Author: Editor_Sibo2024

Italy is known worldwide for its cultural heritage, cuisine, fashion, and design. When people think of “Made in Italy,” they often imagine a Tuscan leather bag, a DOC wine, or a red sports car.

But those who work in manufacturing, distribution, or industrial design know that Made in Italy is much more than a stylish signature. It is a productive system that includes less visible but strategic sectors like precision mechanics, industrial packaging, special-purpose machinery, and shipbuilding.

Behind this label are thousands of companies—often medium-sized and family-run—that manage every phase of production in-house, invest in materials and expertise, and deliver components, equipment, and systems designed to last.

Fashion and Leather Goods

From Milan’s runways to Tuscany’s artisan workshops, Italy produces nearly half of the world’s luxury goods. Brands like Gucci, Prada, and Armani rely on supply chains that combine design and skilled craftsmanship.

Agri-Food

With over 800 protected designations (DOP and IGP), Italy leads Europe in food certifications. Products like Parmigiano Reggiano and Parma ham owe their added value to territorial authenticity and standardized production methods.

Furniture and Design

The Salone del Mobile in Milan is the global reference point for furniture and interior design. Industrial districts like Brianza or the eyewear cluster in Veneto export beauty and functionality, with eyewear exports alone exceeding €5.5 billion in 2024.

Mechanics and Industrial Components

Mechanical engineering accounts for nearly 17% of Italian exports. It includes thousands of companies specialized in precision parts, advanced processes, and custom systems for lifting, agriculture, automation, and construction equipment.

Special-Purpose Machinery

Italy is a leader in manufacturing highly specialized machines: trenchers for fiber-optic installation, mini cranes for urban use, radio-controlled tractors for steep terrain. These machines are often custom-built, with integrated electronics and mechanical systems tailored to niche industrial tasks.

Automation and Packaging Systems

In the Emilia-based Packaging Valley, companies like IMA and Marchesini lead globally in packaging machinery for food, cosmetics, and pharmaceuticals. The sector exceeded €10 billion in revenue in 2023, with over 80% exported.

Shipbuilding and Yachting

With €8.3 billion in turnover and more than 30,000 employees, Italy is a global leader in cruise ship and luxury yacht production. Shipyards like Fincantieri, Sanlorenzo, and Baglietto carry Italian design to the sea.

Industrial Districts

The Italian production model relies on regional districts—areas where specialized companies collaborate across the supply chain, often within a few kilometers.

• Motor Valley (Modena and Bologna): Ferrari, Ducati, and high-tech suppliers
• Brianza: furniture and woodwork
• Veneto: eyewear and consumer electronics
• Packaging Valley: industrial automation and packaging systems

This structure enables rapid production, high customization, and consistent quality.

Iconic Figures of Made in Italy

• Giorgio Armani – Redefined menswear and helped make Milan a fashion capital.
• Guccio Gucci – Artisan and founder of one of the most recognized luxury brands.
• Miuccia Prada – Transformed her family’s leather business into a global fashion house, blending minimalist design with cultural experimentation.
• Gino Girolomoni – Organic pioneer who championed sustainable agriculture and biodynamic wheat farming.
• Enzo Ferrari – Created a brand synonymous with Italian engineering and performance, exporting passion and precision.
• Pinin Farina – Car designer who gave form to Italian mobility, blending aerodynamics and elegance.
• Egidio Brugola – Inventor of precision fasteners used in millions of vehicles worldwide.
• Adriano Olivetti – Visionary entrepreneur who made office machines a symbol of Italian design and social innovation.
• Ernesto Gismondi – Aerospace engineer and founder of Artemide, who revolutionized lighting with design-driven technology.

Certifications and Protection

Since 2009, only products entirely designed, manufactured, and packaged in Italy may bear the “100% Made in Italy” label (Law 166/2009).

In food, DOP, IGP, and STG marks protect geographic origin and quality. The Italian government also combats “Italian sounding” fraud, a global market estimated to exceed €120 billion annually.

Economic Impact

In 2024, Italy exported €623 billion worth of goods, with a manufacturing surplus over €100 billion. Key markets include Germany, the United States, and France.

Italy ranks as the 8th largest exporting country in the world, driven by short supply chains, specialization, and quality control.

Italian Manufacturing Company: Sibo

Made in Italy is more than a label—it’s a production culture based on internal control, technical know-how, and long-term commitment. Sibo, based in Calderara di Reno near Bologna, manufactures precision steel bushings entirely in Italy, managing every phase of the process: from material sourcing to final machining, heat treatments, and quality checks.

This integrated structure enables consistent traceability, reliable performance, and compliance with the most demanding industrial specifications. It’s also what allows Sibo to certify its components as 100% Made in Italy—tangible proof of a production model rooted in engineering depth, not just aesthetics.

 Steel Bushings Catalog

If you’re looking for certified bushings entirely produced in Italy, we can help. Request a customized quote or download our full catalog using the form below.

Steel is one of the fundamental materials of modern industry, widely used in construction, transportation, infrastructure and mechanical engineering. Its history, however, goes back much further and follows the evolution of ironworking and metallurgy through to modern steelmaking.

What is steel?

Steel is a metal alloy consisting primarily of iron and carbon, with other elements added to modify its properties.

Carbon content plays a fundamental role, influencing characteristics such as hardness, strength, ductility and machinability. From a metallurgical perspective, steels generally contain up to approximately 2.1% carbon; above this level, iron-carbon alloys are generally classified as cast irons.

In addition to carbon, steel may contain elements such as chromium, nickel, manganese, molybdenum, vanadium and silicon, which are used to obtain specific properties.

