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This collection features a selection of inspiring examples of the circular economy, compiled in the context of the Switch to Circular Economy Value Chains programme (SWITCH).

Launched in 2020, SWITCH is a five-year initiative that assists EU multinational companies and their suppliers from developing countries to switch to more circular economy approaches and practices in three selected value chains: [Plastic Packaging](https://knowledge-hub.circle-lab.com/switchtocircular/search?collections=832%3D0&framework_elements__5=111), [Textile & Garments](https://knowledge-hub.circle-lab.com/switchtocircular/search?collections=832%3D0&framework_elements__5=99), and ICT and Electronics.

The overall objective of SWITCH is to support the “transformation towards a circular economy”, and to contribute to sustainable growth, low carbon and climate resilient development, decent jobs creation, and a safer, healthier and pollution-free environment.

SWITCH is co-funded by the European Union and the Government of Finland, and implemented by UNIDO, in collaboration with Chatham House, Circle Economy, and the European Investment Bank.
Learn more at www.switchtocircular.eu

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Switch to Circular Economy Value Chains

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This collection is being created to regroup all case studies related to the packaging industry (CAT purpose)

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Packaging collection

Business case

Direct and indirect reduction in economic costs

Cost Savings

Reduced use of virgin materials and/or an increase of the use of secondary and bio-based materials

Reduce Material Consumption (SDG12)

Minimise waste through diversion: Instead of sending waste to landfill, it is redirected into other industrial processes for handling, treatment, recycling, recovery, or reuse in various forms. 

Minimise waste through design: At the outset of a process of project, plan and design such that there is zero waste or minimal waste during production, use, and at end of life. 

Minimise Waste (SDG12)

Producing transportation equipment for the movement of goods and people by air, rail, sea, and land, including airplanes, spacecraft and military equipment, ships, boats, rail locomotives and rolling stock, motor vehicles, trailers and semi-trailers, and related equipment, as well as repair services for such equipment

Transportation Equipment

Producing basic and specialty chemicals, inks, agricultural chemical such as fertilisers and pesticides, plastics including packaging, and rubber

Chemical and Plastic

While resources are in-use, maintain, repair and upgrade them to maximise their lifetime and give them a second life through take back strategies when applicable

Stretch the lifetime

Upgrade, repair, and maintenance while in-use

Maximise lifetime of products in-use

Give products and parts another life after their end-of-use

Maximise lifetime of products after use

Providing repair services or maintenance services for products or parts

Product maintenance, repair

Providing upgrade programmes or upgrade services for products or parts of products

Product upgrade

Activities to clean, decorate, and restore products back to working condition for original or new purposes

Refurbishment, remanufacturing, renovation

Slow strategies aim to keep materials in use for as long as possible, for example through design for durability and repairability. A more circular economy is also a slower one: materials, components, and products—and even buildings and infrastructure—that we lock in stocks are made to last. This will lower material demand in the long run, in essence also serving to narrow resource flows.

Slow

Impacts

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Industries

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The principles of a circular economy concern designing out waste, regenerating ecosystems and keeping items in use. Decoupling the economy from material flows—improving the rate of resource productivity faster than the economic growth rate—is also a consistent guide. By evolving with the growing number of applications of circular economy principles, and consolidating these strategies across thematic areas, Circle Economy’s Key Elements Framework (KE) renders the elements of the circular economy salient and serves as a basis to derive contextual strategies and interventions. 


The Framework consists of:
- Core Elements: Activities directly handling product or material flows; and uniquely,
- Enabling Elements: those that remove obstacles for core actors.


Key elements of the circular economy

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Circle Economy's framework of strategies and activities that define the circular economy

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Based on the work of [Bocken et al. (2016)](https://www.researchgate.net/publication/309699661_Product_design_and_business_model_strategies_for_a_circular_economy), the Four Flows Framework serves as a simple framework for managing resource flows in a circular economy by using less (Narrow), using for longer (Slow), using again (Cycle), and using clean, regenerative materials and energy (Regenerate).

