Engineering Summit, which will be held on December 1 and 2, 2021, executives will discuss key strategic competition factors and the need for change in project business. With around 300 participants Engineering Summit is the most important congress in our industry. Experts from medium-size and large industrial plant manufacturing companies as well as plant operators and suppliers exchange views in intense discussions and high-profile presentations. Become part of the network! More information and registration at www.engineering-summit.de Hüthig GmbH Tel.: +49 6221 489-207 Im Weiher 10 Fax: +49 6221 489-490 D-69121 Heidelberg www.huethig.de
EDITORIAL Industry on the Move There has rarely been so much change. Whether cli- this way, for example, was it possible to develop and mate neutrality, circular economy or hydrogen-based provide safe vaccines to combat the novel Corona virus chemistry, whether digitalisation, fast-track projects, or within such a short time. new high speed vaccine productions: the chemical-phar- In this issue of “Chempharm Innovations”, a special edi- maceutical industry in Europe is facing profound up- tion of CHEMIE TECHNIK and Pharma+Food, we heavals. The drivers are the megatrends of the 21st cen- highlight these trends and explore how the industry is tury: the recent decisions of the European Commission tackling the pressing challenges. After a look at the de- to tighten climate targets, for example, underline the ef- velopment of the industry in Europe, we address essen- forts of chemical companies to significantly reduce their tial trends in the chemical and pharmaceutical industry. greenhouse gas emissions by 2030 and – according to the plans of some industry giants – to operate in a cli- In the second part of this issue, equipment suppliers mate-neutral way by 2050. present current solutions and their service portfolios. Because innovation - we are convinced – is created today The producers of plastics are also facing a paradigm primarily at interfaces: Whether between process engi- shift, driven by the increasing declinine in social accept- neering disciplines or between users and suppliers. We ance of a business model based on the hitherto hardly wish you a profitable read! sustainable, massive production of polymers, which are disposed of on a large scale in an unregulated manner in the environment and in the world‘s oceans. Without ef- forts directed towards sustainability and a circular econ- omy, this business model seems to have no future. In the pharmaceutical industry, on the other hand, the Corona pandemic at least has shown where the real chal- lenges and potentials lie: Among other things, in new forms of cooperation along the value chain and in new What do you think? processes for the approval of new preparations. Only in armin.scheuermann@chemietechnik.de 110 10 105 5 100 0 95 -5 90 -10 85 -15 Jan March May July Sep Nov Jan March May July Sep Nov Jan March May July Sep Nov 2018 2019 2020 Produktionsindex (Jahr 2015 = 100), links Produktionsänderung im Vergleich zum Vorjahr in %, rechts The chemical and pharmaceutical industry Our recent analysis shows the significance We describe the long and complicated path in Europe is setting out to leave the Corona of the hydrogen economy for the chemical in the production of vaccines starting on crisis behind. Page 6 industry. Page 8 Page 18 ChemPharm Innovations 3
CONTENT Corona has Torn a Deep Hole Development of chemical production in the EU27 110 10 105 5 100 0 95 -5 90 -10 85 -15 Jan March May July Sep Nov Jan March May July Sep Nov Jan March May July Sep Nov 2018 2019 2020 Produktionsindex (Jahr 2015 = 100), links Produktionsänderung im Vergleich zum Vorjahr in %, rechts Out of the Crisis Digital Lecture Programme Achema Pulse Every year, the European Chemical Industry Council (Cefic) publishes the data Dechema had postponed Achema to 2022. And the pre- collected on the current situation and future of the industry. The figures for the sent year will see the launch of a supplementary digital special year 2020 were awaited even more eagerly than usual. Page 6 lecture programme known as Achema Pulse. Page 18 Editorial3 Event Something Delayed Is not Something Lost – Digital Lecture Programme Achema Pulse 18 Chemicals Out of the Crisis – Infographic on the Latest Cefic Figures6 Utopia or Game Changer? – Reality Check for Pharma an Economy Based on Green Hydrogen 8 Hotspots Long Road to the Shot 20 Green Light for Green Hydrogen – Conversion of Green Electricity into Chemical Energy 11 Biontech-Pfizer: From Reactor to Vaccination Centre 22 Hotspots Top 10: Largest Projects for Green Hydrogen 12 Bridge to a Green Future – Sustainability and Climate Protection in Plant Engineering 14 Utopia or Game Changer? Bridge to a Green Future At present, hardly a day goes by without a new record-breaking announcement Large-scale plant construction provides solutions for from the field of hydrogen use. But what is really behind the hype? We attemp- those branches of industry that cause the most CO2 ted to get to the bottom of the question. Page 8 emissions. But where are the obstacles? Page 14 4 ChemPharm Innovations
Imprint www.chemietechnik.de Special issue ePaper CHEMPHARM INNOVATIONS Your Contacts Service for subscibers and readers: E-Mail: leserservice@huethig.de Phone: +49 (0) 8191 125-777 Distribution – Subscription Manager: Hermann Weixler Editorial Staff Dipl.-Ing. (FH) Armin Scheuermann (AS), Editor-in-Chief Phone: +49 (0) 6221/489–388, Fax: +49 (0) 6221/489–490 Long Road to the Shot E-Mail: armin.scheuermann@huethig.de Dipl.-Biochem. Ansgar Kretschmer (ak), Phone: Direct line –400 In addition to the vaccine developers, who are in the public eye, E-Mail: ansgar.kretschmer@huethig.de equipment suppliers and service providers must also be on top form Jona Göbelbecker (jg, M.A.), Tel.: Direct line –206 – from component production to filling and logistics. Page 20 E-Mail: jona.goebelbecker@huethig.de Susanne Berger (Ed. Assistant), Phone: Direct line –247 E-Mail: susanne.berger@huethig.de Bianca Bechtel (Ed. Assistant), Phone: Direct line –244 E-Mail: bianca.bechtel@huethig.de Advertorials Advertisements Haws Deutschland GmbH 26 Advertising Manager: Sabine Wegmann, Phone: Direct line –207 Lugaia Deutschland GmbH 27 E-Mail: sabine.wegmann@huethig.de Advertising Sales Germany: Novindustra AG 28 Holger Wald, Phone: Direct line –298 E-Mail: holger.wald@huethig.de Amsonic AG 29 Hagen Reichhoff, Phone: Direct line –304, E-Mail: hagen.reichhoff@huethig.de Advertising Scheduling: Dec Goup 29 Martina Probst, Phone: Direct line –248 E-Mail: martina.probst@huethig.de Frewitt30 Rate card No. 49 of 01.10.2020 Three-Tec GmbH 30 Publisher Hüthig GmbH, Liquitec31 Im Weiher 10, 69121 Heidelberg, Phone: +49 (0) 62 21/ 489–300, Fax: –490, www.huethig.de Traderegister-No / District Court Mannheim HRB 703044 Managing Director: Moritz Warth Publishing Manager: Stefan Waldeisen Product Manager Online: Daniel Markmann Layout Manager: Herbert Schiffers Art Director: Jürgen Claus