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Latest From Blog

What are the different types of force sensors?

What are the different types of force sensors?

Force sensors are devices used to measure the force or load applied to them. They are commonly used in various applications, including industrial, automotive, robotics, and medical fields. Read more about force sensors.

Here are some of the different types of force sensors:

Strain Gauge Load Cells:

Strain gauges are the most commonly used force sensing technology. Load cells based on strain gauges measure the strain experienced by the gauge when a force is applied, which is then converted into an electrical signal proportional to the force. They are available in various configurations, such as beam, shear, and S-type load cells.

Piezoelectric Force Sensors:

These sensors use the piezoelectric effect, where certain materials generate an electrical charge when subjected to mechanical stress. When a force is applied to a piezoelectric sensor, it generates an electrical output proportional to the force magnitude. They are known for their high-frequency response and dynamic range.

Capacitive Force Sensors:

Capacitive force sensors operate based on the change in capacitance between two conductive surfaces when a force is applied. The capacitance varies with the distance between the surfaces, which changes when force is applied. The change in capacitance is then converted into a corresponding electrical signal.

Magnetic Force Sensors:

Magnetic force sensors measure the force between two magnets or a magnet and a ferromagnetic material. When a force is applied, the magnetic field strength changes, which is detected by the sensor. These sensors are often used in non-contact force measurement applications.

Optical Force Sensors:

Optical force sensors utilize optical principles to measure force. They typically involve the use of optical fibers, gratings, or interferometers. When a force is applied, it alters the optical properties, such as the light intensity or phase, which can be measured to determine the force magnitude.

Load Buttons and Compression Cells:

Load buttons and compression cells are compact force sensors designed to measure compression or tension forces. They consist of a load-sensitive element, such as a strain gauge or a piezoelectric material, integrated into a button or a cylindrical shape.

Force Sensing Resistors (FSRs):

FSRs are resistive sensors that change their resistance in response to applied force. They consist of a conductive polymer material with interlocking particles. When a force is applied, the particles compress, causing a change in resistance. The resistance change is then measured and correlated to the applied force.

Force Sensors for Industrial Manufacturing

Force Sensors for Industrial Manufacturing

Force sensors for industrial purposes and in manufacturing are devices specifically designed to measure and monitor forces within industrial processes and manufacturing operations. They are utilized in various applications to ensure safety, improve quality, optimize production, and enhance efficiency. Here are some common applications of force sensors in industrial settings:

  1. Quality Control and Testing: Force sensors are employed in quality control processes to verify the strength, integrity, and performance of manufactured products. They can be used to measure the compression or tension forces during material testing, assembly verification, and product validation.


  1. Robotics and Automation: Force sensors are integrated into robotic systems and automation equipment to enable force-controlled operations. They provide feedback to robots, allowing them to detect and adjust their forces while interacting with objects or performing tasks like assembly, pick-and-place operations, and surface finishing.


  1. Load Monitoring: Force sensors are used in manufacturing equipment, such as cranes, hoists, and conveyors, to monitor the loads being lifted or transported. By measuring the applied forces, they ensure that the equipment operates within safe load limits and prevent overloading or equipment failures.


  1. Machining and Cutting Processes: Force sensors are utilized in machining and cutting operations to monitor and control the forces exerted during the process. They help optimize the cutting parameters, such as feed rates and tool pressure, to enhance efficiency, minimize tool wear, and ensure consistent quality.


  1. Presses and Stamping: Force sensors are commonly employed in presses and stamping machines to measure the forces exerted during metal forming processes. They provide real-time feedback on the applied forces, enabling precise control and adjustment of the forming process for accurate shaping and improved product quality.


  1. Assembly and Joining Operations: Force sensors are used in assembly and joining processes to ensure proper alignment and force application during component assembly. They assist in achieving consistent and accurate joining, whether it involves pressing, riveting, welding, or adhesive bonding.


  1. Ergonomics and Workplace Safety: Force sensors play a role in ergonomic assessments and workplace safety by measuring the forces experienced by workers during manual handling tasks. They help identify potential risks and ensure that ergonomic guidelines are followed to prevent injuries and optimize working conditions.


