Tailor-made solutions for a more sustainable industry
Innovation, efficiency and environmental commitment through custom-built machinery
Sustainability has become one of the major challenges – and also opportunities – of the 21st century for the industrial sector. Far from being a passing trend, environmental pressure, regulatory changes and the growing demand for responsibility from consumers and investors are transforming the way production is conceived. Companies are no longer focused solely on improving productivity: they must now do so responsibly, reducing their environmental impact and optimising the use of resources.
In this context, the customisation of industrial machinery emerges as a key solution. Beyond operational efficiency, adapting machinery to the specific needs of each process makes it possible to reduce material waste, minimise energy consumption and extend the service life of equipment. In other words, customisation not only improves performance, but also moves industry towards a more sustainable, intelligent and competitive production model.
At IFAMAC, we firmly believe that there is no sustainability without customisation. Every plant, every sector and every client faces different challenges. That is why we design tailor-made solutions that combine engineering, technology and environmental commitment. From rotary screens adapted to the characteristics of the material, to rubber feeders designed to reduce energy consumption, our machines help transform industry from within, process by process.
Industrial sustainability: from discourse to action
According to PwC’s State of Climate Tech 2023 report, only 25% of large industrial companies have implemented structural measures to reduce their environmental footprint. However, pressure is increasing: through the Green Deal and the 2030 decarbonisation regulations, the European Union requires a reduction of at least 55% in emissions compared to 1990 levels.
Spain, for its part, is making steady progress. The Ministry of Industry and Tourism reports that more than 60% of medium-sized companies are already transitioning towards cleaner processes, with the use of more efficient and adapted machinery being one of the key factors.
At this point, technological customisation becomes a competitive advantage. It is not simply about fitting a machine to a specific space or capacity, but about designing solutions that improve performance, reduce energy consumption and minimise material waste from the very outset.
Efficient technology driving change
At IFAMAC, we understand that every production process requires its own solution. Below are some examples of how customisation can have a direct impact on industrial sustainability:
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Customised rotary screens: In industries such as structural ceramics, a rotary screen adapted to the type of clay or waste can increase classification efficiency by up to 35%, reducing the volume of discarded material. Improved particle separation also facilitates the reuse of by-products, optimising the material life cycle.
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Rubber feeders: These provide controlled and continuous feeding, preventing excessive use of raw materials and reducing peaks in electricity consumption. Their modular and robust design extends equipment lifespan, reducing the need for frequent replacements and the environmental impact associated with manufacturing new components.
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Screw conveyors: Designed for transporting solid products with moderate particle size such as aggregates, coal, biomass or ash. Manufactured in carbon steel or stainless steel, they can incorporate cooling jackets to improve the thermal efficiency of the process. Their enclosed structure also helps reduce dust emissions to the surrounding environment.
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Redler-type conveyors: Mechanical transport systems using drag paddles in a metal trough. They are characterised by their cleanliness and tight sealing, making them ideal for processes requiring enclosed environments, such as the transport of biomass, sludge or ash. Their hermetic design also makes them suitable for operation under flooded conditions, reducing particle dispersion and improving industrial safety.
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Biomass accumulating rake: Designed with dual functionality: it accumulates biomass in a linear hopper after truck unloading and feeds it efficiently into the subsequent conveyor. This enables more orderly fuel management in biomass plants, preventing irregular build-ups and losses due to evaporation or dispersion.
Impact data: before and after
Two decades ago, the use of standard machinery without digital control was the norm. Today, more than 45% of new industrial installations in Europe already require customised equipment with low energy consumption and the ability to integrate with IoT platforms.
A study by consultancy firm McKinsey indicates that industries investing in solutions adapted to their processes have reduced industrial waste by an average of 30% and energy consumption by 20%. This evolution also translates into economic savings: lower maintenance costs, fewer production stoppages and greater operational efficiency.
Furthermore, by combining these solutions with automation systems and intelligent sensor technology, it is possible to make real-time decisions, optimise every stage of the process and achieve energy savings of between 10% and 20%, according to data from the International Energy Agency (IEA).