Layout: Cornelia Roth © Copyright Hüthig GmbH 2021 Heidelberg. This journal was carefully produced in all its parts. Nevertheless, authors, editors and publishers do not warrant the information contained therein to be free of errors. Readers are advised to keep in mind that statements, data, illustrations, procedural details or 2021 www.chemietechnik.de other items may inadvertently be inaccurate. All rights reserved (including those of translation into foreign languages). No part of this issue may be reproduced in any form – photoprint, microfilm, or any CHEMPHARM INNOVATIONS 2021 other means – nor transmitted or translated into a machine language without the permission in writing of the publishers. No responsibility can be accepted for uninvited manuscripts submitted to the journal. Place of jurisdiction is Heidelberg. Representatives Abroad Belgium, France: Carolyn Eychenne, 13 impasse Verbois, F-78800 Houilles, CHEMICALS AND PHARMA Industry on the Move Tel.: +33 (0) 1 39 58 14 01, E-Mail: carolyn@eychenne.me Liechtenstein, Switzerland: interpress, Katja Hammelbeck, Ermatinger Str. 4 CHEMIE TECHNIK · 06_AGE 2021 14, CH-8268 Salenstein,Tel.: +41 (0) 71 552 02 12 , Fax: +41 (0) 71 552 02 10,E-Mail: kh@interpress-media.ch Picture: Pfizer / Phattana Data protection: – stock.adobe.com Your data will be processed and used by us and companies belonging to Süddeutscher Verlag Mediengruppe, our service providers, as well as other selected companies to inform you about products and services of interest. Should you no longer wish your data to be used in this way please write to leserservice@huethig.de ChemPharm Innovations 5
Chemicals Infographic on the Latest Cefic Figures Out of the Crisis Every year, the European Chemical Industry Council (Cefic) publishes the data collected on the current si- tuation and future of the industry. The figures for the special year 2020 were awaited even more eagerly than usual. The result: the Corona pandemic dealt a heavy blow to European chemistry, especially in the summer. Since then, however, the industry has recovered and can already hope for growth again this year - but the uncertainties caused by the pandemic remain and the pressure specifically from China continu- es to grow. Corona has Torn a Deep Hole Development of chemical production in the EU27 110 10 110 10 105 5 105 5 100 0 100 0 95 -5 95 -5 90 -10 90 -10 85 -15 85 Jan March May July Sep Nov Jan March May July Sep Nov Jan March May July Sep Nov -15 Jan März Mai Juli Sep Nov Jan März Mai Juli Sep Nov Jan März Mai Juli Sep Nov 2018 2018 2019 2019 2020 2020 Produktionsindex (Jahr 2015 = 100), links Produktionsindex Production (Jahr index (year Produktionsänderung 2015 = 100),zum im2015=100), Vergleich linksVorjahr in %, rechts left Produktionsänderung Change im Vergleich in production compared withzum Vorjahryear previous in %,inrechts %, right Graphics: schab – stock.adobe.com / CHEMIE TECHNIK, Data: Cefic The Corona crisis has clearly left its mark on the Euro- pean chemical industry: While production had already declined for almost the entire year 2019, the decline even reached double-digit values in the early Corona crisis months of April and May 2020. In autumn, however, chemical production in Europe picked up again signifi- cantly and partially compensated for losses. 6 ChemPharm Innovations
Chemicals Signals Set to Green Again Forecast production growth Graphic: CHEMIE TECHNIK; Data: Cefic Overall, Cefic expects chemical production in the EU to decline by just under 2 % in 2020 compared to 2019. +3 % However, the signs are now pointing to growth again: +2 % For the current year, the association expects a “catch-up effect” and a significant increase of 3 %. The outlook is somewhat weaker for 2022, when experts expect pro- - 1.9 % 2021 2022 duction to grow by only 2 %. 2020 Agriculture Strongly Dependent on Industrial Cycle and forestry Customer sectors of the chemical industry (2017) 8.0 % Wholesale and retail trade However, Cefic’s fortunetellers point out that the long- 4.0 % Health Graphic: CHEMIE TECHNIK; Data: Cefic Other term outlook in particular is very uncertain in view of and social Research the Corona pandemic. The chemical industry supplies 44 % affairs and development virtually all sectors of the economy: chemicals are esti- 16.8 % 3.2 % mated to be in about 95 % of all manufactured goods. Mining This means that chemical production is also highly de- 3.3 % Services pendent on the development of other sectors - especially 9.2 % industry. More than half of the chemicals produced in the EU find their customers there. Rubber and plastics 15.5 % Electronics and optics 2.4 % Construction 5.1 % Metal processing 2.4 % Paper and printed matter 4.3 % Electrical machinery 2.2 % Petroleum products and fuels 3.6 % Non-metallic products 2.0 % Textiles, leather and footwear 3.5 % Machinery and equipment 1.8 % Food, beverages and tobacco 3.3 % Recycling and other manufacturing 1.7 % Vehicles 3.0 % Other 2.2 % Metal production 2.6 % 2019 2030 A Smaller Piece of a Growing Cake Regional shares of global chemicals sales 1.0 % 2.7 % Regardless of the development of individual target sec- 3.6 % 3.2 % 1.1 % 3.7 % tors, Cefic sees the European industry on a growth path. 4.6 % 4.6 % 10.5 % However, this is mainly due to a dynamically developing global market, which is expected to grow by almost two thirds by 2030. Although the turnover of the chemical 14.8 % €3.7 40.6 % €6.2 48.6 % industry in the EU would then be higher in absolute Trillion 14.2 % Trillion terms than at present, its share of the global market is Graphic: CHEMIE TECHNIK; Data: Cefic expected to shrink: from just under 15 % to only about 15.5 % one tenth. Other established chemical locations such as the USA or Japan would also lose ground – much to the 15.6 % delight of the Chinese chemical industry, which would 15.8 % then account for almost half of global sales in 2030. China Rest of Europe Rest of Asia Japan North America Latin America EU Other ChemPharm Innovations 7
Chemicals Source: Mediaparts – stock.adobe.com Reality Check for an Economy Based on Green Hydrogen Utopia or Game Changer? At present, hardly a day goes by without a new record-breaking announcement from the field of hydrogen use. But what is really behind the hype? We attempted to get to the bottom of the question. T he use of green hydrogen in industry and trans- drogen strategy, according to which the smallest chemi- portation has been discussed for a long time. cal element plays a central role in the attempt to establish Author There have also been many pilot projects. But a climate-neutral economy in Europe by 2050. recently we have been inundated with news of new hy- drogen projects. Hardly a week goes by without a new Climate Targets as a Driving Force record for an even larger hydrogen electrolysis plant. The starting point for European projections and plans is The situation has all the signs of a media hype. But not the EU’s goal of achieving the 2 °C target defined in the Armin Scheuermann, only that: something has changed – and as is so often the Paris Climate Agreement by the end of the century. And is Editor-in-Chief of case in the energy sector, it has to do with politics. In because this cannot be achieved with classic technolo- CHEMIE TECHNIK July 2020, the European Union made public its new hy- gies at the required emission levels, there is no way 8 ChemPharm Innovations