The English word steel has Germanic origins and is related to Old English stȳle and stēli, terms historically associated with the material and with objects made from hardened steel.

The material we now call steel was known and worked long before the modern English term and modern metallurgical definitions developed.

Origins: from iron to the first steels

The history of steel is closely connected with that of iron.

The earliest evidence of iron use dates back several thousand years. Initially, humans also used iron from meteorites, which could be found in metallic form and worked directly. Only later did people learn to extract iron from ores found in the earth, developing the first metallurgical techniques.

From the 1st millennium BC onwards, the use of iron became increasingly widespread among many civilizations, eventually characterizing the period commonly known as the Iron Age.

Early processes did not allow precise control over the composition of the material. However, heating and working iron in contact with carbon-rich materials could increase the carbon content of its surface and produce harder material: early forms of what we would now classify as steel.

Ancient and medieval world

Over the centuries, production techniques continued to evolve in different parts of the world.

Particularly significant were steels produced in India and the Middle East, including the so-called wootz steel, renowned for its properties and historically associated with the famous Damascus blades.

Steelmaking techniques also gradually improved in Europe during the Middle Ages. However, control over composition remained limited, and producing large quantities of steel with consistent properties was difficult and expensive.

For a long time, steel was therefore mainly used for applications in which hardness and strength were particularly important, including weapons, tools and working implements.

The Industrial Revolution

The major transformation took place between the 18th and 19th centuries, alongside the Industrial Revolution.

Increased iron production, the development of blast furnaces and a better understanding of metallurgical processes created the conditions for steel to be produced in much larger quantities.

A major breakthrough came in 1856, when Henry Bessemer patented the process that bears his name. The Bessemer converter used air blown through molten pig iron to reduce its carbon content and remove other impurities.

The process made it possible to produce large quantities of steel much faster and at a lower cost than previous methods.

Other systems were subsequently introduced, including the Siemens-Martin open-hearth process, allowing greater control over steel production and composition.

Steel and the rise of industrial society

Between the second half of the 19th century and the 20th century, steel became one of the defining materials of industrialization.

The availability of a strong, relatively inexpensive material that could be produced on a large scale supported the development of railways, bridges, ships, buildings, machine tools and industrial infrastructure.

Steel also played a fundamental role in the growth of the automotive industry and, more broadly, in the development of modern mechanical engineering.

The ability to modify its chemical composition and apply different heat treatments progressively made it possible to develop steels designed for increasingly specific applications.

The development of stainless steel

Another important milestone came in the early 20th century with the development of stainless steels.

The addition of a sufficient amount of chromium allows a thin passive layer of chromium oxide to form on the surface of the steel, helping to protect it against corrosion.

Following experiments and developments during the first decades of the 20th century, stainless steels rapidly spread across many sectors, from the food and chemical industries to medicine, architecture and mechanical engineering.

Today, numerous families of stainless steel are available, each developed to meet different operating requirements.

The development of case-hardened steels

Even in ancient times, people had observed that heat could modify iron and make its surface harder, particularly when the metal was heated in contact with carbon-rich materials. Over the centuries, these early observations contributed to the development of carburizing, a process that enriches the surface of steel with carbon.

With the development of industrial steelmaking between the late 19th and early 20th centuries, steels suitable for this treatment were developed with a relatively low carbon content, allowing them to retain a tough core while achieving a hard surface after treatment.

20MnV6 is the steel used by Sibo for its standard bushings. After carburizing and hardening, it can achieve a very hard surface with high wear resistance while maintaining a tough and impact-resistant core.

This combination represents the fundamental principle of case hardening: a hard, wear-resistant surface combined with a tough core capable of withstanding mechanical loads and impacts.

How steel is produced today

Modern steelmaking mainly follows two major production routes.

The first starts with iron ore, which is processed through a series of metallurgical operations to produce pig iron and subsequently steel.

The second makes extensive use of steel scrap, generally melted in electric arc furnaces. This allows existing steel to be recovered and returned to the production cycle.

Once the liquid steel has been produced, its chemical composition is carefully controlled and adjusted. The material is then cast and subsequently transformed through processes such as rolling, forging and drawing, depending on the required final product.

Main types

There is no single type of steel. By varying its chemical composition, microstructure and treatments, steels with very different characteristics can be produced.

In general terms, the main categories include carbon steels, alloy steels and stainless steels, alongside numerous grades developed for specific industrial applications.

Heat and thermochemical treatments also play a fundamental role, making it possible to modify the microstructure and properties of the material.

Processes such as hardening, tempering, quenching and tempering, and carburizing can provide different combinations of surface hardness, mechanical strength, toughness and wear resistance.

The choice of the most suitable steel therefore depends on the properties required for the component and its specific operating conditions.

Steel bushings catalog

Sibo manufactures standard and custom steel and stainless steel bushings, selecting materials and specifications according to wear resistance, mechanical requirements and operating conditions.

Contact us for technical informatioform n or a customised quotation, or request our steel bushings catalogue using the below.

Engineering is the application of scientific and mathematical principles to design, build and improve structures, machines, systems and technologies. It combines technical knowledge with practical problem-solving to develop safe, efficient and innovative solutions.

Engineering influences almost every aspect of modern life, from transportation and energy to manufacturing and industrial automation. By transforming ideas into practical solutions, it enables the development of reliable products, efficient production systems and increasingly advanced technologies.

Etymology

The word engineering derives from engineer, which originated from the Old French engigneor. Its ultimate origin is the Latin word ingenium, meaning “innate ability”, “cleverness”, “inventiveness” or “natural talent”.