Looking to the future: personalised industry, sustainable industry
The future of industry lies in intelligent and sustainable efficiency. By 2030, it is estimated that 70% of medium-sized and large industrial companies in Europe will require machinery specifically designed for their processes, as part of their commitment to emissions reduction and the circular economy.
At IFAMAC, we are convinced that sustainability is not a limitation, but a driver of innovation. That is why we will continue to develop tailor-made solutions that address present and future challenges, reducing the environmental impact of industry without compromising competitiveness.
Industrial Automation in Spain: Innovation and Efficiency in the 21st Century
The advancement of industrial automation in Spain
Industrial automation has radically transformed production in Spain, driving efficiency, safety and competitiveness across numerous sectors. Over the past two decades, the integration of automated systems has enabled the manufacturing industry to improve performance, adapt to market demands, and meet the strictest quality standards.
According to data from the International Federation of Robotics (IFR), Spain is the fourth European country in terms of industrial robot density, with more than 180 units per 10,000 manufacturing employees. This trend reflects the steady growth of automation in the Spanish industrial landscape, particularly in key sectors such as structural ceramics, bulk material transport, and the food industry. Furthermore, government initiatives and R&D investment have supported the development of advanced technologies, allowing a progressive integration of automation across all types of companies.
Benefits of industrial automation
The adoption of automated technologies in Spanish industry offers multiple advantages:
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Efficiency and productivity: Automation reduces production times and minimises human errors, allowing for a significant increase in output.
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Cost reduction: By optimising processes and decreasing material waste, companies can improve profitability.
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Workplace safety: The implementation of robots and automatic systems reduces workers’ exposure to hazardous or repetitive tasks.
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Adaptability to demand: Automated systems enable rapid adjustment to market fluctuations and specific customer requirements.
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Sustainability: Automation contributes to more efficient resource use, lowering energy consumption and minimising the environmental impact of industrial processes.
Applications of automation in key sectors
Structural ceramic industry
The Spanish ceramic sector is a global reference, particularly concentrated in the Valencian Community. Automation has optimised the production of bricks and structural materials, improving kiln efficiency, drying systems and product classification. Technologies such as machine vision and collaborative robotics have reduced waste and enhanced the final product quality. Additionally, automated control systems guarantee greater energy savings and lower CO₂ emissions, a key factor in transitioning towards more sustainable production.
Bulk and solids transport
Efficient management of bulk materials, such as cement, flour or plastics, increasingly relies on automated solutions. Pneumatic and mechanical transport systems, combined with IoT sensors, enable precise flow control, reducing loading and unloading times while minimising losses. Predictive technology in inventory management also prevents unnecessary production stoppages and optimises industrial logistics.
Biomass transport
Automation is also transforming the biomass transport sector, a crucial industry in the energy transition. The implementation of mechanical and pneumatic conveyors optimises the handling of organic waste and woody materials, ensuring a constant and efficient flow in renewable energy plants. Automated systems also monitor moisture and material quality in real time, enabling more efficient and sustainable combustion. This innovation has contributed to a 20% reduction in operational costs and significant improvements in energy efficiency at biomass plants in Spain.
Food industry
In a sector where safety and quality are paramount, automation has revolutionised packaging, labelling, and quality control processes. The deployment of robots on production lines optimises food handling, ensures higher hygiene standards, and reduces contamination risks. Moreover, artificial intelligence in product inspection allows defects to be detected with unprecedented precision.
In Spain, the growing demand for processed food has driven the adoption of automated solutions to improve traceability and ensure compliance with European food safety regulations. Automation has also enabled large-scale food production without compromising product quality or safety.
Challenges and future prospects
Despite its advantages, industrial automation in Spain faces challenges such as the need for greater digital skills training and the adaptation of SMEs to these technologies. Currently, 70% of large industrial companies have already integrated some form of automation, whereas only 30% of SMEs have done so, according to the Ministry of Industry, Commerce and Tourism.
However, with incentive programmes such as the Kit Digital and the EU’s Next Generation funds, Spanish companies have a unique opportunity to modernise and strengthen their position in an increasingly demanding global market.