Chemicals In the project Reallabor Westküste 100, a consortium of companies funded by the Ministry of Economics is investigating sector coupling from wind to hydrogen to aviation fuel. Source: Westküste 100 around hydrogen. Whether green hydrogen, or a combi- 200 H2 Projects Announced Worldwide nation of H2 from green electricity and the classic steam In this context, the current 50 or so global projects for reforming of natural gas with subsequent storage of the the production of green hydrogen and another 150 pro- resulting CO2 (CCS), both technologies are necessary to jects for the production of H2 on the basis of fossil raw achieve the ambitious climate targets. For the first time, materials still look relatively modest: If all of them were however, the EU has specified concrete expansion tar- realised, a total of 300 billion US dollars would have to gets for green hydrogen: in the first phase, electrolysis be invested by 2030 – according to a recent study by capacities amounting to 6 GW are to be installed in Eu- McKinsey on behalf of the Hydrogen Council, an associ- rope between 2020 and 2025. The goal: to produce 1 ation of around 100 companies in the chemical and en- million tonnes of green hydrogen per year in the future. ergy industries. However, only a quarter of the projects In the second phase (2025 to 2030), the capacity is to have so far been concretely planned or implemented grow to a total of 40 GW and up to ten million tonnes. beyond the mere announcement. After 2030, according to the EU Commission’s goal, hy- Because business enterprises are hardly willing to drogen is to be used on a large scale in areas that have so make significant investments out of altruistic motives, far eluded decarbonisation efforts – including truck and the future development of the hydrogen economy de- air transport. pends to a large extent on the development of the costs The dimension of these efforts is made clear by a look for renewably generated electricity, the expenses for at the necessary investments: Hydrogen Europe, for ex- electrolysis and the transport of hydrogen. The McK- ample, estimates that investments of €430 billion will be insey study of January 2021 provides interesting de- needed to achieve these goals. Stakeholders expect the tails on this: Based on the ambitious development of first draft laws to implement the European hydrogen the hydrogen economy assumed by the Hydrogen strategy as early as 2021. Council, global electrolysis capacity is expected to in- But it is not only Europe that sees hydrogen as a key crease to 90 GW by 2030. Economies of scale could to a climate-neutral economy: demand is also growing in drive down the cost of green electricity, electrolysis, South Korea and Japan. According to the estimates of and transport, so that green hydrogen would cost only market research companies, the two countries together 1.4 to 2.3 USD/kg by 2030. Currently, green hydrogen could need 27 million tonnes of hydrogen annually by in Western Europe is priced at 6 to 7 USD/kg, which is 2050. A total of 75 nations, currently representing half of three times more expensive than conventional grey the global economic output, have set themselves the goal hydrogen. Based on the optimistic projections of the of becoming climate-neutral in the coming decades. 30 current study, green hydrogen could reach the price of them have already published their own hydrogen level of grey hydrogen between 2028 and 2034, de- strategies. pending on the region. ChemPharm Innovations 9
Chemicals North Sea wind farms generate 2030 power 100% green power The electrolyser produces Hamburg hydrogen from 100% Eemshaven renewable power Delfzijl 100% green hydrogen Hydrogen stored in underground caverns Amsterdam Industry uses green hydrogen as a resource and for process heating Rotterdam Reuse of gas pipelines for transporting hydrogen elimi- nates the need for additional Antwerp power grid upgrades Limburg Ruhr area 1 000 000 tonnes of green hydrogen prevents 8 to 10 megatons of CO2 emmisions per year Left: Scaling up of electrolysis capaci- ties is one of the challenges for the The investment costs for electrolysis plants are as- brings together 17 companies, has examined the im- ambitious hydrogen sumed to drop from 480–620 USD/kW to 230–380 USD/ pact of the European initiative and comes to the con- targets kW between 2025 and 2030. Another interesting aspect is clusion that there are enormous opportunities for Eu- Source: Thyssenkrupp the high energy transport capacity of hydrogen pipelines ropean industry, plant engineering, and, above all, compared to power lines and the significantly lower line chemistry in the consistent pursuit of the hydrogen Right: The North H2 losses as well as their flexibility: the pipeline capacity can strategy. project is currently be adjusted to the demand via the pressure. The Hydrogen One of the things that puts Europe in pole position one of the most am- Council estimates that the cost of transporting energy by when it comes to hydrogen is the existing gas grid, which bitious hydrogen pipeline is one eighth of the cost of transmitting the same already distributes more than 40% of heating gas to Eu- projects in the world. amount of energy via power lines. For example, existing ropean households and transports 15% of the natural gas Source: Equinor natural gas pipelines in the well-developed European fired in power plants. For the transport industry, hydro- pipeline network could be used to transport hydrogen: gen is currently the most interesting option for decar- Hydrogen Europe estimates that converting 50,000 km of bonising trucks, buses, ships, large cars and trains. This pipelines would cost around €25 billion. Pipeline trans- is because the small molecule is characterised by an en- port from North Africa to Germany could be done for 0.5 ergy density that is almost three times higher than that USD/kg, according to estimates. of heating oil or natural gas. The transport sector is also Transport by ship, on the other hand, is much more in the spotlight because it is responsible for about one expensive: liquefaction, storage at extremely low temper- third of all carbon dioxide emissions in Europe. In avia- atures and regasification are the main cost drivers – esti- tion, synthetic fuels made from hydrogen are currently mates for 2030 assume 2 to 3 USD/kg. These projections the only decarbonisation option. are likely to underlie the current announcements for H2 Other potential customers are industries that have so projects in Australia. The green hydrogen produced far produced large amounts of carbon dioxide. These there is intended for export