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Wind-Powered Ships

Wind-powered ships

Wind propulsion and wind assistance for ships has great potential in resolving the unprecedented challenges that the shipping industry faces today.

Modern wind propulsion systems have little in common with the canvas sails of old and range from “Flettner-rotors” over kites and suction sails to rigid sails that resemble vertical aircraft wings. All these systems are major investments and the decision to install them requires careful consideration of many complex questions. 

Our specialised team includes naval architects, aerodynamicists, data analysts, structural engineers, master mariners, and logistics experts.

We provide

  • 3rd party feasibility studies & performance assessments
  • Ship and appendage design support
  • Seakeeping and manoeuvring studies
  • Sea trials and performance monitoring
  • Logistic studies
  • Crew training

We support

  • Yards & designers
  • Ship owners & operators
  • Technology providers
  • Authorities
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Frederik Gerhardt

Forsknings- och utvecklingsingenjör
+46 73 072 90 26 Read more about Frederik
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Division: Division Safety and Transport Maritime Sekundär områdes navigation: Logistics

HCT DUO DEMO - Logistics & system effects and traffic Safety

Systemeffects HCT first/last mile
HCT for transport of continers first/last mile

The HCT Duo Demo project tests the use of longer vehicle combinations for transport on the route between Hallsberg and Örebro. The purpose is to investigate, among other things, the effects of using the longer vehicle crew regarding transport efficiency, transport costs and traffic safety.

Assistant Projectleader, expert logistics and transport
Completed
Digital infrastructure Fossil free fuels Infrastructure Mobility System innovation
2 år
2 700
Division: Division Digital Systems and Societal Transformation

The HCT Duo Demo includes pilot tests of transport with HCT vehicles between the Hallsberg terminal and logistics areas in the Örebro region. It is a 30 meter long vehicle with three axles and two trailers. New technology and new designs are being tested to create better knowledge and basis for rule changes in connection with the introduction of longer vehicles in Sweden. 

The main purpose of the project is to carry out an analysis regarding logistics and system effects both on subsystems and the entire multimodal transport chain between the Port of Gothenburg and the Örebro region. The project will also provide the basis for the production of basic data for HCT vehicles to be implemented in the environmental calculation calculation tool NTM CalC. In the project, an investigation into how unprotected road users (cyclists) are affected by the longer vehicle train will also be carried out. This through pilot tests on the stretch Örebro – Garphyttan.

Sara Ranäng

Forskare
+46 73 084 97 85 Read more about Sara
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Project end date: Logistics Sekundär områdes navigation:
Automotive and future transport
Risk and security

DiSC: Digital supply chains through additive manufacturing

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): DiSC: Digital supply chains through additive manufacturing Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

Additive Manufacturing (AM) has evolved from prototyping into a industrial production method that is reshaping products and supply chains for companies across all industries. With AM, you can enable demand-driven, sustainable, resilient, and localized production.

However, the big question has been: How do you quantify the business value of AM?

Purpose/Benefit:

Companies and organizations face increasing demands for cost efficiency, shorter lead times, improved sustainability, and resilience.

At the same time, they need to manage:

  • Complex logistics and disturbances
  • Fluctuating demand
  • Parts availability
  • Transition from traditional processes

Finding a tangible and realistic AM business case is essential to drive the transition towards greater sustainability, resilience, and competitiveness. However, identifying suitable components for AM without a clear business perspective and automated tools is both difficult and time-consuming.

Method (what/which methods are used to perform the service):

To identify which components are suitable for AM, both technical and business selection criteria need to be applied. At RISE, we have developed proven automation tools and methods, and continue to advance them, to describe any supply chain, compare it with one of five different AM-enabled supply chain scenarios, and quantify its business value based on the following three parameters:
• Cost 
• Lead time 
• Sustainability

The proven and tested method and tools enables you to:

  • Automatically scan your complete spare part catalog (1-150000) to identify spare parts suitable for 3D-printing
  • Analyze the entire supply chain and calculate cost, lead time and CO2 emissions
  • Quantify business value and sustainability gains with AM
  • Build scenarios for future production – from centralized to local printing
  • Establish road maps and strategies to drive the transition. 