In conclusion, industrial automation is not only the present but also the future of industry in Spain. Investing in these technologies is essential to enhance competitiveness and ensure sustainable growth across sectors. Digitalisation and automation go hand in hand in transforming Spanish industry, enabling companies to evolve towards smarter, more efficient and sustainable production models.
What are belt conveyors and how do they support the food industry?
In the dynamic world of the food industry, efficiency and precision are essential for success. Belt conveyors are a key solution that helps meet these demands by optimising the movement of products throughout the production process. This article explores what belt conveyors are, their main features, benefits, and how they contribute to improving processes within the food industry.
What are belt conveyors?
Belt conveyors are transport systems that use a continuous belt to move products along a production line. These conveyors can be static or equipped with translation movement and are designed to handle a wide range of food products with varying handling requirements.
Static belt conveyors:
These systems remain in a fixed position and are used to transport products from one point to another without changing their trajectory. They are ideal for processes where lateral movement is not required and the product flow is linear.
Translating belt conveyors:
These systems are capable of moving in different directions, allowing greater flexibility in product handling and dosing. They are particularly useful in applications where products need to be diverted to different destinations or sections of the production line.
Key features of belt conveyors
Belt conveyors have several features that make them especially suitable for the food industry:
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Conveyor belt: Made from durable, food-safe materials such as stainless steel or food-approved plastics. The belt can be smooth or textured, depending on product requirements.
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Speed adjustment system: Allows precise control of belt speed to adapt product flow to production specifications.
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Hygienic design: Conveyors are designed for easy cleaning and compliance with food safety regulations. Smooth surfaces and corrosion-resistant materials are standard.
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Configuration options: Conveyors can be customised in different lengths, widths and layouts to meet the specific needs of each production line.
Benefits for the Food Industry
Belt conveyors offer several advantages that can significantly enhance the performance of food production lines:
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Improved efficiency: They enable continuous, automated product flow, reducing manual handling and increasing production speed.
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Accurate dosing: Adjustable speed and direction ensure precise product dosing, which is critical in packaging and distribution processes.
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Reduced operating costs: Automation minimises errors associated with manual handling, leading to lower operational costs.
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Process design flexibility: Translating conveyors provide greater flexibility in line design, adapting easily to process changes or different product types.
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Regulatory compliance: Hygienic designs and corrosion-resistant materials ensure compliance with strict food safety regulations, protecting product quality and integrity.
Maintenance and best practices
To ensure optimal performance and a long service life for belt conveyors, proper maintenance is essential:
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Regular inspection: Periodically check the belt and system components for wear or damage. Early detection helps prevent serious and costly failures.
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Cleaning: Keep the belt and conveyor surfaces clean to avoid residue build-up and food contamination.
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Speed adjustments: Ensure the speed control system functions correctly and adjust speeds according to production needs.
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Lubrication: Lubricate moving parts in accordance with the manufacturer’s recommendations to reduce wear and prevent mechanical failures.
Belt conveyors are an essential tool in the food industry, providing effective solutions for product transport and dosing. With their adaptable features and significant benefits, these systems help improve efficiency, precision and flexibility in production lines. Investing in the right belt conveyor can be a key step towards process optimisation and success in the highly competitive food sector.
For more information on how belt conveyors can enhance your production process, please do not hesitate to contact us.
Optimise your biomass handling with hydraulic moving-floor feeders
Efficient biomass handling is crucial for many industries seeking to maximise productivity and sustainability. In this article, we explore how hydraulic moving-floor feeders can revolutionise your biomass handling process by providing advanced solutions for product transport and dosing.
What are hydraulic moving-floor feeders?
Hydraulic moving-floor feeders are advanced mechanisms designed for the efficient transport of biomass in a wide range of industrial processes.
These systems use metal plates that move across large storage hoppers, enabling continuous and uniform material movement. In addition to their robustness and durability, the metal plates allow large volumes of biomass to be handled, preventing blockages and ensuring a constant flow.
Hydraulic cylinders provide the force required to move the plates, allowing speed and motion control to be adjusted according to process requirements. This ensures biomass is transported effectively, improving efficiency and precision in material handling.