to Asia. Alternatives are the include the cement industry, but also the steel industry. synthesis of organic molecules (liquid organic hydrogen In the latter, hydrogen can replace not only heating gas carriers, LOHC) or liquid ammonia. The latter could but also coke as a reducing agent. Relevant for the chem- replace heavy oil as a marine fuel in the future. But while ical industry is the use of green hydrogen to convert hydrogen from solar power in the Sahara region is still a carbon dioxide from combustion and oxidation process- pipe dream, H2 production will tend to be installed close es into higher-value chemicals such as polymers or to to the consumers in the short to medium term. This produce ammonia. In this way, chemical production strategy is followed, for example, by the 24-MW electrol- could even become a carbon dioxide sink. ysis project recently announced by Linde in Leuna. According to estimates by Hydrogen Europe, H2 pro- In addition to the high energy density of hydrogen, it duction and the provision of equipment for hydrogen is also easy to use and thus highly accepted by end users: projects could create a market with a volume of 130 bil- Hydrogen can already be mixed with natural gas today, lion euros in Europe by 2030. By 2050, the experts even for example, and transported via the natural gas grid expect a dizzying €820 billion market volume. with a share of up to 15 %. At the end point, the ener- Conclusion: To achieve the goal of a decarbonised gy-rich gas is either burned together with natural gas or economy and the 2 °C climate target, there is no way separated again for use as hydrogen gas. around hydrogen. The decisions taken by European politicians and other nations are likely to fuel develop- Opportunities for European Industry ment significantly. Initial industry projects show that In the Hydrogen Roadmap, the private research group the protagonists of the hydrogen economy are already “Fuel Cells and Hydrogen Joint Undertaking”, which preparing for this. ● 10 ChemPharm Innovations
Chemicals Race for Records in the Conversion of Green Electricity into Chemical Energy Green Light for Green Hydrogen Plant construction companies are in a record race for green hydrogen projects. Several projects were announced at the beginning of the year. It became clear that the industry is still at the very beginning of a rapidly accelerating development. Green hydrogen is set to become a key com- ponent of industry in the future. Source: Thyssenkrupp C ompared to the targets the industry is now set- The fact that scaling up of already developed electrol- ting itself, the latest political efforts at national ysis processes is the key to the large-scale production of and European level seem modest: CHEMIE green hydrogen is also illustrated by the project that TECHNIK 2020 has published almost 30 project reports Thyssenkrupp Uhde Chlorine Engineers will realise for on the subject of green hydrogen. And in early 2021, the Canadian energy company Hydro Québec in things were already happening in quick succession. For Varennes, Québec, which was announced a few days lat- example, Linde announced that the company plans to er: The 88 MW electrolysis plant is to produce 11,100 t of build the world‘s largest hydrogen electrolysis plant in H2 annually from hydropower. Both the hydrogen and Leuna based on proton exchange membrane technology the resulting oxygen are to be used in a biofuel plant that PEM. The restriction to membrane technology, for produces biofuels for the transport sector from residual which the company relies on ITM Power’s technology, waste. Commissioning is planned for the end of 2023. justifies the “world record” of the 24-MW electrolyser. Last year, the plant manufacturer significantly expanded And because the water electrolysis is to be carried out its production capacities for hydrogen electrolysis: the exclusively with electricity from wind and solar energy, production capacity of Thyssenkrupp and its joint ven- the hydrogen produced in Leuna is green hydrogen. The ture partner De Nora adds up to a total of one gigawatt. gas supplier wants to sell this to industrial customers and The fact that these capacities are needed is also illus- hydrogen filling stations in the eastern German region trated by what is currently probably the most ambitious via the existing pipeline network in Leuna. The company hydrogen project to be built in Saudi Arabia: There, a uses an example to illustrate the scale of the project: 600 joint venture of Air Products, Acwa Power and Neom buses powered by fuel cells could travel 40 million km plans to build a hydrogen electrolysis plant on the Red with the green hydrogen produced. Sea based on four gigawatts of solar and wind energy. The Author gas is to be converted into green ammonia and transport- Large-scale and Mega-projects in Sight ed as such. The plant, which is scheduled to go into oper- The record for hydrogen electrolysis using PEM technol- ation in 2025, will use electrolysis technology from ogy was previously held by Shell with its refinery project Thyssenkrupp and an ammonia process from Haldor in Wesseling, which was completed last year: ITM Power Topsoe. ● Armin Scheuermann installed 10 MW of electrolysis capacity there. If the re- is Editor-in-Chief of sults are positive, Shell intends to significantly expand You can find all relevant projects at CHEMIE TECHNIK the plant in the future. www.chemietechnik.de/serp.html?q=wasserstoff ChemPharm Innovations 11
HOTSPOTS Top 10: Largest Projects for Green Hydrogen The project activity surrounding the production of CO2-free hydrogen is picking up speed. Most probably however, not all the projects presented and announced here, will actually be realised. But given the European targets and projections, as well as projects around the world, we see this at best as the tip of the iceberg for the next decade. Detailed project descriptions can be found at www.chemietechnik.de 10 Green Ammonia BP to Evaluate Project in Australia The list of the 10 largest projects starts with an electrolysis capacity of 1.5 GW. Shell is planning on this scale at Geraldton, Australia, as part of a feasibility analysis. Image Source: Thomas – stock.adobe.com 9 Green Ammonia Chilean Mine to Go Green In the Hyex project, Engie and its mine operator Enaex are planning to build a hydrogen production faci- lity based on photovoltaic electricity in Antofagasta, Chile. Scale: 1.6 GW and 124 kt H2/a. Image Source: Enaex 8 Port of Oostende Wind Becomes Hydrogen According to plans by Deme, PMV and Port of Oostende, a 2.26-GW electrolysis plant will be built in the Belgian port by 2025 to produce 100 kt of H2 annually. Image Source: Port of Oostende 7 Australia 6 3.6-GW Project 1.6 Billion Dollars for Pure Solar Energy 3-GW Electrolysis Austrom Hydrogen plans to go even bigger The Hydrogen Utility H2U is plan- in Callide, Australia: more than 200 kt of H2 ning a plant in Gladstone, Australia, are to be produced annually by electrolysis. that will produce 5 kt of H2 and NH3 Export by tanker to Japan and South Korea per day – and has commissioned is planned. Name: Pacific Solar Hydrogen. Thyssenkrupp to investigate its Image Source: Austrom Hydrogen feasibility. Image Source: Thyssenkrupp 12 ChemPharm Innovations