The same Latin root also gave rise to English words such as engine, ingenious and ingenuity, all connected with the idea of intelligence, invention and practical problem-solving. Over time, the meaning of engineering evolved from the design of military machines to the broad discipline responsible for creating the technologies, infrastructure and industrial systems that shape the modern world.

The Role of Engineering

Engineering transforms scientific knowledge into practical applications. Engineers design products, optimize manufacturing processes, improve safety, increase efficiency and solve technical challenges across countless industries.

Their work extends beyond designing machines. Engineering also involves analysing problems, selecting suitable materials, evaluating performance, reducing costs and ensuring that products meet functional, environmental and safety requirements.

Principles

Although engineering covers many different disciplines, every project is based on a common set of principles that guide the development of reliable and efficient solutions.

• Problem solving – identifying technical challenges and developing practical solutions.
• Design – creating products and systems that satisfy functional requirements.
• Analysis – evaluating loads, stresses, performance and reliability.
• Material selection – choosing the most suitable materials for each application.
• Safety – ensuring machines and structures operate safely.
• Efficiency – optimizing performance while reducing energy consumption and maintenance.
• Innovation – improving existing technologies through research and continuous development.

Design Process

Most engineering projects follow a structured design process that transforms an initial concept into a finished product.

1. Problem identification.
2. Definition of technical requirements.
3. Concept development.
4. Material selection.
5. Detailed design and simulation.
6. Manufacturing and assembly.
7. Testing, validation and continuous improvement.

This systematic approach helps engineers produce components and systems that are reliable, durable and suitable for demanding operating conditions.

Mechanical Components in Engineering

Every machine depends on the correct interaction of its mechanical components. Shafts, gears, bearings, bushings, pins, hydraulic cylinders and many other elements work together to transmit forces, reduce friction and ensure reliable operation.

The performance of these components depends not only on their design but also on material selection, heat treatment, manufacturing accuracy and proper maintenance throughout their service life.

Sibo Steel Bushings for Engineering Applications

Sibo manufactures precision steel bushings for demanding engineering and industrial applications, offering both standard and custom solutions. Every component is produced with careful attention to material selection, dimensional accuracy and heat treatment to ensure reliable performance in heavy-duty operating conditions.

Contact us for technical informatioform n or a customised quotation, or request our steel bushings catalogue using the below.

Lubrication is the process of applying a lubricant between moving surfaces to reduce friction, wear and heat. It is a fundamental practice in mechanical engineering, used to improve the operation and durability of machines, mechanisms and mechanical components.

Lubrication plays a crucial role in almost every industrial sector, from automotive and construction equipment to manufacturing, mining, agriculture and heavy machinery.

Functions of Lubrication

Although reducing friction is its primary purpose, lubrication performs several other important functions within mechanical systems.

• Reduce friction between moving parts.
• Minimize wear and extend component life.
• Help dissipate heat generated during operation.
• Protect surfaces against corrosion and oxidation.
• Reduce operating noise and vibration.
• Remove contaminants and wear particles from contact surfaces.

Types

Different operating conditions require different lubrication methods. The most common types include:

• Oil lubrication, widely used in engines, gearboxes and hydraulic systems.
• Grease lubrication, suitable for bearings, bushings and components requiring long service intervals.
• Solid lubrication, using materials such as graphite or molybdenum disulfide for extreme temperatures or special applications.
• Dry lubrication, where low-friction coatings reduce wear without conventional lubricants.

Lubrication Regimes

Engineers classify lubrication according to the thickness of the lubricant film separating two moving surfaces.

• Boundary lubrication, where surfaces are only partially separated.
• Mixed lubrication, combining direct contact with a partial lubricant film.
• Hydrodynamic lubrication, where a complete lubricant film separates the surfaces.
• Elastohydrodynamic lubrication, commonly found in rolling bearings and gear contacts under very high loads.

Mechanical Components

Proper lubrication is essential for many mechanical components, including bearings, bushings, gears, shafts, chains and hydraulic equipment. The lubrication method depends on operating speed, load, temperature and environmental conditions.

Selecting the correct lubricant and maintenance interval helps improve efficiency while reducing downtime and maintenance costs.

 Steel Bushings

Many steel bushings are designed to operate with grease or oil lubrication to reduce friction between the pin and the bushing during oscillating or rotating movements. Proper lubrication helps minimize wear, dissipate heat and extend the service life of both components, especially in heavy-duty applications such as construction, mining and agricultural machinery.

Sibo manufactures steel bushings for demanding industrial applications, including standard and custom solutions. Contact us for technical information or quotations, or request our steel bushings catalog using the form below.

The term mechanical refers to anything related to machines, mechanisms, moving parts, force and motion. In engineering and industry, it is used to describe systems, components or devices that work through physical movement and mechanical interaction.

A mechanical element can transmit force, support a load, guide movement, reduce friction or connect different parts of a machine. For this reason, the word is often used in expressions such as mechanical parts, mechanical components, mechanical systems and mechanical engineering.

In simple terms, something is mechanical when it depends on physical movement, contact between parts, or the transmission of force rather than purely electrical, digital or chemical processes.

Etymology 

The word mechanical originates from the Latin mechanicus, which derives from the Ancient Greek mēkhanikos (μηχανικός), meaning “relating to devices, contrivances or mechanical arts”. It comes from mēkhanē (μηχανή), a Greek word referring to a device, mechanism or means of accomplishing a task. Over time, the term evolved to describe machines, mechanical systems and the transmission of force and motion in engineering and industry.