These different principles of circular economy can be applied to our socioeconomic metabolism: we can design stocks like buildings, infrastructure, machinery, and vehicles to be rich resource mines for the future, and design manufactured goods and consumables to be cycled and made regenerative. Furthermore, the focus must also centre on getting more value out of fewer materials. Achieving the aims of a circular economy—minimising material use, regenerating the Earth, and preventing material losses—can be done through these four key strategies mentioned above.

Source: Circle Economy. (2023). *[The circularity gap report 2023](https://www.circularity-gap.world/2023)* (p.22). Amsterdam: Circle Economy. 

Four Flows Framework

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 A closed-loop cooling system is a water- and energy-saving alternative to traditional cooling towers.
An effective cooling process is vital to production, and nothing is more critical to this process than its efficient use of water. This means utilizing the best auxiliary products and systems available to most cost-effectively control water use, reuse and waste. Mastering this capability not only will boost profitability, but, ecologically speaking, it also can greatly reduce water and energy waste, minimizing the use of chemicals during the process.
The closed-loop cooling process is gaining momentum throughout the industry because it works, providing effective water reduction solutions for plastics processors everywhere. This article reviews the benefits of closing the loop within a process cooling system and what to look for in a system.
Closed-loop systems: a refresher
Frigel’s Ecodry closed-loop process cooling systems feature modular central coolers that can be added in order to satisfy the need for more process cooling capacity associated with plant expansions.
A closed-loop process cooling system uses ambient air to cool process water. The technology is a water- and energy-saving alternative to traditional cooling towers, which many US companies use for process cooling.
The operation of closed-loop systems is straightforward. The system features a central cooler that provides clean water at the right temperature to processes year-round. It uses heat exchangers and an internationally patented adiabatic chamber to cool water circulated to it from process machines.
In the adiabatic chamber, a fine mist of water is pulsed into the incoming airstream during high ambient temperature conditions. The mist evaporates instantly, cooling the air before it impinges on the cooling coils that carry the process water. The process drops the temperature at or below the setpoint. Cooled water then is recirculated to a facility’s process machines. A microprocessor-based controller automatically maintains targeted cooling temperatures.
Efficiency advantages of closing the loop
The biggest and most obvious benefit of the closed loop? Resource efficiency – particularly in the form of water savings. A closed-loop system is an attractive alternative to cooling towers because it reuses water, often translating into water savings of up to 98 percent, which results in cost savings. A cooling tower, conversely, is an open-loop system that does not reuse water. The result is water waste in the form of evaporation.
Cooling tower systems leave the water exposed to outside elements, requiring costly chemical treatment and disposal. Closed-loop systems, however, minimize these issues and all of the related maintenance costs.
Adapting the system for climate
Instead of the “one-temperature-fits-all” approach of a typical cooling tower/central chiller system, the closed-loop system can be configured to provide precise process water at each machine by pairing with machine-side chillers. This configuration not only improves part quality and cycle time, but also saves energy overall because the entire system can maintain a water temperature that’s higher than required at individual machines.
This capability is just one way the closed-loop system is more flexible in terms of energy use than a traditional cooling system. In fact, the system’s central cooler offers four different stages with varying levels of energy use, depending on ambient conditions and setpoint requirements.

Dry cooling. In moderate temperatures, the central cooler continuously routes water returning from the process through heat exchangers. Exhaust fans at the top of the central cooler ensure a steady stream of incoming cool air and outgoing heated air. The heat exchangers and exhaust fans together are all that’s needed to cool process water.
Adiabatic cooling. This function only activates in hot weather as needed to meet cooling needs.
Increased adiabatic cooling. A patent-pending “adiabatic booster system” enables the unit to deliver even lower process cooling water temperatures in the hottest climates, still without the use of central chiller.
“Free cooling.” The system automatically shuts down any chillers and lets the central cooler provide all the cool process water needed via ambient air flow.