  1. Packaging and Bottling: Force sensors are utilized in packaging and bottling equipment to measure and control the sealing and capping forces. They ensure proper sealing integrity and avoid issues like leaks or damage to the packaged products.


These are just a few examples of how force sensors are applied in industrial settings and manufacturing processes. By providing accurate force measurement and feedback, these sensors contribute to improved productivity, quality control, and safety in various industrial applications.

Load Indicator

Aröds industriväg 58, 422 43 Hisings Backa

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Hydraulic vs. mechanical crimping tools for electrical connectors

Hydraulic vs. mechanical crimping tools for electrical connectors

Hydraulic vs. mechanical crimping tools for electrical connectors
The selection of the best tool for making an electrical connection is based on personal preferences, budgets, and benefits. The fastening of two electrical lines is completed using a crimper, which is a compression tool available in a variety of sizes, mechanisms, and styles. The current crimping tools are engineered with the user in mind to guarantee safety, worker’s health, and efficiency. The crimping tools can either be die or dieless. The die crimper requires a set of dies for each connector size while the dieless are self-contained units that use any wire or connector in a given wire size range.

Hydraulic crimping tool

Hydraulic crimpers are either hand-held or remote compression tools. In the hand-held compression crimpers, the connector is placed between the pumps and the jaw of the tool and compressed until the jaws crimp the connector at the right pressure. The remote hydraulic crimpers have a hydraulic pump that is separated from the head, which holds the jaws. The two-section are connected using a flexible hose.

Want to measure force? Read more..

The pump can either be placed on the ground or hanged on the shoulder using a strap; either position decreases the weight on the operator’s hands and allows easy maneuverability. The hydraulic crimping tools are designed for intensive installation works. The hydraulic presses in these tools will enable the crimping of the cables connectors and terminals on wires that have a bigger cross-section.
The hydraulic crimpers are also compatible with a variety of crimping dies; thus, they can be used for crimping different types of connectors and terminals. The hydraulic crimping tools also deliver greater power compared to the conventional hand presses.

Mechanical Crimping tool

Mechanical crimpers are tools that require brute force, which is ideal for occasional users. The manual crimping tool resembles pliers and is used to join two-wire terminal or connectors by exerting pressure. The pressure causes the wires to deform and join together.
The mechanical crimpers are hand-held devices that may be basic die, dieless, or ratchet tools. The mechanical die-type has built-in, multi-nested die wheel, which the operator spins to choose the proper die for the connector being crimped. The multi-nested die wheel saves time and eliminates the possibility of die changeover or dies being lost. The mechanical tools may also have a controlled cycle mechanism. The mechanism gives the control of the controller on the crimp tool rather than the installer. This controlled cycle mechanism improves the reliability of the completed crimp. The hand-held mechanical crimping devicesare ergonomically designed. This design decreases the stress on the wrists and the hands of the operator. The ergonomics also reduces the risk of carpal tunnel syndrome by ensuring that crimping is handled with up to 60 percent less force.
Other manual crimping tools may include embossed integrity dots that will provide easy visual verification of the crimps. Other key features of the hand-held manual crimper are the narrow nose and a movable handle that enable crimping in confined areas. The mechanical crimping tools have insulation to protect the operator from electric shock.
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Measuring motion & force with force sensors & load cells

Engineers need to know the range of motion and force involved in mechanical designs before mechanical designs become viable pieces of equipment that provide operational and worker safety.

It is important to consider that force generally indicates push or pull motion. The push or pull motion can be magnetic, gravitational or electrical in nature. Force is measured by a meter. Note that force is measured in pounds. For instance, a lion’s bite is measured as 1235 pounds of bite force.

A force meter measures tension and compression such as the force compression of the lion’s bite. When tension and compression are measured, it acts on a sensor and is commonly referred to as a transducer.