Over time, the meaning evolved to describe anything associated with machines, mechanisms and the transmission of force and motion. Today, the term is widely used in engineering, manufacturing and industrial technology to refer to physical systems and components that perform mechanical work.

Mechanical in Engineering

In engineering, the term mechanical describes machines, systems and components designed to generate, transmit or control force and motion. Mechanical engineering combines principles of physics, materials science and mathematics to design reliable and efficient equipment for industrial, commercial and everyday applications.

Today, mechanical engineering plays a key role in industries such as manufacturing, construction, mining, agriculture, transportation and energy, where mechanical systems are essential for converting power into useful work.

Mechanical Systems

A mechanical system is an assembly of interconnected components that work together to perform a specific task through force and motion. Rather than acting independently, mechanical parts interact to transfer energy, guide movement and support operational loads.

Examples of mechanical systems include gearboxes, hydraulic excavator arms, crane booms, conveyor systems, agricultural machinery and industrial production equipment.

Mechanical Properties

Mechanical properties describe how a material behaves when subjected to forces or loads. These characteristics help engineers select the most suitable materials for different applications and operating conditions.

Important mechanical properties include strength, hardness, toughness, stiffness, wear resistance, fatigue resistance and ductility. Selecting the appropriate material is essential for ensuring safety, reliability and long service life.

Industrial Applications of Mechanical Engineering

Mechanical engineering supports virtually every industrial sector by providing machines, equipment and mechanical systems capable of performing complex tasks efficiently and reliably.

Mechanical technologies are widely used in construction equipment, mining machinery, agricultural equipment, lifting systems, manufacturing plants, railway applications, marine engineering and many other industries where durability, precision and high load capacity are required.

Mechanical Parts and Components

Mechanical parts are the individual elements that make up a machine or mechanical system. Each component performs a specific function, such as supporting loads, transmitting motion, reducing friction or connecting moving assemblies.

Common examples of mechanical components include gears, shafts, bearings, bushings, pins, springs, couplings, hydraulic cylinder parts and fasteners. The performance and durability of a machine largely depend on the quality and correct design of these components.

Sibo Steel Bushings

Sibo manufactures steel bushings for a wide range of mechanical applications. Our bushings are used in construction equipment, mining machinery, agricultural machines, lifting systems and many other heavy-duty industries where reliability, wear resistance and long service life are essential.

In addition to our standard product range, we also manufacture custom bushings according to customer drawings or specifications, providing technical support for OEMs, distributors and replacement parts suppliers worldwide.

Contact us for quotations, technical information or custom projects. You can also request the Sibo steel bushings catalog using the form below.

Demolition equipment includes the machines and attachments used to dismantle buildings, bridges, industrial plants, roads and other structures.

Modern demolition is not only about breaking down a structure. In many projects, operators must work in a controlled way, separate different materials, reduce dust and noise, and recover concrete, steel, asphalt and other materials for recycling.

For this reason, demolition sites use a combination of complete machines and interchangeable attachments. Machines provide movement, reach, power and stability. Attachments perform specific tasks such as breaking, cutting, crushing, sorting and loading.

Types of Demolition Attachments

Hydraulic Breaker

Hydraulic breakers are impact tools used to break concrete, asphalt, rock, foundations and other hard materials. They are among the most widely used excavator attachments in demolition and construction.

Epiroc describes hydraulic breakers as impact devices used for demolition, rock excavation, trenching, foundation work and asphalt cutting. The company also notes that hydraulic breakers are among the oldest hydraulic attachments for carriers. :contentReference[oaicite:0]{index=0}

Demolition Shear

Demolition shears are designed to cut steel structures, beams, pipes, tanks and reinforced metal components.

They are widely used in industrial demolition, scrap processing and structural dismantling, especially where metal elements must be cut into smaller sections before removal.

Orange Peel Grapple

An orange peel grapple is a multi-tine attachment used to grab loose materials such as scrap metal, debris and mixed demolition waste.

The name comes from the shape of its curved tines, which resemble the segments of an opened orange peel. It is often used with material handlers and excavators in recycling yards and demolition sites.

Sorting Grapple

A sorting grapple is used to select, separate and move materials after demolition. It can handle concrete pieces, wood, metal, bricks and mixed debris.

Compared with an orange peel grapple, a sorting grapple usually has two larger jaws and a more controlled grip, making it useful when materials must be separated with precision.

Demolition and Recycling

Recycling is now a central part of many demolition projects. Concrete can be crushed and reused as aggregate, steel can be separated and sent to scrap recovery, and other materials can be sorted before disposal or reuse.

This is why demolition equipment is often connected with recycling equipment. Excavators, material handlers, grapples, mobile crushers and screening systems work together to reduce waste and recover useful materials.

Demolition Equipment Manufacturers

The demolition equipment industry includes both manufacturers of complete machines and companies specialized in attachments for excavators and material handlers.

Among the most widely used machine manufacturers are Caterpillar, Komatsu, Hitachi, Liebherr, Volvo  and Kobelco. Their excavators and material handlers are commonly found on demolition sites around the world, from small urban projects to large industrial dismantling operations.

In the attachment sector, several companies focus specifically on demolition and recycling tools.

Epiroc is one of the best-known manufacturers of hydraulic breakers and demolition attachments. Its portfolio includes breakers, grapples, pulverizers, crusher buckets and other tools used in construction, demolition and recycling.

Indeco, based in Italy, is recognized for its hydraulic hammers and a range of demolition attachments including pulverizers, shears and grabs. Its products are used in construction, quarrying and demolition projects worldwide.