Chemicals 5 H2 and Ammonia 10-GW Electrolysis on the Red Sea We have already reported several times on the Helios Green Fuels Project in Saudi Ara- bia. It is part of the Neom project and is being realised by Air Products using Thyssenkrupp’s electrolysis. 10 GW are plan- ned. Image Source: Thyssenkrupp Source: malp – stock.adobe.com 4 China and Australia Onshore Wind and Photovoltaics The fourth place is shared by two 5-GW pro- jects in Kalbarri, Western Australia and Eqi- anqi, Mongolia. The latter is scheduled for completion this year. Both use wind and so- lar power. Image Source: VinceGX – unsplash.com 2 GW 3 Heligoland Becomes H2 Hub Windward 2 GW 2 GW 27 companies are currently examining the 2 GW construction of a 10-GW electrolysis plant on Helgoland under the project name Aqua- 2 GW Ventus – catapulting the project to third 0,3 GW place in the global top 10. Image Source: RWE 2 Netherlands Shell‘s Big Plans Second place: “North H2” is currently the largest European project that Shell plans to realise together with RWE and others in Eemsha- ven: over 10 GW of electrolysis capacity and 1 million t H2/a. 1 At the Top with 14 GW Hydrogen and Ammonia NORTHERN TERRITORY for Export With 14 GW of electrolysis capacity, the Australien Asian Renewable Energy Hub in Pilbra, Wes- WESTERN AUSTRALIA tern Australia, leads the top 10 global green hydrogen projects. The consortium plans to SOUTH AUSTRALIA spend USD 36 billion on the project. Final decision: 2025. Image Soruce: Googlemaps – asianrehub ChemPharm Innovations 13
Chemicals Sustainability and Climate Protection in Plant Engineering Author Bridge to a Green Future Large-scale plant construction provides solutions for those branches of industry that cause the most CO2 emissions. The industry thus has a decisive role to play in achieving the climate targets. But where are the obstacles? Ansgar Kretschmer, Editor 14 ChemPharm Innovations
Chemicals “Hydrogen - the gamechanger”: Jürgen Nowicki (left) at the Achema Pulse Media Preview in an online interview with presenter Martin Kloss. Source: CHEMIE TECHNIK E nergy efficiency and sustainability are currently ble, but they are difficult to reference and bring to mar- among the most important topics in the process ket because customers do not want to be guinea pigs,” industry. The programme of presentations by the explains Bormann. assembled experts at the 7th Engineering Summit in The situation is aggravated by the fact that modern November 2020 devoted one of the three days of the and climate-friendly technology usually involves consid- event to the discussion of sustainability and climate neu- erable investment and often pays for itself comparatively trality in large-scale plant construction. Since plant engi- slowly. “We are still struggling with the economic viabil- neering supplies the emissions-intensive industries, ity,” confirms Martina Birk, Enviro Officer at the bot- these points are understandably important: “We are the tling plant manufacturer Krones. “New technologies are engine room of the industry; we are the ones who bring more expensive or require additional equipment. At the Source: Phattana – stock.adobe.com innovations to the market,” Dr Carola Kantz, Deputy current prices for electricity and heat, it‘s difficult to Managing Director of the VDMA Power-to-X for Appli- show that a line will pay for itself in three to four years. cations Working Group, aptly summarises. “And al- For most customers, the limit is around two years pay- though our emissions are rather low, the leverage to re- back time.” duce emissions with our products is huge.” Economic Incentives are Missing New Technology Means Risks The EU’s goal of climate neutrality by 2050 will not be Energy-efficient and consequently emission-reducing achieved with more energy-efficient plants alone, and the technologies to apply this lever are already available. The experts are also largely in agreement on this point. Rath- plant and machinery manufacturers agree on this point. er, a transformation of the entire industry is necessary, However, and here too there is no dissent among the said Philipp D. Hauser, project manager for industry in suppliers, there is still a lot of catching up to do when it the Agora Energiewende project, in his keynote speech at comes to “bringing them to market”. The industry’s in- the Engineering Summit. Otherwise, the major produc- terest in energy-efficient and low-emission solutions is ers of CO2 emissions, namely the steel, cement and chem- great, confirms Dr. Andreas Bormann, Vice President ical industries, could be doomed by the longevity of their and Head of Product Line Sustainable Chemistry at plants. With a plant lifespan of 30 to 50 years, these in- plant manufacturer Technip FMC: “Practically all our dustries are already dependent on efficient technologies customers ask how they can promote sustainability”. that are economical in the long term: “The customer There are several reasons why the necessary solutions must therefore rely on the fact that the economic efficien- have not yet been implemented on a large scale. New cy will increase over the years,” explains Bormann. He technologies always represent a risk for the operator also mentions one way in which this could be achieved: compared to tried-and-tested technology. Without sig- “For example, through factors such as the CO2 price.“” nificant reference projects, it is more difficult to elimi- Such political measures play an important role in making nate this risk: “Many technologies are ready and availa- offered technologies economically viable: “The boundary ChemPharm Innovations 15
Chemicals At the Summit Talk of the 7th Engineering Summit held online, (from left to right) Armin Scheuermann (moderator, Editor-in-Chief of CHEMIE TECHNIK), Martina Birk (Environmental Officer, Krones), Dr. Andreas Bormann (Vice President, Product Line Sustainable Chemistry, Technip FMC), (Deputy Managing Director, VDMA Power-to-X for Applications working group) and Helmut Knauthe (Chief Technology Officer, Thyssenkrupp In- dustrial Solutions) discussed ways of achieving climate-friendly energy production. Source: CHEMIE TECHNIK conditions must make it possible to get technologies into Chicken-or-Egg Problem the market that cannot yet show this economic viability The challenges, but also the opportunities for plant today,” emphasises Helmut Knauthe, Head of Technolo- manufacturers are similar, explained Jürgen Nowicki, gy, Innovation & Sustainability at Thyssenkrupp Indus- CEO of Linde Engineering and spokesman for the VD- trial Solutions. “No one will buy a new technology if it is MA’s working group Large Industrial Plant Manufactur- not competitive with the classic technologies.” The pre- ing, recently at the preview event for the Achema