Our methodology and tools provides clear decision support based on time, cost, and environmental impact.

How it works

Together with you, we will:

  1. Build cross-functional team and share knowledge based on latest research
  2. Identify parts with AM potential
  3. Analyze the supply chain
  4. Calculate business cases and sustainability benefits
  5. Provide recommendations and next steps
Delivery (what does the client get after performed service – e.g. a report, certificate etc.):

You will receive a dedicated business case including:

  • Automated analysis of your entire spare parts catalog (1–150,000 items)
  • 1–5 selected components (or component groups) with AM potential
  • Simulated scenarios for regional or local 3D-printing
  • Clear calculations of lead time, cost, and sustainability savings
  • Concrete recommendations for next steps to drive the transition
Delivery time:

3-6-12 months

Area:
Additive manufacturing
Circular transition
Digitalisation
Mobility
System innovation
Contact person (Enter one name per field. Activated personal contact pages will appear automatically): Markus Eriksson, Director Application Center Additive Manufacturing
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Field measurements: No Price type: 1 Division: Division Digital Systems and Societal Transformation Preparation: No preparation required Certification and marking: Not applicable Type of service: Innovation services Instrument: Not applicable General area: Not applicable Order information: Please contact us, and we will set up a meeting. URL: Contact form Divison (OLD): Division Digital Systems and Societal Transformation Delivery level: Not applicable
markus.eriksson@ri.se,
/en/node/10120
Documents: More information:


Do you want to learn more about the RISE method download our white paper "How to calculate the business value of Additive Manufacturing".

Download How to calculate the business value of AM 
 

If you want our support, have a project idea, or want to participating in one of our research projects, please provide your details to the right under "Application of interest", and we will get in touch with you and discuss your idea.
 

Illustration: The 3D printing funnel.


Image: RISE
9. Industry, innovation and infrastructure
12. Responsible consumption and production
Purpose - Header: The challenge Metod - Header: The solution Delivery - Header: The delivery More information - Header: Do you want to learn more?
Application of interest
form
Additive manufacturing Sekundär områdes navigation:
Circular transition
Logistics
Digitalisation
Tjänstetyp tagg: Konsultuppdrag

The value chain of hydrogen driven forestry transports in Värmland

V3 skog
Timber transport

Hydrogen as a fuel has been considered in previous studies as a practical and economic possibility for heavy forestry transports to achieve zero emissions. This project aims to analyze how the practical value chain should come together in Värmland for hydrogen-powered forestry transports to become a reality.

Projektledare och koordinator
Completed
Energy Mobility Hydrogen
Region Värmland
2 year
2,6 MSEK
Division: Division Safety and Transport

How can hydrogen electrification of the value chain for forestry transports take place in Värmland? This is to be answered through close collaboration with relevant stakeholders within the value chain for forestry transports in Värmland, in order to collectively design, describe, and assess whether a future pilot project on hydrogen electrification of this transport segment is suitable in Värmland.

The work is complemented by comprehensive descriptions and analysis across economics, technology, energy supply, user perspectives, as well as regulations and legislation.

Questions that the project aims to address include:

  • Which parts of the value chain for hydrogen-electrified forestry transports are currently in place? What is missing?
  • What are the risks for each party involved, and how can the risks be distributed?
  • When will each part of the value chain be completed?
  • Where are potential bottlenecks?
  • Will the system as a whole be sufficiently competitive?

The project also produces a general descriptive report on how hydrogen electrification of forestry transports can be implemented in a region. The report is based on the expertise gained from Värmland through this project and translates it to other counties with a high proportion of forestry transports.

On this page, public documents will be published throughout the project's duration.

Gustav Green

Forsknings- och utvecklingsingenjör
+46 73 034 95 68 Read more about Gustav
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Hampus Piehl

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Project end date: Hydrogen Sekundär områdes navigation:
Circular transition
Electromobility
Logistics

Competence platform for additive manufacturing

COMPASS II
IRBAM

The COMPASS II project, financed by Västra Götalandsregionen, sought to strengthen the knowledge in additive manufacturing along the entire value chain. Increased knowledge and collaboration between industry, academia and research institute is valuable for companies operating in the region, and for research and innovation capacity in general.