VTN Europe is another Italian manufacturer specialized in demolition and recycling equipment. The company produces demolition shears, concrete crushers, pulverizers, sorting grapples and other attachments designed for heavy-duty applications.

Other established manufacturers in the sector include Mantovanibenne, Trevi Benne, LaBounty, Genesis Attachments, NPK and Okada Aiyon. These companies offer specialized solutions for structural demolition, scrap processing, material recovery and recycling operations.

Today, demolition contractors often combine machines from one manufacturer with attachments from another, selecting the most suitable equipment according to the type of structure, material and project requirements.

Sibo Steel Bushings Catalog

Sibo manufactures steel bushings for heavy-duty applications, including construction, demolition, mining, agricultural and lifting equipment.

Contact us for quotations, custom projects and technical information about our steel bushings. You can also request our catalog using the form below.

On 1 July 2026, the new European safeguard system for steel imports entered into force. With the new regulation, the European Union strengthened the measures already introduced in 2018, reducing duty-free import quotas and increasing the duty applied to volumes exceeding the available quotas.

The aim is to protect the European steel industry from the effects of persistent global overcapacity and the growing inflow of steel from third countries.

What changes from 1 July 2026

The new system maintains the mechanism of tariff-rate quotas (TRQs), but introduces significant changes compared with the previous regime.

The main changes are:

• reduction of annual duty-free import quotas;
• total quota set at 18,345,922 tonnes;
• increase of the out-of-quota duty from 25% to 50%;
• new system for distributing quotas between countries with preferential trade agreements and other exporting countries.

Imports falling within the available quotas can continue to enter the European market without paying the safeguard duty. Once the quota for a specific product category is exhausted, imports are subject to a 50% ad valorem duty, in addition to any other applicable customs duties.

Product categories covered

The new safeguard measures apply to 26 categories of steel products. The following categories are listed in Annex I of Regulation (EU) 2026/1384:

• Non Alloy and Other Alloy Hot Rolled Sheets and Strips
• Non Alloy and Other Alloy Cold Rolled Sheets
• Electrical Sheets (other than GOES)
• Metallic Coated Sheets
• Organic Coated Sheets
• Tin Mill Products
• Non Alloy and Other Alloy Quarto Plates
• Stainless Hot Rolled Sheets and Strips
• Stainless Cold Rolled Sheets and Strips
• Stainless Hot Rolled Quarto Plates
• Non Alloy and Other Alloy Merchant Bars and Light Sections
• Rebars
• Stainless Bars and Light Sections
• Stainless Wire Rod
• Non Alloy and Other Alloy Wire Rod
• Angles, Shapes and Sections of Iron or Non Alloy Steel
• Sheet Piling
• Railway Material
• Gas Pipes
• Hollow Sections
• Seamless Stainless Tubes and Pipes
• Other Seamless Tubes
• Large Welded Tubes
• Other Welded Pipes
• Non-alloy and other alloy cold finished bars
• Non Alloy Wire

Why the quota was set at 18.3 million tonnes

The European Commission calculated this volume by applying the import market share recorded in 2013, around 13%, to total steel consumption in the European Union in 2024, the latest year for which complete data were available.

Imports originating in Russia and Belarus, which are already subject to import bans in the European Union, were not included in the calculation. The result is a total annual quota of 18,345,922 tonnes.

Why the EU strengthened the measures

According to the European Commission, the global market continues to be affected by significant production overcapacity.

Estimates indicate that excess capacity could increase from 602 million tonnes in 2024 to 721 million tonnes by 2027, creating growing pressure on imports into the European market.

Since 2018, the European steel sector has also recorded:

• more than 30 million tonnes of lost production capacity;
• around 30,000 jobs lost;
• an average capacity utilisation rate of only 67% in 2024.

The previous system introduced in 2018

Safeguard measures had already been introduced in 2018, following tensions in international steel trade.

The system provided for:

• tariff-rate quotas (TRQs);
• imports within quota without additional duty;
• a 25% duty on imports exceeding the available quota.

The new regulation keeps this structure, but reduces the available volumes and doubles the out-of-quota duty.

How the new quotas are distributed

The quotas are not distributed exclusively on the basis of historical import or export volumes.

Article 5 of the regulation states that the European Commission must take several elements into account, including:

• the historical import market share;
• the distribution of imports by product category;
• existing or future trade agreements;
• the effects of trade measures adopted by third countries;
• diversification of sources of supply;
• other elements of interest to the European Union.

The implementing regulation also provides for a distribution of quotas between trading partners with preferential agreements and other exporting countries, as well as country-specific quotas for certain countries and product categories.

Are countries with trade agreements subject to the new duty?

Yes.

Countries benefiting from preferential trade agreements with the European Union are also subject to the new system. Once the available quotas are exhausted, the 50% duty also applies to them.

Only Iceland, Liechtenstein and Norway are excluded, along with cases where specific bilateral safeguard measures provided for by the regulation apply.

Which sectors could be most affected

The new measures concern steel products and semi-finished products used in many industrial sectors.

The sectors that could be most affected include:

• construction;
• automotive;
• earthmoving machinery;
• agricultural machinery;
• industrial plants;
• mechanical components;
• oil & gas;
• railway infrastructure.

The actual impact will mainly depend on the imported product category, the country of origin and the speed at which available quotas are exhausted during the year. If the quota for a specific category is reached quickly, importing companies will have to pay the new 50% duty, with possible increases in procurement costs for certain raw materials and semi-finished products.