Pulse requisite for a transformation of the industry is therefore online trade fair. He describes a kind of chicken-and- that politics creates economic incentives for such invest- egg problem: for example, hydrogen remained compar- ments in the future with appropriate regulations. Experi- atively unattractive in mobility for a long time because ence from the plastics industry, for example, has shown there were hardly any filling stations for hydrogen vehi- that this is possible. Here, politically enforced recycling cles. At the same time, hydrogen filling stations are quotas have not only already significantly increased the hardly worthwhile as long as there is little demand for use of recycled material, but have also moved the indus- hydrogen vehicles. But it is precisely in mobility that try itself towards greater acceptance and self-set targets. Nowicki sees the potential to establish hydrogen as a fuel and energy carrier. “So we have invested in setting Too Little Green Electricity up filling stations.” So here, too, it is the bold initial in- Another bottleneck on the way to more sustainability is vestments that will only pay off in the long term, but are the process industry’s comparatively high energy de- urgently needed to transform the industry. But then mand or the lack of sustainable ways to meet it. Many of there is enormous potential in this market segment for the low-emission technologies are dependent on “green plant manufacturers. Nowicki describes Linde’s hydro- electricity”. So far, this is not available in sufficient quan- gen business as “tiny, but growing exponentially”. He tities and thus limits the possibilities for decarbonisa- expects that one day it will indeed be possible to meet tion. The current greatest hope in this area is the use of the growing demand with green hydrogen, and he also hydrogen as an energy carrier. The potential of this confirms: “The technology is there”. Until the energy emission-free technology is currently being discussed so supply, which is also green, is secured as an important intensely that there is already talk of a “hydrogen revolu- prerequisite, grey and blue hydrogen are necessary tion”. bridging technologies. However, this hope also comes with other challeng- What is missing with existing technology is econom- es: The hydrogen-based industry currently still suffers ic viability: “The challenge is that grey hydrogen is too from similar problems to plant engineering and the cheap or green hydrogen is too expensive,” says Nowicki. process industry. Most of the world’s already enormous Admittedly, simple stipulations such as a regulated hy- demand for hydrogen is covered by “grey” hydrogen, drogen price could not be the solution, as this would which is produced from fossil natural gas by steam re- threaten too many other industries. But in order to turn forming with high CO2 emissions. Regeneratively pro- numerous announced good intentions into actual pro- duced “green” hydrogen accounts for less than five per- jects and to open up the hydrogen market, additional cent. securities and investment incentives are needed. ● 16 ChemPharm Innovations
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Event The organisers (from left) Björn Mathes and Thomas Scheuring with presenter Martin Kloss at the Media Preview for Achema Pulse. Source: CHEMIE TECHNIK Digital Lecture Programme Achema Pulse Something Delayed Is not Something Lost The second pandemic year does not make it easy for organisers to plan any event. In wi- se foresight, Dechema Ausstellungsgesellschaft had already postponed its trade fair, Achema, to 2022. And the present year will see the launch of a supplementary digital lecture programme known as Achema Pulse. Achema, which would have celebrated its centenary in event early. In the meantime, a digital lecture program- 2020, has been postponed not by one but by two years me has been planned: Achema Pulse. This will take place Author due to the Corona pandemic. And this after the deputy from 15 to 16 June 2021 on a digital social media plat- managing director of Dechema Ausstellungsgesellschaft form. At a pre-event for media representatives, the two Björn Mathes said in an interview in 2019 that the fair managing directors of Dechema Ausstellungsgesell- had already experienced and survived several economic schaft, Thomas Scheuring and Björn Mathes, provided crises, a world war, and industrial revolutions. The atten- insights into the schedule of the event planned for the dance event will now not take place until April 2022. The summer. Dechema, Ekato, Excellence United, GEA, Nora Menzel, feedback from exhibitors was positive, as Dechema has OPC, Romaco and Siemens have been named as premi- Editor given them some planning security by postponing the um partners. In total, more than 500 exhibitors have al- 18 ChemPharm Innovations
ready registered, of which more than half come from outside Germany. A total of almost 150 hours of strea- FLUX ming by live exhibitors is possible, as well as participati- on in over 160 workshops and more than 90 hours of specialist congress topics. Topics include the digital transformation of the process industry, as well as the OPHO planned CO2 neutrality of large companies in the phar- maceutical and chemical industries within the next two decades. Accordingly, there will also be a focus on new machines and equipment that make such projects possi- BICCO ble. In addition, another topic will be the long-running issue of the hydrogen economy and, in view of the cur- rent situation, also the question: What does the accelera- ted vaccine production mean for machine and plant ATING manufacturers? Other highlights include cell recovery for chemical production, chemical recycling and artifi- cial intelligence. The digital lecture programme is not intended to re- place the face-to-face event, but to complement it in the future. It is planned that a digital event will take place in the „Achema has experienced and We make complex matters very years between two survived several economic crises, clear and offer a high degree of Achemas. The social a world war and industrial media platform deve- dependability and exceptional revolutions.