Coordinator
Completed
Additive manufacturing
Västra Götaland Region
2 years
20 000 000 SEK
Division: Division Materials and Industry

Additive manufacturing is a fascinating manufacturing method that opens for unique possibilities. The list of benefits is long, and includes:

  • Unique design
  • Significantly lower material consumption
  • Reduced time from idea to market introduction
  • Unique material properties
  • Digital warehouses

In order to reach the technology's full potential, it is important to have an in-depth knowledge of the different processes and materials. You also need access to the technologies, including their individual eco-systems, so that you may test and verify different solutions. Today, there are seven main manufacturing groups, which in turn are divided into subgroups, depending on the material and energy source. This means that there are around twenty different techniques in additive manufacturing. Considering the flora of methods and materials available, it is often difficult for companies to get started. In order to support the industry in the transition and help them strengthen their competitiveness, the Application Center for Additive Manufacturing (AM Center) was started in 2021. The center harbors deep and broad knowledge in the field, and is a place for cross-disciplinary collaboration between industry, academia and research institute. Together we explore, develop and implement various technology solutions.

The purpose of COMPASS II was to promote that environment in order to secure a long-term competence development for the benefit of both partner companies and other organizations (private and public), that seek help in the field of additive manufacturing to strengthen their competitiveness.

This project focused on different technologies, such as Directed Energy Deposition (DED), Industrial Robot-based Additive Manufacturing (IRBAM), Metal Binder Jetting (MBJ), Hot-isostatic-press (HIP) och Hirtization. In addition to that, we also ran a number of themes, including digitalization, sustainability, logistics, business models and electrification.

The total project budget was approximately 20 MSEK. The project was funded by Västra Götalandsregionen (VGR).

Image: VGR
Chalmers Technical University
Funders without URL: Västra Götalandsregionen Project end date: Additive manufacturing Sekundär områdes navigation:
Logistics
Lifelong learning
Digitalisation

Virtual network improves supply chain risk and disruption management

Aerial view of international port with Crane loading containers in import export business logistics

Uncertainty about shipping arrival times is a major source of dissatisfaction among transport buyers. One solution is the 'Virtual Watch Tower Network' – a Facebook for transport, where everyone has their own page. Information about disruptions to deliveries and other important events is shared between stakeholders, giving cargo owners greater insight into the transport chain.

The self-organised transport ecosystem is made up of many players. In shipping, there are a few large shipping companies, but many more small ones. The number of shipping companies operating on the world's oceans (in 2021) was 15 200. Shipping companies own a total of 56 000 vessels, which visited more than 5 600 ports during the year.

The reality is similar for other transport modes. Complexity and competition contribute to a reluctance – and habit – of sharing information. But now it looks like a change and a rapprochement is underway.

"The patience of goods owners is wearing thin. They are tired of receiving inadequate – and sometimes no – information about when their goods will arrive at their final destination," says Mikael Lind, Senior Researcher at RISE and initiator of the Virtual Watch Tower Network concept.

Predictability creates competitive advantage

In practice, it is not possible to book an exact time for loading or unloading goods. In many cases, the port works on a first-come, first-served basis. This means that many ships circulate in or outside the port for long periods waiting to be served. The cargo often includes containers of goods to be shipped to an end customer.

Mikael Lind uses Stora Enso as an example:

"They buy large amounts of transport every year and want to halve their emissions by 2030 compared to their emissions in 2019. This means that their choice of transport operator is very important, and those who can offer better predictability have a big competitive advantage."

The patience of goods owners is wearing thin

Shared data for greater insight

The idea behind the Virtual Watch Tower, the vision for the solution that a larger community will now co-create, is that everyone who joins agrees to share their data by signing a power of attorney. Everyone in the cargo owner's transport corridors will have access to their own watch tower, where information about important events such as route planning, delays and port readiness will be shared. The aim is to give the cargo owner, who pays for the transport, confidence that any disruptions will be resolved by the parties involved. The level of emissions will also be reported and monitored.