Key features of hydraulic moving-floor feeders
Robust metal plates:
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Manufactured from high-strength materials.
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Designed to withstand large biomass loads.
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Smooth surface to minimise wear and facilitate transport.
Large-diameter hydraulic cylinders:
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Provide the necessary force to move the plates.
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Ensure smooth and controlled movement.
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Allow regulation of speed and applied force.
Dosing paddles for precise feeding:
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Optional, but highly recommended for processes requiring precision.
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Control the amount of biomass transported in each cycle.
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Improve material flow consistency, preventing build-ups and blockages.
Advantages of hydraulic moving-floor feeders
Implementing hydraulic moving-floor feeders in your biomass handling process offers multiple benefits:
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Transport efficiency: Metal plates enable smooth and continuous biomass transport, reducing the risk of blockages and optimising material flow.
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Dosing accuracy: When equipped with paddles, these feeders ensure precise dosing tailored to the specific needs of each process.
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Durability and reliability: High-quality materials used in their manufacture ensure long service life and dependable performance.
At IFAMAC, we understand the importance of efficiency and precision in biomass handling, which is why our hydraulic feeders are designed to deliver maximum performance.
How do hydraulic moving-floor feeders work?
The operation of hydraulic moving-floor feeders is simple yet highly efficient. These systems use hydraulic cylinders to move the metal plates, enabling continuous and uniform biomass transport. The hydraulic cylinders are key components, providing the force required to move the plates.
When installed, the paddles are responsible for material dosing, adjusting the amount of biomass transported in each cycle. This is particularly useful in processes that require a precise quantity of material at each production stage.
Applications of hydraulic feeders in the biomass industry and power plants
Hydraulic moving-floor feeders have a wide range of applications within the biomass industry. From power plants to wood-processing facilities, these systems are essential for efficiently handling large volumes of biomass.
In power plants, hydraulic moving-floor feeders play a critical role by ensuring a constant biomass supply to the combustion system. Biomass, which may include agricultural residues, wood pellets and other organic materials, is stored in large hoppers. The feeder’s metal plates move the biomass continuously towards the combustion system, guaranteeing an uninterrupted material flow.
This not only improves the efficiency of the energy generation process but also helps reduce emissions by ensuring complete and uniform biomass combustion.
Other industries
In addition to power plants and wood-processing facilities, hydraulic moving-floor feeders are also used in other industries that handle biomass.
These include biogas plants, where organic waste must be transported and dosed accurately to ensure efficient biogas production. They are also used in pellet production, where agricultural and forestry residues are transformed into biomass pellets that serve as a renewable energy source.
Implementation at IFAMAC
At IFAMAC, we have manufactured hydraulic feeders for a wide range of industries, always adapting to the specific needs of each client and project. Our customised approach allows us to design and manufacture systems that meet the exact requirements of each application, ensuring efficient and reliable operation.
From the initial assessment through to installation and after-sales support, we work closely with our clients to deliver solutions that optimise biomass handling in their industrial processes.
Frequently asked questions
What type of maintenance do hydraulic feeders require?
They require regular maintenance to ensure optimal performance, including inspection of the hydraulic cylinders and lubrication of the metal plates.
Is it possible to customise the feeders to my needs?
Yes, at IFAMAC we offer customised solutions tailored to the specific needs of each client.
How do I know if I need a hydraulic moving-floor feeder?
If you handle large volumes of biomass and are looking to improve efficiency and precision in transport and dosing, a hydraulic feeder may be the ideal solution.
Optimising biomass handling is essential to improve the efficiency and sustainability of industrial processes. Hydraulic moving-floor feeders offer an advanced and efficient solution for biomass transport and dosing, adapting to a wide range of industrial applications.
At IFAMAC, we are committed to innovation and quality, providing customised solutions that meet our clients’ specific needs. Contact us today to discover how we can help you optimise your biomass handling process.
Biomass rake accumulator: an efficient solution for material handling
In the industrial sector, innovation continues to be a fundamental pillar for improving efficiency and optimising processes. In this article, we take an in-depth look at the biomass rake accumulator. This device not only represents a technological advance, but also a practical solution to the challenges companies face in managing organic waste. Discover what it is, how it works and what advantages it offers in material handling.