“ loped especially for editorial quality. This is why Hüthig’s this purpose has al- specialist publications and websites ready been tested during the preliminary event for me- are absolutely vital to experts and dia representatives. Similar to a live event, it offers vari- management in many sectors of ous digital stages on which lectures, interviews and workshops take place simultaneously. In addition, when business and industry. they register, visitors can enter keywords on topics they are particularly interested in. On this basis, they can then later find exhibitors and other visitors with the sa- me interests and contact them via the platform‘s messa- ging function. While the digital lecture programme only takes place on two days, the platform remains online for a whole month. This allows visitors and exhibitors a longer exchange. Since the expansion of a digital platform for Achema had already been discussed internally at Dechema in 2019, the pandemic did not catch the exhibition compa- ny entirely off guard. And after the successful trial run of the social media platform in March, it looks as if Björn Mathes could add a global pandemic to his list of extre- me situations that Achema has survived. ● Achema Pulse Ticket Prices The live programme will take making and the opportunity place on 15 June from 8:15 for 1:1 video calls. However, it to 20:30 and on 16 June bet- does not grant access to the ween 7:00 and 21:00, in Eng- programme on the live stages lish, on the dedicated event or the Congress. Since 01 Ap- platform Talque. There are ril, the Pulse ticket costs 39 two ticket variants: the Pulse euros. The Premium Plus Ti- Hüthig GmbH Ticket and the Premium Plus cket, on the other hand, of- Im Weiher 10 Ticket. The Pulse ticket inclu- fers unlimited access to all D-69121 Heidelberg des all company profiles, ex- formats and costs 99 euros Tel. +49 (0) 6221 489-300 hibitor presentations, match- from 01 June. Fax +49 (0) 6221 489-310 www.huethig.de ChemPharm Innovations 19 hue_image_Woerter_blau_56x257mm_engl.indd 1 08.12.2020 16:57:40
Pharma HOTSPOTS Long Road to the Shot Supplying the population with Corona vaccines poses an almost unprecedented challenge to the industry. In addition to the vaccine developers, who are in the public eye, equipment suppliers and service providers must also be on top form – from component production to filling and logistics. 1 Components A Vaccine Requires over 100 Ingredients When people think of vaccines, they usu- ally imagine just one molecule. The reality is much more complex: adjuvants (effect enhancers), lipid nano-particles, plasmid DNA, amino acids, salts, sugars, etc. all number among the ingredients. Depen- ding on the vaccine, more than 100 ingre- dients may be needed. Image Source: Evonik 2 Production Equipment Single-use in Vogue The adoption of single-use technology is the trend in vaccine production. This is be- cause it offers an important time advan- tage over stainless steel reactors and pipes and other plant technology, especially when plants have to be set up and scaled up quickly. Image Source: Biontech 20 ChemPharm Innovations
Pharma 3 Contract Manufacturing and Filling Do It Yourself is Rare Pharmaceutical production is a world based on the division of labour: processes are be- coming ever specialised and require more and more specific know-how. Added to this is the desire for flexibility. Hence more and more companies are concentrating on de- velopment and marketing and leaving pro- duction to contract manufacturers. Some of them have already made headlines with the Corona vaccine. Image Source: Bayer Source: Maksym Yemelyanov ‒ stock.adobe.com 4 Packaging A Case for the Specialist Finding the optimal packaging for vaccines is a science in itself. The demands placed on the primary packaging - usually a vial or a pre-filled syringe - but also on the outer packaging are high and the devil is in the detail. In the case of the Corona vaccine, there are comparatively few specialists in- volved in this business. Image Source: Biontech 5 Logistics The Vaccine, that Comes in from the Cold The new mRNA vaccines in particular are extremely sensitive to heat stress and pose new challenges for logistics. Just-in-time concepts are therefore a must: 15 million deliveries in cool boxes are necessary for 10 billion vaccine doses. This is an El Dorado for specialised logistics companies, manu- facturers of cooling boxes and cabinets as well as providers of software for supply chain management. Image Source: Schaumaplast - Thermocon Sou rce : ma gan n ‒ st ock .ad ChemPharm Innovations 21 obe .com
Pharma Vaccine production at Pfizer in Puurs, Belgium. Numerous production steps are necessary before the Biontech-Pfizer preparation is finally pack- aged in the vial. Source: Pfizer Biontech-Pfizer: From Reactor to Vaccination Centre Corona Vaccine – How Is It Done? Everyone hails Biontech and Pfizer for their pioneering work on their mRNA vaccine. And as impressive as this is, it is worth broadening the perspective and taking a look at the players involved in production of the vaccine. Who are they? B iontech developed five different mRNA vaccine have longer manufacturing and delivery times, and they candidates based on its previous research on mR- also have to be cleaned between processes. Disposable NA technology. After conducting non-clinical products can be dismantled and disposed of after the and clinical trials, one candidate (BNT162b1) was select- process. ed. Following a risk-benefit assessment, the competent Once the desired cell density is achieved, the cultures national regulatory authorities granted approval for the are harvested and the cells are disrupted to expose the production and sale of BNT162b1. plasmid DNA. The material obtained on cell disruption is centrifuged or filtered, which initially removes larger Virus mRNA Without Viruses fragments. Suppliers such as Eppendorf, Sartorius, Bio Unlike conventional vaccines, no whole viruses need to Rad and Thermofisher are part of the value chain with be grown for the production of mRNA vaccines. Instead, their consumables as well as laboratory equipment. This only part of their DNA is required as a template for the also includes the chromatography columns needed in Author subsequent mRNA. The required DNA can be synthe- the next step. The DNA is separated from the other cell sised from an electronically available sequence and is debris using size-exclusion or anion-exchange chroma- then introduced into bacterial cells as a plasmid by elec- tography. troporation. The bacteria equipped with the viral DNA Transcription of the purified plasmid DNA is accom- are cultivated as cell cultures in single-use bioreactors plished cell-free in reaction vessels by adding various such as those produced by Sartorius. Single-use technol- enzymes and RNA building blocks (nucleoside triphos- Nora Menzel, ogy provides a time advantage that is urgently needed phates, NTP). The resulting mRNA, like the plasmid Editor due to the current pandemic. Stainless steel bioreactors DNA before it, must be separated from the other compo- 22 ChemPharm Innovations