The Virtual Watch Tower Network concept is a further development of the CDM concept that RISE has been working on for many years (see e.g. PortCDM, YardCDM, StationCDM). The common denominator is increased transparency in the transport chain through digitisation. But there is an important difference: while the CDM was designed to coordinate separate transport nodes (railway stations, airports and ports), the Virtual Watch Tower Network concept is an end-to-end solution. It involves all the players involved in a transport operation, regardless of the mode of transport.

Pilot project demonstrates building blocks

RISE, together with its counterpart in Singapore, A*STAR/IHPC, is leading the work to connect stakeholders, but also to create arenas for innovation and demonstration of the system.

"In the pilot project we had 50 stakeholders (cargo owners, transport operators, service providers and research partners) in shipping, rail and road transport. And more are joining. With the Virtual Watch Tower Network, we have found a network solution that recognises the sovereignty of each actor, and that is something that is perceived as very meaningful," says Kenneth Lind, Senior Researcher at RISE and Project Manager for the pilot project.

During Singapore Maritime Week in late April 2023, the RISE Virtual Watch Tower Network demonstrated the concept for the first time in a public context. The next step will be to develop and demonstrate the key building blocks of the concept during a two-year pilot project, funded by Vinnova and its Singaporean counterpart, the Singapore Maritime Institute.

"I see huge potential in this solution. It fills a gap for something that a global industry sees as a challenge. Using digital technology, it is helping to create important value both for the organisation and for society at large," concludes Kenneth Lind.

Virtual Watch Tower Network

Virtual Watch Tower Network (VWT) är en nätverksbaserad systemlösning som byggs, används och styrs av en gemenskap som är ansluten genom en digital middleware som länkar samman de olika gemenskapsmedlemmarnas VWT:er för att driva kollektiv intelligens och samarbete i globala nätverk för försörjningskedjor för att förbättra hanteringen av risker och störningar i försörjningskedjan.

Läs mer på www.virtualwatchtower.org

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Kenneth Lind

Forskningsledare
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Logistics Sekundär områdes navigation:
Innovation management
Digitalisation
Maritime
Risk and security

The sustainable harbour paves the way for greener shipping

Gothenburg harbor Photo: Göteborgs hamn

Proactivity from all parties is a must if 'The Sustainable Port' is to become a reality. This is the view of Mikael Lind, Senior Strategic Research Advisor at RISE with a special focus on maritime transport and logistics. He calls for increased cooperation and more innovative initiatives if the port is to maintain and strengthen its position as a transport hub.

Sweden's role as an exporting nation is entirely dependent on shipping. More than 95 per cent of Sweden's goods trade passes through its ports – and there are strong indications that much of the country's current road traffic will be shifted to rail and sea. This calls for greater sustainability in shipping, the rail system and the port.

Strengthening the innovation capacity of small and medium-sized ports

Since 2020, RISE has been running the "I.Hamn" project, which aims to strengthen the innovation capacity of small and medium-sized Swedish ports by facilitating cooperation and development in the areas of digitalisation, electrification and automation. Based on this work, RISE has formulated the concept of "The Sustainable Port".

"A sustainable port needs to address three different types of nodes: one with its natural focus on being a transport node, another for the potential role of being an energy node and a third to also be an information/digital node. "All these dimensions are important if we are to achieve greener shipping," says Sandra Haraldson, senior researcher at RISE, concept developer for The Sustainable Port and project manager for I.hamn.

"Put simply, all hub concepts are about seeing the port as a hub in a larger network. Transport rarely stops at the port; goods are collected by lorry, train or ship. A key challenge for the port as a transport hub is to get all the transport modes involved to work together.

Avoiding unnecessary delays through optimal preparation

Even if a ship announces its arrival well, problems can arise if the port is not optimally prepared for both internal handling and onward transport. This causes unnecessary delays throughout the transport chain.

Mikael Lind says that the port has become an important business cluster, with more and more parties involved.

"Almost SEK 20 billion is invested in the Swedish port system today. In order for this investment to be profitable, more knowledge is needed about how the port can serve each mode of transport as efficiently as possible, while at the same time ensuring that port operations are as sustainable as possible.

Closer cooperation between energy companies and ports is an example of where digitalisation is needed to coordinate the distribution and storage of energy, but also to plan and enable energy-efficient operations.