From its ability to simplify material handling to its contribution to environmental preservation, discover how this innovative tool is transforming the way companies approach waste management.
What is a biomass rake accumulator?
The biomass rake accumulator is an ingenious device that plays a key role in the management of organic materials in industrial environments. Meticulously designed to address the unique challenges associated with biomass handling, this equipment stands out for its ability to receive, accumulate and efficiently transport large volumes of material.
Installed strategically at the end of the truck unloading line or other transport systems, the biomass rake accumulator continuously receives the biomass and deposits it in an orderly manner into a linear hopper.
How the biomass rake accumulator works
This device operates through a system of moving rakes that travel along a linear hopper, collecting and accumulating the biomass as it is unloaded. The rakes, equipped with robust teeth or tines, are capable of handling large volumes of biomass efficiently and accurately.
Once the biomass has accumulated in the hopper, the rake can also act as a feeder for a conveyor located at the end of the hopper.
The linear hopper acts as a temporary storage unit, allowing the biomass to accumulate in a uniform and organised manner, ready to be transported or processed according to the specific needs of the operation. The key function of the rake is to ensure a constant flow of material, minimising downtime and optimising efficiency in biomass handling.
Thanks to its ability to adapt to a wide range of configurations and industrial environments, the biomass rake accumulator has become an essential component in the organic materials supply chain, significantly contributing to improved productivity and sustainability in the industrial sector.
Advantages of the biomass rake accumulator
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Operational efficiency: By automating the accumulation and transport of biomass, the rake significantly reduces downtime and improves productivity in industrial environments.
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Precise positioning: Thanks to its design and advanced control mechanisms, the rake ensures precise and uniform positioning of the biomass in the hopper, avoiding waste and maximising storage capacity.
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Versatility: Its ability to adapt to different types of biomass and operating conditions makes it a versatile solution for a wide range of industrial applications.
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Cost reduction: By improving operational efficiency and reducing waste, the rake contributes to more effective resource management and lower costs associated with manual biomass handling.
Industrial applications of the biomass rake accumulator
In addition to its use in biomass power plants and composting facilities, biomass rake accumulators are used in a variety of industrial environments. In the agricultural sector, for example, these devices are used to manage crop residues and prepare organic materials for composting.
In wastewater treatment plants, rake accumulators are used to collect and handle organic sludge, helping to optimise the treatment process and reduce disposal costs.
Energy efficiency and environmental sustainability
Another important aspect to consider is the energy efficiency and environmental sustainability of biomass rake accumulators. These systems are designed to maximise efficiency in handling organic materials, helping to reduce energy consumption and carbon emissions associated with waste handling and disposal.
Furthermore, by facilitating the conversion of biomass into renewable energy, rake accumulators contribute to the transition towards a more sustainable and environmentally friendly energy model.
Optimising logistics processes through biomass rake accumulators
The biomass rake accumulator represents an innovative solution for organic waste management across various industries, from agriculture to energy generation. Its versatile design and ability to accumulate biomass in a linear hopper before feeding it into a conveyor make it an indispensable component in large-scale material handling processes.
In addition, its efficiency in collecting and transporting biomass contributes to resource optimisation and waste reduction, promoting sustainable waste management practices.
Integrating a biomass rake accumulator into industrial waste management systems can significantly improve operational efficiency and business profitability. By automating the collection and transport process, labour costs are reduced and errors associated with manual handling are minimised. Moreover, ensuring a constant and controlled flow of biomass optimises the efficiency of subsequent processes, such as biomass-to-energy conversion or the production of secondary products.
Continuous innovation and ongoing improvement
At IFAMAC, we are committed to continuous innovation and the constant improvement of our products. Our team of engineers and designers works closely together to develop innovative solutions that meet our clients’ evolving needs and market challenges.
From incorporating new technologies to optimising manufacturing processes, we are dedicated to delivering equipment of the highest quality and performance.
Frequently asked questions about biomass rake accumulators
How is the movement of the rake within the hopper controlled?