How Force Sensors Act on Load Cells


The chief load cell principle is that the strain gauge converts the load bearing into electrical signals. Thus, these electrical signals are converted to digital read outs useful to determine mechanical force. However, it is also important to know that there are different types of load cells useful for different purposes. These include:
. Pneumatic load cells
. Hydraulic load cells
. Magnetostrictive load cells
. Piezorestive load cells
. Inductive and reluctance load cells
. Strain gauge load cells
The Relationship between Force Sensors and Load Cells to Measure Motion and Force
Fundamentally, the job of force sensors and load cells are interrelated. This is due to the fact that force sensors and load cells read and record weight of objects and their range of motion. In the example of a processing plant, there is the need for determining weight and precision mechanical force on processing operations.

robotics arm

In most cases, if the processing operation relies on a robotic application where the product processed requires compression, it is necessary to know the weight of the force on the robotic equipment during the course of the operational function.


How to Measure Motion and Force with Force Sensors and Load Cells


As its name indicates a force sensor measures force on parts and equipment. It can be stand and lever operated or a hand held digital device that measures movement (travel) and weight of force in pounds.A load cell measures force as it is in motion by determining the effect of the weight of force on a body or structure and is then converted into SI units. For instance, industrial plants where hoppers contain liquid or dry materials, this requires measurement using a load cell device as a transducer.

When force is applied, load cells receive an electrical signal that measures the weight of the force and the signal changes the read out in proportion to the signal received.


When motion and force is applied to aeronautical, industrial and medical parts, devices and equipment, today’s precision digital force sensors and load cells provide the detailed range of motion as well as the effect of force to ensure scales, hoppers, tanks, engines and conveyors are properly calibrated to meet manufacturers’ safety and efficiency ratings. Users of force sensors and load cells should have an understanding of engineered equipment load bearing and design.
For more information on load cells and force sensors please visit Load Indicator website (Swedish | English)

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Load Indicator AB

Aröds Industriväg 58

S-422 43 Hisings Backa

The future of Manufacturing In Europe

The future of Manufacturing In Europe

Europe witnessed many significant changes which have facilitated some of the most sustainable and competitive economies. In the year 2020, Europe is heading towards digitization with the plan for R and D finding and COP 21 for climate change which is a long term strategy which can be tricky down to the manufacturing sector. There are many technological innovations they are heading towards, which can be the reason for the right innovations which can have a productive outcome.

The factories

With all of the funding R&D development, we see that there is an allocation of approximately $17 billion on their budget. It is taken that manufacturing industry will see a lot of activities and advancement in computer and sensor technologies. The factor of the equation can easily grow information which can help them communicate better. There is also a 5G rollout plan which can help bring truth the vision allowing to connect these enterprises.

Nearshoring in the East

European countries like Poland, the Czech Republic, Hungary, Romania, Turkey, which can become a major hub for many of the manufacturing innovation that is happening. As there is an easy  way to access the money here is a lot of innovation which can grant them cash and also tax incentives. Poland is still the largest and the strongest growing economy which can see advancements in the manufacturing industry.

Energy and Geopolitics

From purely a political standpoint the lifting of Iran Sanctions. The countries of Russia and China are coming together, which can have the right economic climate in both countries. There would be a lot of cheaper dumping goods which can be seen in the steel industry. The country of Iran can also provide a lot of growth opportunities for Russia and China which can have an aviation, automotive and shipping opportunities.

Carbon Neutral Manufacturing

One of the major ways to curb climate changes is going to be the introduction of COP21. This is one way they are trying to make sure that they can optimize the energy consumptions, which is plant and focuses on the electricity which forms a renewable source. The Europen Union is aiming to ensure that it can reduce at least 40% of the carbon emissions and green house effects. The main solution they have come up with is by providing carbon neutral manufacturing. This strategy is to de-carbonize  by using intelligent distribution centres which can enforce sustainable power generation. This will lead to the creation of low power transmission systems which can later be shared by the organizations.

human-centred Manufacturing

With the changes that Europe is undergoing right, they are undergoing a huge structural shift which has seen a spike in the highly skilled workforce. They try to make sure that there is dynamic work which works by the context, skill development which becomes a core part of the operational policy.

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