There is already an increased demand for electricity supply and charging facilities. Both from ships and trucks.

"Most ports cannot meet these demands. The infrastructure needs to be developed so that there is enough power for both transport and the inhabitants of the city," says Mikael Lind.

The sustainable port addresses the UN Sustainable Development Goals by using them as a benchmark for operations

Connected freight – an exciting solution

Connected freight is a new type of solution that Mikael Lind strongly believes in. With the help of connected sensors, shipping companies can track their goods as they travel and know where they are, but they can also check other important parameters, such as the temperature the goods are exposed to, whether someone has opened the container in which the goods are located, and so on.

"This is revolutionary technology. In particular, the connected container means that we can get information about the geographical location of the container and how it is handled as it passes through different transport hubs and is handled by different modes of transport.

Another example is when several ships arrive at the same time and some have to wait until they can dock. This results in unnecessarily high emissions as these waiting ships could have travelled slower to get to the port. Many are working to ensure that ships arrive at the port on a just-in-time basis, for example by focusing on green shipping corridors and synchronising on a virtual rather than a physical basis.

"The sustainable port addresses the UN Sustainable Development Goals by using them as a benchmark for operations. By focusing on both the port's internal operations, how the port can best serve its visitors, and the port's role in its local and regional context, the port becomes an integral part of the sustainable transport ecosystem, says Sandra Haraldson.

Rallying for the sustainable port

During the first half of 2023, RISE will lead the preparation of a rally for the sustainable port in a preparatory project supported by Vinnova. The aim is to create further conditions for continued work to increase innovation capacity in Swedish ports. The project builds on previous projects funded by Lighthouse, Sweden's collaborative platform for maritime research and innovation.

"Among other things, we are working on a cross-sectoral system demonstrator. The purpose of this is to find the answer to the 'how' question for the Swedish ports' journey, which is expressed in the sustainable port roadmap that we are currently developing together with the Swedish ports," says Sandra Haraldson.

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Maritime Sekundär områdes navigation:
Sensors and sensor systems
Logistics
Digitalisation

Aiming for better livelihoods in crisis an opportunity in normal times

Aiming for better livelihoods in crisis an opportunity in normal times

.Two major global crises in a short space of time. The coronavirus pandemic and the war in Ukraine have highlighted the need for greater food security. This is to ensure that we can all put food on the table even when global transport chains are disrupted. And striving for greater self-sufficiency can bring new business even in normal times.

Sweden is currently about 50 per cent self-sufficient, a relatively low figure compared with Finland's 80 per cent, for example. Aiming for greater self-sufficiency is important to strengthen our resilience in crises like the current one - but it can also be a way to become more efficient, more sustainable and to find new business in normal times.

Security of supply is important all along the food chain

High food security is about what and how we grow, harvest, handle, preserve and store food raw materials. It is also about how we process, manufacture, store and transport the food we produce.

In normal times, increased production here at home is an opportunity to steer food production towards better management of resources, lower climate impact and stable jobs - and not least a chance to increase exports of Swedish quality goods.

But a higher degree of self-sufficiency also provides greater resilience to various types of change, such as temporary shortages of raw materials and inputs, or disruptions in the logistics chain during crises, emergencies and, ultimately, war.

"In the best of all possible worlds, import and export systems will work in the face of disruption, but if they don't, we need to ensure that we have the supply capacity to meet production and distribution needs. And to be resilient, we need the whole food industry, including both primary production and the food processing industry," says Birgitta Raaholt, senior researcher at RISE in the area of supply preparedness and resource-smart manufacturing technology.

"The whole industry therefore needs to be updated and prepared. The various stakeholders are working together with RISE – which acts as a knowledge hub – on everything from identifying replacement goods, alternative production of spare parts, food safety in the event of disruptions in the regular supply chain, finding ways to safeguard operations in the event of disruptions, risk analysis (see fact box).

It's not just about what we produce, but how we use the resources we need to do it. Resource efficiency is important for both livelihoods and sustainability - how we make the best use of resources when, for example, energy and water are scarce.

"This goes hand in hand with both resilience and sustainability perspectives", says Birgitta Raaholt.