Sibo Steel Bushings

For companies using steel components and semi-finished steel products, monitoring the evolution of import quotas and their potential impact on raw material procurement costs will become increasingly important.

Sibo manufactures steel bushings for industrial applications and produces custom steel components. To receive our technical catalog, simply complete the form below. For custom projects, quotations or further information, contact us.

EU Regulations

• Regulation (EU) 2026/1384 of the European Parliament and of the Council
• Commission Implementing Regulation (EU) 2026/1457

Forestry equipment includes the machines and attachments used for logging, timber handling, land clearing, vegetation management and biomass processing. Modern forestry relies on a combination of dedicated forestry machines and versatile carrier machines equipped with specialized attachments.

Unlike many other industries, forestry equipment is not limited to purpose-built machines. Excavators, skid steer loaders and compact track loaders can all perform forestry operations when fitted with the appropriate attachment, making versatility one of the defining characteristics of the sector.

Main Types of Forestry Equipment

Forestry equipment covers a wide range of machines and attachments used in logging, land clearing and vegetation management. Some equipment is designed exclusively for forestry, while other machines can be adapted for different applications by using specialized attachments.

• Harvester: A purpose-built forestry machine designed to fell, delimb and cut trees into logs directly in the forest.
• Forwarder: Used to transport processed logs from the harvesting area to roadside collection points without dragging them across the ground.
• Wood Chipper: Processes branches, trunks and forestry residues into wood chips for biomass production, landscaping and industrial applications.
• Feller Buncher: Cuts standing trees and places them in organized bundles, allowing efficient collection and transport.
• Excavators: Versatile carrier machines widely used with forestry attachments such as mulchers, grapples, rakes and rippers for land clearing and vegetation management.
• Skid Steer Loaders: Compact and highly maneuverable carrier machines suitable for lighter forestry operations and compatible with a wide range of attachments.
• Compact Track Loaders: Similar to skid steer loaders but equipped with tracks, providing improved traction and flotation on soft or uneven terrain.
• Mulcher: Heavy-duty attachment used to shred trees, brush, shrubs and vegetation directly on site.
• Log Grapple: Hydraulic attachment designed to grab, lift, transport and position logs during forestry operations.
• Root Rake: Attachment with long reinforced teeth used to remove roots, branches, stumps and vegetation debris while leaving much of the soil in place.
• Sawtooth Ripper: Heavy-duty ripper attachment used to break roots, loosen compacted ground, remove stumps and prepare land for further operations.

Applications

Forestry equipment is used in a wide variety of operations, from commercial timber harvesting to environmental management and infrastructure projects. Depending on the machine or attachment installed, the same carrier can perform very different tasks.

• Logging: Tree felling, processing, timber extraction and transport.
• Land Clearing: Removal of trees, stumps, roots and vegetation before construction or agricultural projects.
• Vegetation Management: Maintenance of forests, roadsides, railways, utility corridors and public land.
• Biomass Production: Processing wood residues into chips for renewable energy and industrial use.
• Forest Management: Thinning operations, habitat improvement and sustainable woodland maintenance.
• Wildfire Prevention: Removal of undergrowth and combustible vegetation to reduce fire risk.
• Site Preparation: Preparing land for reforestation, infrastructure or development projects.

Forestry Equipment Manufacturers

The forestry equipment market includes manufacturers specializing in complete machines, wood processing equipment and heavy-duty attachments. Many companies also develop carrier machines capable of working across forestry, construction and land-clearing applications.

Among the best-known forestry equipment manufacturers are John Deere Forestry, Komatsu Forest, Ponsse, Tigercat, Eco Log, Rottne, HSM, Bandit Industries, Vermeer and FAE. Their product ranges include harvesters, forwarders, wood chippers, mulchers, grapples and many other machines and attachments used throughout the forestry industry.

Steel Bushings for Forestry Equipment

Many forestry machines and attachments rely on steel bushings installed in pivot points, articulated joints and hydraulic systems. These components help reduce wear, maintain alignment and withstand the high loads generated during forestry operations.

Harvester heads, forwarders, grapples, mulchers, root rakes and rippers all include moving joints where durable bushings play a key role in long-term reliability.

We manufacture steel bushings for heavy-duty applications used in forestry, construction, demolition and agriculture. Contact us for quotations, custom projects or technical information, or request our catalog using the form below.

SIBO is a word with several different meanings. In most online searches, it refers to the medical acronym Small Intestinal Bacterial Overgrowth. However, the same term can also refer to companies, places, people, computing history and other acronyms.

This page is a short disambiguation guide: its purpose is to clarify the main meanings of SIBO and help readers understand which one is relevant in each context.

SIBO in Medicine

In medicine, SIBO stands for Small Intestinal Bacterial Overgrowth. It refers to an abnormal increase in bacteria in the small intestine, especially bacteria that are not usually found there in high quantities.

This is the most common meaning of the acronym online. Medical websites, articles and patient guides often use SIBO to describe a digestive disorder linked to symptoms such as bloating, abdominal discomfort, gas, diarrhoea, constipation or malabsorption.

This medical meaning is unrelated to companies, places or industrial products that use the name Sibo. The overlap is purely linguistic: the same letters are used in different contexts.

SIBO as a Company Name

Sibo is also used as a company name by different businesses in different sectors and countries. In this case, the word does not usually function as a medical acronym, but as a brand, company name or commercial identity.

Examples include:

• Sibo Srl – Italy
• SIBO Group – Slovenia
• SIBO Business – South Africa
• SIBO S.p.A. – Italy

Sibo Srl is an Italian manufacturer of steel bushings and precision mechanical components for heavy-duty applications. The company works mainly with sectors such as construction machinery, agricultural machinery, mining equipment, lifting systems and industrial applications.