The movement of the rake is usually controlled by an automated system that uses sensors and actuators to ensure precise and dynamic positioning of the biomass.
What types of biomass can a rake accumulator handle?
Biomass rake accumulators are designed to handle a wide range of organic materials, including crop residues, forestry waste, wood chips and more.
What are the main applications of biomass rake accumulators?
These systems are mainly used in biomass power plants, composting facilities, wastewater treatment plants and other industrial environments where biomass is handled and processed on a large scale.
The biomass rake accumulator is an indispensable tool for managing organic materials in industrial environments. Its ability to accumulate and transport biomass efficiently and accurately provides an effective solution for waste handling and renewable energy production.
At IFAMAC, we are committed to innovation and excellence in industrial machinery. Discover how our biomass rake accumulators can improve efficiency and productivity in your company. Contact us today for more information!
Ensuring quality in food packaging with the product diverter
Excellence in product packaging and handling, especially within the food sector, requires rigorous quality control. In this context, the product diverter emerges as an indispensable tool for ensuring real-time quality control of food products.
Packaging plays a crucial role in the preservation and safety of food products, making a significant contribution to their durability and freshness. In this article, we take an in-depth look at the product diverter, highlighting its essential function within the packaging process and how it helps maintain the highest quality standards.
The importance of industrial machinery in food packaging
Food packaging goes far beyond the simple presentation of products in containers. It is a critical process that plays a fundamental role in preservation, ensuring that products reach consumers with maximum freshness and quality.
The key role of packaging in optimising product preservation
Food preservation is a central concern in the food industry. Packaging not only preserves freshness and quality, but also extends shelf life, reducing waste and improving sustainability throughout the supply chain.
Industrial machinery plays a vital role in this process by enabling efficient and airtight packaging. From advanced sealing systems to the precise application of controlled atmospheres, machinery ensures that each product is protected from environmental factors that could compromise its quality.
In this context, the product diverter stands out as an essential component. Its ability to change the trajectory of products at speeds of up to 50 m/min, while providing extremely gentle and precise product handling, ensures that the product does not suffer deformations that could affect its shape or format.
How the product diverter works
The product diverter plays a crucial role in the production line, ensuring both quality and efficiency in food packaging. Understanding how this equipment operates is essential to appreciating its impact on the overall process.
How the product diverter ensures quality
The product diverter operates through precise and advanced systems that allow specific items on the production line to be redirected to different outlets. By using high-performance servomotors, encoders and programmable logic controllers (PLCs), high dynamic performance is achieved without compromising precision.
This level of operational detail not only improves process efficiency, but also makes a significant contribution to food safety and customer satisfaction.
Diverting one infeed line into two outfeed lines: optimising diverter efficiency
Diverting a single infeed line into two outfeed lines is a strategic practice that enhances the efficiency of the packaging process. To fully understand this approach, it is essential to explore the technical considerations involved in implementing a product diverter in this specific scenario.
Technical considerations when diverting one line into two output lines
1. Synchronous coordination
Precise coordination between the product diverter and adjacent machinery is essential when diverting one infeed line into two outfeed lines. Millimetre-level synchronisation ensures that each product is diverted smoothly and accurately, preventing congestion or interruptions in the production flow.
2. Speed adjustment
By installing an encoder on the conveyor belt, the diverter automatically adapts to the belt speed, ensuring that its operation is independent of the conveyor speed at any given moment.
3. Diverting one line into two
Diverting one line into two provides the versatility to distribute products arriving at high speed from the production line into two packaging lines operating at half speed. This enables intelligent product distribution based on the demand of each packaging line.
4. Flexible programming
Flexible programming is essential to adapt to changes in production or specific company requirements. The product diverter must allow fast and precise programming adjustments to ensure operational versatility without compromising efficiency.
At Ifamac Technology, we take pride in offering solutions that not only meet industry expectations, but exceed them. The product diverter not only improves operational efficiency, but also directly contributes to product preservation, food safety and final product quality.
Discover how Ifamac’s industry-leading technology can transform your packaging process. Contact us today to explore our customised solutions and raise your standards of quality and efficiency.