Robust, sustainable and safe food production

In terms of our ability to gently produce safe food that can withstand storage and transport, there are several advantages to using new technologies for food production.

"These include making greater use of certain crops that were previously used less for food processing and more for animal feed. Conserving a resource may mean using more energy-efficient baking and drying techniques. And that it might be wise to use peas on the plate instead of making flour from them to make a product that looks like sausage," says Birgitta Raaholt.

Resilience is about our food system being able to cope with "a bit of a wobble". Some production is more resilient, says Birgitta Raaholt, pointing to livestock as an example.

"Our livestock graze and are still there when the power goes out. The same goes for a food like eggs, which can be kept at room temperature even if the power goes out. Processed foods include UHT milk and highly pasteurised, sterilised or dehydrated foods."

However, food production also depends on a range of so-called inputs, such as seeds, fertilisers, fuels and agricultural pesticides.

"For example, we can look at the domestic production of plant nutrients. In food processing, it's about production readiness and access to raw materials, packaging, refrigerants... But also the ability to maintain a functioning infrastructure and comply with regulations on safe food and food handling," says Birgitta Raaholt.

If you have disruptions that bring the system down, this places additional demands on the robustness of the chain

Modern – and traditional – storage methods needed

Both large and small players in the food industry are now using modern storage techniques. But households also need to know more about how to ensure that they are prepared at home, and how to store food sustainably and well.

"This is something we need to work on more. In normal times it's easy to go to the shops and buy what we need, but we still need to have an emergency plan at home. The Swedish Civil Contingencies Agency has put a lot of pressure on this, so that everyone who is able should be able to cope for a week," says Birgitta Raaholt.

The next step is for the transport and logistics chain to function. Both for the arrival of the goods and as part of food safety – that is, the food has to be transported and stored properly until it reaches the person who will eat it.

"If you have disruptions that bring the system down, this places additional demands on the robustness of the chain. For example, if you don't have the power to keep the cold chain going, people can get sick. Packaging is also necessary to store and maintain the quality of food, as are pasteurisation and drying processes."

Flexible preparedness is one way

The global pandemics of recent years have given us several examples of how preparedness can be about the ability to quickly adjust production to obtain key commodities. Often this involves cooperation between different actors.

"One concept we are working on together with industry is flexible preparedness. It's about how industrial production in Sweden can adapt during a crisis. It could be things like a number of companies working together to develop strategies for production, as we saw with face masks during the pandemic. It is conceivable that similar solutions can be implemented in the food industry," says Birgitta Raaholt.

"Much of our work focuses on technical solutions for production transition and collaborative models for flexible preparedness. This may involve managing service and maintenance, or manufacturing the spare parts needed in the food industry. Strategies for storage and resource-efficient manufacturing are also necessary elements of resilient food production."

How to prepare your organisation for times of crisis

RISE works with industry stakeholders in a number of areas:

  • Identification of substitutes, such as ingredients, raw materials and inputs required for food production
  • Tailor-made production of spare parts, e.g. through additive manufacturing
  • Identification of alternative manufacturing facilities
  • Identifying and minimising risks to maintain food safety
  • Training in business continuity management (ISO 22301:19) to ensure safer operations in the event of a disruption
  • Suggested measures, methods and techniques for resource-efficient, sustainable food processing and production under changing conditions
  • Decision support models, e.g. through risk and vulnerability analysis and system-of-systems analysis
  • Risk analysis of supply chains (production, distribution, storage and transport)
  • Proposals for actions that contribute to resilient, sustainable livestock, crop and water management
  • Collaboration and knowledge building with RISE and other stakeholders

Birgitta Raaholt

Senior forskare
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Security of supply Sekundär områdes navigation:
System innovation
Logistics
Production and manufacturing
Food

Business criteria for selection of 3d-printed components (SPARSAM)

SPARSAM
Less transportation with AM.

In order to identify which components are suitable for additive manufacturing (AM), both technical and business selection criteria needs to be used. The purpose of this project was to investigate the possibility of expanding the technical selection criteria with business values ​​such as reduced inventory costs, transport and environmental impact.