SIBO Group is another company using the same name, active in a different industrial field. SIBO Business operates in South Africa in business technology and consulting services. SIBO S.p.A., based in Italy, is connected with automation and machinery for wood and metalworking processes.

These examples show why the word SIBO should always be interpreted according to the context. A search for “Sibo company” may refer to very different businesses.

Sibo as a Place Name

Sibo is also a place name in Sweden. Sibo, Sweden is a locality in Bollnäs Municipality, in Gävleborg County.

This geographical meaning is separate from the medical acronym and from company names. It is another example of how the same word can appear in different contexts without having the same origin or meaning.

SIBO in Computing

In computing history, SIBO is associated with the Psion Organiser family of pocket computers. It is commonly linked to Psion’s 16-bit organiser platform and software environment.

This meaning belongs to the history of handheld computers and personal digital assistants, especially before smartphones became common. It is a niche meaning today, but still relevant in discussions about early portable computing devices.

People Named Sibo

Sibo can also appear as a personal name or surname.

• Kwasi Sibo – Ghanaian professional footballer.
• Sibo – Chinese poet of the Qing dynasty.

In these cases, Sibo is not an acronym. It is part of a person’s name, which again makes the context essential for understanding the correct meaning.

SIBO as an Acronym

Besides the medical meaning, SIBO may also be used as an acronym by organizations, associations, projects or local initiatives. These uses are usually less common and depend heavily on the specific field or country.

For this reason, when the term appears without context, it is useful to check the surrounding words: medicine, company names, geography, computing or people usually make the intended meaning clear.

Why Is Our Company Called SIBO?

The name SIBO comes from the Italian words Società Italiana Boccole, which literally mean Italian Bushings Company. Since the company was founded, steel bushings have been our core specialization and remain the main focus of our production today.

If you would like to learn more about our steel bushings, you can browse our catalogue or contact us for technical information and custom manufacturing solutions.

Cranes are among the most important lifting machines used in construction, industry, logistics, ports, mining, energy and marine operations. Although their designs can vary greatly, all cranes have the same basic purpose: lifting, moving and positioning loads that would be impossible or unsafe to handle manually.

This article provides a general overview of the main types of cranes, how they work, where they are used and which mechanical components are most exposed to wear during operation.

A crane is a lifting machine designed to raise, lower and move heavy loads. It usually combines a structural frame, a lifting mechanism, a hook or lifting device, and a system that allows the load to be moved vertically, horizontally or rotationally.

Cranes are used when heavy materials, machinery or structures need to be positioned with precision. Depending on the application, a crane may be fixed to the ground, mounted on a vehicle, installed inside a factory, placed on rails, supported by tracks or even mounted on a floating platform.

Etymology

The word crane ultimately derives from the Old English cran, which referred to the long-necked bird. The term can be traced back to Proto-Germanic roots and has related forms in several European languages. By the late Middle Ages, the name was also being used for lifting machines, likely because their shape was thought to resemble the neck and head of a crane.

Types of Cranes

There is no single universal system for classifying cranes. Some categories are based on mobility, others on structure, installation method or operating environment. As a result, some crane types can overlap. For example, a telescopic crane may also be a mobile crane, while a maritime crane can be installed on a ship, offshore platform or pedestal structure.

Tower Cranes

Tower cranes are among the most recognizable lifting machines and are a common sight on construction sites around the world, from residential developments to skyscrapers and major infrastructure projects.

Their structure typically includes a vertical mast, a rotating slewing unit, a horizontal jib and a counter-jib with counterweights. Tower cranes are mainly used for lifting construction materials such as steel beams, concrete elements and prefabricated components at significant heights.

Mobile Cranes

Mobile cranes are lifting machines mounted on wheeled carriers. Their main advantage is mobility, allowing them to travel between job sites and be positioned quickly where lifting work is required.

They are widely used in construction, infrastructure, industrial maintenance and transport operations. Many models use telescopic booms and outriggers to adapt to different working conditions.

All-Terrain Cranes

All-terrain cranes are designed for both road travel and construction site operations. They combine good road mobility with the ability to work on more challenging terrain.

They are commonly used in infrastructure projects, industrial installations, wind energy and heavy lifting applications where flexibility is important.

Rough Terrain Cranes

Rough terrain cranes are built specifically for off-road environments. Large tires and robust chassis designs allow them to operate on uneven or unpaved surfaces.

They are often used on construction sites, industrial yards, energy projects and remote work areas where maneuverability and stability are critical.

Telescopic Cranes

Telescopic cranes use booms made of multiple sections that extend and retract hydraulically. This allows the crane to adjust its reach according to lifting height and working distance.

Telescopic booms are commonly found on mobile cranes, truck-mounted cranes and other compact lifting machines.

Crawler Cranes

Crawler cranes are mounted on tracks rather than wheels. This configuration improves stability and distributes weight more evenly on soft or uneven ground.

They are commonly used in large construction projects, bridge construction, industrial plants, wind farms and other heavy lifting applications.

Overhead Cranes

Overhead cranes, also known as bridge cranes, are typically installed inside factories, warehouses and manufacturing facilities. They move along elevated runways and transport heavy materials across the work area.

They are widely used in production plants, workshops and heavy industry where frequent material handling is required.

Gantry Cranes

Gantry cranes perform a similar function to overhead cranes but are supported by their own legs rather than by a building structure.

They are commonly used in ports, shipyards, logistics terminals and outdoor industrial areas where a fixed overhead system is not available.