Pharma Single-use technology is important in vaccine production because it brings significant time advantages. Source: Sartorius nents. The downstream processing is carried out by is part of a global manufacturing network contracted by Rentschler Biopharma, for example; the company an- Biontech to formulate, fill, and package the vaccine. The nounced its collaboration with Biontech in October LNPs with the included mRNA are finally sterile-filtered 2020. In the purification step, used enzymes, unincorpo- by Mibe and Pfizer themselves, among others, and filled rated NTP and faulty, double-stranded mRNA as well as into sterile vials in an appropriate buffer. the starting DNA are removed. Since mid-February, Bi- ontech has also been carrying out all process steps, ex- Temperatures Far Below the Arctic Average cept for filling, at its new site in Marburg. Pfizer fills the vaccine doses intended for distribution in So that the mRNA can better enter the human cells Europe into vials made of borosilicate glass at its produc- during vaccination, it is wrapped in so-called lipid na- tion site in Puurs, Belgium. The material is thermally no-particles (LNPs). These consist of lipids and other resistant and also chemically inert, which means that the raw materials that form a micelle around the active effect of the filled vaccine is not affected by interactions substance. These raw materials are produced by the with the container. companies Polymun and Croda. Polymun is an Austrian The vials are supplied by three different manufactur- developer and manufacturer of biopharmaceuticals ers: Stevanato, Gerresheimer, and Schott. Borosilicate based on mammalian cell technology and liposomes as glass was developed in 1887 by Otto Schott, one of the drug delivery systems. The company uses cross-flow in- co-founders of the German glassworks of the same jection technology, which is particularly suitable for name. Today, Schott is still primarily specialised in glass, sensitive drugs due to the mild procedure. Croda is a in various manifestations for applications in pharmaceu- specialty chemicals company that supplies products for tical packaging, household, optics, or electronics. Ste- cosmetics, paints, adhesives, pharmaceuticals, and vanato is an Italian company that produces pharmaceu- cleaning agents. Recently, Croda acquired Avanti Polar tical glass products and claims to be the second largest Lipids. Avanti, as the name suggests, specialises in the manufacturer of glass vials in the world. production of lipids that aid the formulation of drugs or After the vaccine is filled into the vials described their absorption into the human body. Croda entered above, they are flash frozen and stored in ultra-low tem- into a five-year agreement with Pfizer in November 2020 perature freezers at –75 °C until they are shipped. This is for the production of drug carriers. Subsidiary Avanti, colder than the winter temperature in most parts of the which had previously been a long-standing partner, is Arctic. Theoretically, the doses retain their effect for up also involved in this production. to six months when stored in this way. However, given The formulation of the LNPs around the active ingre- the current situation, it is unlikely that this storage peri- dient mRNA will be carried out by Dermapharm or its od will be exceeded. subsidiary Mibe Arzneimittel, among others. In a press Pfizer uses a just-in-time system through which or- release earlier this year, Dermapharm announced that it dered vaccine doses arrive at their recipient within three ChemPharm Innovations 23
Pharma High demands are placed on logistics, the vaccine is shipped in special shipping packages with temperature control. Source: Pfizer days via road or air transport. This eliminates the need for example, are purchased from the manufacturers B. to purchase ultra-low-temperature freezers at the vacci- Braun and Becton Dickinson. nation centres by ensuring rapid deliveries when needed, Some of the syringes were also ordered from Gerres- and the unopened transport boxes can maintain a con- heimer, which is also involved in supplying the glass vi- stant temperature for up to ten days. The boxes are used als. Gerresheimer specialises for the most part in special for temporary storage in the vaccination centres and are products made of glass and plastic for the medical and also reusable. The packaging system used is from Soft- pharmaceutical industries, and to a lesser extent the box, a UK-based manufacturer of temperature-con- cosmetics industry. B. Braun is also a German company trolled packaging. The shipping packaging consists of a that was founded in 1839 as a pharmacy. Today, B. Braun cardboard box with an integrated Styrofoam box, into specialises in the further development of medical thera- the lid of which a GPS-enabled temperature sensor is pies. In addition to its product portfolio, the company incorporated. This allows the temperature consistency of also offers services and consulting. The third major sy- each box to be monitored remotely. A total of 23 kg of ringe supplier is Becton Dickinson, a US medical tech- dry ice is filled into the Styrofoam box, into which five nology company. Similar to B. Braun, BD offers not only boxes containing the filled vaccine doses are placed. The a product programme for medicine and life sciences, but Styrofoam lid is closed, the temperature sensor activated, also services in these fields. and the box prepared for shipping. As one of the largest In addition to syringes and needles, vaccination also international pharmaceutical companies, Pfizer has a requires other consumables such as disposable gloves, well-developed supply and cold chain management sys- swabs, disinfectants, plasters and sodium chloride solu- tem. Nevertheless, it had to be revised because no such tion to dilute the concentrated vaccine. However, since large delivery volumes had previously had to be trans- these materials can be produced quickly, there is no need ported at such low temperatures. to fear a bottleneck here. Consumables in the Vaccination Centres Long Production Chain The German vaccination centres do not order directly for a Brief Needle Jab from Biontech and Pfizer, but receive the vaccine doses What began with research into a new type of vaccine in ordered by the federal government and distributed with- Mainz has now developed into a production network on in Germany. Only the consumables needed for the vac- a global scale. Depending on the destination of the vac- cination are stocked on site. The syringes and needles, cine doses produced, sub-steps are carried out at loca- tions distributed around the world. In Europe, Puurs, Belgium, is the main site for the production of the Coro- German Production Sites for Corona Vaccines na vaccine. In the USA, the Kalamazoo site in the state Besides the vaccine from Biontech promote production within its own of Michigan has this task. This is the only way to ensure and Pfizer, others are also licensed country. You can see the current the reliability of the just-in-time system. in Germany. However, only a small state of affairs in this regard and For the vaccinated person, the Corona vaccination is proportion of them are produced in which projects are already planned only a small pinprick. Thanks goes to many different Germany. In order to reduce de- online (www.pharma-food.de/imp- companies around the globe that this became possible at pendence on imports, the German fstoff-standorte) in an interactive all. Fortunately for all of us, they had already planned government wants to increasingly map. ahead when BNT162b1 was still in its infancy, in clinical trial phase. ● 24 ChemPharm Innovations
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