Coordination and project management
Completed
Additive manufacturing Circular transition Digitalisation Mobility System innovation
22-10-17 to 23-04-14
800 000 SEK
Division: Division Digital Systems and Societal Transformation
Image: Markus Eriksson

Additive manufacturing (AM), or 3D-printing, has been around for decades without impact on the supply chains. But the maturity of AM is today driving the development from being a tool for visualization and prototyping to industrial large-scale manufacturing of products and components. This development means that production can be moved closer to the customer, which makes it possible to transform the supply chains.

The transformation of the supply chains can be described in different scenarios. In this project, the values were evaluated based on the following scenarios:

  • Scenario 1. Current situation: centralized mass production and global supply chain.
  • Scenario 2. Factory: AM is introduced centrally in a factory, which enables e.g. demand-driven production.
  • Scenario 3. Distribution center: production is distributed to a distribution center, which for example results in reduced long-distance transport and reduced inventory costs.
  • Scenario 4. Retailers: the production is distributed to retailers, which enables, for example, shortened lead times and need-based production.

In order to identify which products are suitable for additive manufacturing, both technical and business selection criteria needed to be used. Today, the technical selection criteria dominates, such as complexity in form, need for low weight and potential for consolidation. Sustainability and business criteria such as reduced inventory, increased availability, fewer transports, improved resilience or lead time are often omitted because they are considered difficult to quantify or our of scope.

Project objectives

The purpose of Sustainability Parameters for Parts Analyses and Selection for AM, SPARSAM, was to explore the possibility of expanding the technical selection criteria for an additively manufactured component to include values related to supply chain and sustainability.

The project also aimed to accelerate the transformation of the linear supply chain toward a more resource-efficient and flexible production system, while incorporating a gender perspective.

Project implementation

The activity consisted of the following 4 work packages:

  1. Establishment of collaboration and team
    Deliverable: High performing project team.
     
  2. Current situation and knowledge
    Deliverable: Description of current state related to scenario 1-3.
     
  3. Feasibility of supply chain model and selection parameters
    Deliverable: Feasibility of selection criteria’s and genus implications.
     
  4. Identification of step 2-initiatives and dissemination
    Deliverable: Identification of research and innovation project relating to goals of the call. Dissemination via for example Application Center for Additive Manufacturing and Production2030.

Markus Eriksson

Director Application Center Additive Manufacturing
+46 73 398 23 36 Read more about Markus
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5. Gender equality
9. Industry, innovation and infrastructure
12. Responsible consumption and production
Project end date: Additive manufacturing Sekundär områdes navigation:
Circular transition
Logistics

Rub testing of packagings and labels

Name of service (page headline, shown in promos – maximum of 70 characters incl. spaces): Rub test of packagings and labels Lead (include SEO-words and the main benefits for your target groups. Stick to one paragraph, maximum 2-3 sentences):

The laboratory at RISE Packaging Excellence Centre is certified by ISTA and is one of the most well equipped and advanced laboratories in all of Scandinavia for testing packaging and packaging materials. We conduct tests in a controlled environment according to international standards.

Purpose/Benefit:

Rub tests are carried out to ensure that the readability of labels and printed packages is not affected by abrasion moments that can occur during a distribution. Abrasion moments can be, for example, packaging/labels rubbing against each other during transportation.

Method (what/which methods are used to perform the service):

Rub tests are performed using a Sutherland Rub Tester.

Delivery (what does the client get after performed service – e.g. a report, certificate etc.):

Report received after completion of testing.

Delivery time:

The delivery time is approx. 2-4 weeks depending on the number of samples to be tested.

Area: Not applicable Contact person (Enter one name per field. Activated personal contact pages will appear automatically):
Elin Åkerlund, Forsknings- och utvecklingsingenjör
Contact for packaging testing
Field measurements: No Price type: 1 Division: Division Bioeconomy Preparation: No preparation required Standards:

ASTM D5264

Certification and marking: Not applicable Type of service: Testing / Analysis / Evaluation Instrument: Not applicable General area: Not applicable Order information: Contact us at forpackningsprovning@ri.se to discuss more about rub tests. Divison (OLD): Division Bioeconomy Delivery level: Non-accredited
forpackningsprovning@ri.se
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