Loader Cranes

Loader cranes are hydraulic cranes mounted on trucks. They are designed to load and unload materials directly from the vehicle carrying them.

Their compact articulated design makes them useful for deliveries, construction work, maintenance operations and municipal services.

Floating Cranes

Floating cranes are installed on barges or other floating platforms. They are used for heavy lifting operations on water, including bridge construction, salvage work and marine infrastructure projects.

Their floating configuration allows them to reach locations that are inaccessible to land-based cranes.

Maritime Cranes

Maritime cranes are designed for marine and offshore environments, where corrosion, wind and vessel movement create demanding operating conditions.

This category includes ship cranes, offshore cranes, pedestal cranes and knuckle boom cranes used for cargo handling, maintenance work and offshore lifting operations.

Because maritime cranes represent a specialized sector of the lifting industry, we have covered them in a dedicated article.

How Cranes Work

Although crane designs differ, the basic principle is always the same: a crane lifts a load and moves it in a controlled way. This movement may be vertical, horizontal, rotational or a combination of these actions.

The lifting force is usually generated by a hoisting system, which may use wire ropes, chains, hydraulic cylinders or other mechanical systems depending on the crane type. The load is connected to a hook, lifting beam or other attachment device.

Stability is one of the most important aspects of crane operation. Cranes use counterweights, outriggers, tracks, fixed foundations or structural supports to balance the load and prevent tipping. The relationship between load weight, lifting radius and crane configuration is critical for safe operation.

Main crane components can include the boom, jib, mast, hook, hoist, counterweight, slewing system, undercarriage and support structure. The exact configuration depends on the crane category and working environment.

Industrial Applications of Cranes

Cranes are used across many industrial sectors where heavy materials, equipment or structures need to be lifted and positioned safely.

Construction and Infrastructure

In construction, cranes are used to lift steel structures, concrete elements, formwork, machinery and building materials. Tower cranes, mobile cranes and crawler cranes are especially common in residential, commercial and infrastructure projects.

Manufacturing and Heavy Industry

Factories, steel plants, workshops and industrial facilities rely heavily on overhead cranes, gantry cranes and jib cranes to move heavy components through production and maintenance areas.

Logistics and Warehousing

In logistics, cranes support the movement of containers, pallets, machinery and heavy goods. Gantry cranes and overhead cranes are often used in terminals, warehouses and intermodal facilities.

Mining and Quarrying

Cranes play an important role in mining and quarrying operations, particularly during equipment assembly, plant construction and maintenance activities. They are commonly used to handle large components, perform repairs and support heavy lifting operations in mines, quarries and processing facilities.

Ports, Marine and Offshore Operations

Ports, shipyards and offshore installations use cranes for cargo handling, vessel maintenance, marine construction and offshore lifting. In these environments, crane design must consider corrosion, wind, dynamic loads and limited working space.

Energy and Utilities

Cranes are widely used in energy projects, including power plants, wind farms, oil and gas facilities and utility infrastructure. They are required for installing turbines, lifting plant components and supporting maintenance operations.

A Brief History of Cranes

The first cranes appeared in Ancient Greece, where they were used to lift heavy stone blocks during construction. The technology was later adopted and developed further by the Romans, who used lifting machines in large building projects, infrastructure works and port operations.

During the Middle Ages, cranes became important in the construction of cathedrals, fortifications and harbor facilities. Many early cranes were powered manually by workers or by animals using treadwheels, winches and simple mechanical systems.

The Industrial Revolution transformed crane technology. Steam power, steel structures, electric motors and hydraulic systems made cranes stronger, more precise and suitable for increasingly demanding industrial applications.

Today, cranes range from compact loader cranes to giant crawler cranes, offshore lifting systems and automated industrial cranes used in highly specialized environments.

Main Crane Manufacturers

The crane industry includes several international manufacturers serving different segments of the market. Some companies focus mainly on construction cranes and mobile cranes, while others specialize in industrial lifting, port equipment, offshore cranes or truck-mounted lifting systems.

Among the best-known manufacturers are Liebherr, Tadano, Manitowoc, Terex, Magni, Konecranes, Palfinger,Fassi. Their product ranges cover tower cranes, mobile cranes, crawler cranes, overhead cranes, gantry cranes, loader cranes and specialized lifting systems for industrial and infrastructure applications.

Mechanical Components Subject to Wear

Cranes operate under repeated loads, movement, vibration and environmental stress. For this reason, several mechanical components are subject to wear and require careful material selection, lubrication and maintenance.

Pins and Bushings

Pins and bushings are commonly used in articulation points, boom connections, hydraulic cylinder mounts and other moving joints. These components help manage rotation, oscillation and load transfer between connected parts.

Sibo Steel Bushings Catalog

Sibo manufactures steel bushings for cranes and other heavy-duty applications where high loads, continuous articulation and severe operating conditions require reliable wear-resistant components.

For demanding environments, we produce bushings with advanced thermochemical surface hardening treatments that provide excellent wear resistance, high surface hardness and improved corrosion, erosion and adhesion resistance, while maintaining excellent sliding performance.

For corrosive applications, including marine and saline environments, we also manufacture stainless steel bushings using materials such as AISI 316, AISI 420 and AISI 440C.

Contact us for quotations, custom projects or more information about our steel bushings. You can also request our technical catalog using the form below.

Sources

• Etymonline – Crane etymology
• Liebherr – Tower cranes
• Liebherr – Mobile and crawler cranes
• Konecranes – Overhead cranes
• Konecranes – Gantry cranes