Taken together, these capabilities mean that a closed-loop adiabatic process cooling system can reduce energy consumption for process cooling by as much as 50 percent as compared to a conventional cooling tower/central chiller system.
System design 101
A range of factors influences the design of a closed-loop system and its performance. When planning, consider the following:

System sizing. It requires an analysis of the cooling load required, as well as the process temperature to be maintained. A rule of thumb is for the system to provide 20 percent to 30 percent more capacity than needed. The calculation also should account for unclean cooling water because it can limit system performance.
Plant location. System performance is dependent on ambient conditions. All things being equal, a system in New Orleans typically will call for more cooling capacity than a system in Chicago.
Future plans. Whether a plant expansion is imminent or a remote possibility, the system design should support the potential need for more cooling capacity down the road.
Available footprint. Even though it can be located on the roof or the side of the facility, consider available space for the system. Also account for acceptable noise levels and other details, such as requirements for UL-listed electrical panels.

Equipment considerations
As the popularity of closed-loop systems grows, so does the number of equipment choices. A checklist of key considerations should include the following:
Modularity of auxiliary components. Some systems require more time to expand due to the need to connect manifolds, reservoirs and piping in the field, whereas a self-contained modular system expedites installation. Also eliminated with a modular “package” is the need to drain water from the system. The net result is less worry about plant downtime during an upgrade or expansion.
Cooling in unique conditions. Systems differ in how they cool process water in the hottest climates when high ambient temperatures routinely prevent water from reaching 90-95 degrees F (32-35 degrees C), or in situations when the application requires water temperature in the 85 degrees F range (30 degrees C). Some systems spray extra water directly on the heat exchanger, which can lead to exchanger pitting and premature maintenance. Conversely, a system that temporarily floods heat exchanger surfaces and also drains (and reuses) the excess water reduces the potential for pitting for system longevity.
Friendliness of programmable controls. The microprocessor-based control should be intuitive since it controls all functions. They also make it easier to optimize system performance and plan for routine maintenance. Check to see if the supplier provides remote Internet monitoring services if a higher level of support is the goal.
Use of protective materials. The materials used to construct system components vary by supplier. The shell of a central cooler, for example, might be built with galvanized steel, which doesn’t provide the same level of protection against the elements as stainless steel. Or, the heat exchangers might call for a more-resistive acrylic coating (standard on some brands) for use in harsh environments. Understanding the options and investing in protective materials often saves in the long run.
Functionality in tight spaces. A system might need to fit in a tight space, which is fine as long as airflow is unrestricted. Ensure the system is available with space-saving options such as roof panels that allow multiple central cooling units to be positioned more closely together. Another example is extended legs that support the cooler to provide ample airflow in smaller confines, sometimes even side-by-side.
Putting the needs of the operation first
Closed-loop cooling is a great way for plastics processors to enhance processes and achieve cost and resource efficiency. Selecting the right closed-loop process cooling system for a new or existing facility requires careful planning, expert advice and support. Partner with a proven supplier that not only has experience with cooling technologies, but also understands both the manufacturing processes involved and the overall goals of the operation.
Al Fosco is the global marketing manager for Frigel North America. Prior to joining Frigel in 2009, Fosco spent the 16 previous years with Conair’s Water Products Division, holding sales and engineering management positions, including vice president of sales and marketing and general manager of engineering. Prior to that, he spent 14 years in engineering and sales management at AEC. He has a master’s degree in Heat Transfer and Fluid Mechanics Engineering from the University of Illinois. 

         High multi-zone controlled cooling performance.Reduction of cycle time without waste   Minimum cooling time with maximum stability.Efficient and economical production   Special solutions for ultra-rapid cycles in multi-cavity molds.Productivity at the highest levels   Reduction of the cycle time with no sweating on the molds.Increase in production performance      Increased productivity in the packaging industry Ecodry System 4.0  Process-Synchronized Cooling Designed for increasing productivity in injection and blow molding of plastic packaging, thanks to the significant reduction in cooling time. It guarantees perfect stability, as well as considerable savings in operating costs and a reduction in environmental impact. Click on Hotspot ()and discover all the advantages of our solutions:                               

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