The production machine - step by step for effective implementation in an industrial plant

Estimated reading time: approx. 8 minutes

TL;DR:

• A thorough analysis of needs and objectives avoids mistakes from the outset.
• Detailed design and prototyping reduce the risk of defects.
• The coordination of installation work is crucial for smooth implementation.
• Regular maintenance and service guarantee long-term performance.
• Staff training improves safety and efficiency.

Table of contents

- Introduction
- Stage 1 - Analysis of production needs and requirements
- Stage 2 - Concept development and preliminary design
- Stage 3 - Detailed design and prototyping
- Stage 4 - Production and assembly of the machine in the plant
- Stage 5 - Training of operators and maintenance staff
- Stage 6 - Maintenance and servicing
- Additional improvements and modifications during operation
- The most common challenges when putting a machine into production
- Practical applications - how to prepare for machine deployment
- Summary
- FAQ

Introduction

The production machine is often the heart of the entire industrial process. Nowadays, with increasing customer demands and a dynamic market, creating an efficient, safe and tailor-made machine is the key to success. But what does the step-by-step implementation of such a machine in a plant look like? How do you minimise the risk of downtime and make optimal use of resources?

In this article you will find the answers to these questions. You will learn why it is so important to invest in machinery for production now - in the age of automation and pressure for efficiency - and how to implement it without disruption.

With the tips and good market practice outlined in the article, you will gain insight into the entire process - from initial analysis to design to installation and service. You will also learn about the most common challenges, as well as the solutions that are used in the industry to ensure that the machine delivers stable and measurable benefits for years to come.

Stage 1 - Analysis of production needs and requirements

The first step to implementing a machine in production is a thorough needs analysis. Although it sounds obvious, this step is often overlooked or underdeveloped. In practice, it means gathering key information such as:

• Size and volume of production (number of pieces per hour, daily demand).
• Type and properties of materials (e.g. steel, plastic, wood).
• Environmental conditions (e.g. temperature, humidity, specific conditions in the food or chemical industry).
• Range of financial possibilities.
• Future plans for range development.

Defining machine objectives

The second important aspect is to define the goals of the machine itself: whether it is to increase productivity, reduce labour costs, reduce human error or enable a new product launch. If the company is planning further automation or robotisation, it is also necessary to consider the compatibility of the machine with other elements of the production line, ERP/MES systems or possible collaboration with robots.

Specialist support right from the start

An effective solution is to engage a partner such as Michale Automatics, who can support you from the very beginning of the project to clarify the requirements and optimally design solutions. In this way, you will avoid mistakes at the analysis stage that could generate costs and delays in the future.

Stage 2 - Concept development and preliminary design

After the initial needs analysis, it is time to create the concept for the production machine. At this point, the first visualisations and sketches are created, allowing the team to establish the most important technical and technological assumptions.

Technical documentation and simulations

Conceptual work includes 2D diagrams, 3D models and often simple prototypes - to test the operation of key mechanisms in practice. It is not uncommon to use specialised CAD software or other engineering tools to simulate the operating conditions of the device at the design stage, make adjustments and verify the most critical points of the design.

Component selection and line compatibility

At this stage, it is also determined what components will be needed to build the device. These include, for example, motors, gears, sensor systems, PLC control, operator panels and safety components. If the company already has a production line in operation, it will be necessary to take into account existing equipment or systems and adapt the new machine to them.

In the context of integrating industrial robots, it is worth thinking straight away about whether we plan to support robotic workstations in the future. Then we will check whether the machine design and its control can cooperate more widely with an industrial robot or cobot working on a common line.

Stage 3 - Detailed design and prototyping

Once the initial concept is accepted, the design team develops a detailed plan and model. This is the time when every axis of the machine, every drive train and the safety system is given its final shape.

Production of detailed documentation

Full documentation includes, among other things, manufacturing drawings of individual parts, material lists, electrical plans, as well as safety procedures or descriptions of communication interfaces. Precise documentation is the key to smooth production and assembly.

Prototype implementation and testing

If the machine is so complex that it requires 'live' verification, it is useful to create a prototype. The prototyping stage allows potential design flaws to be detected and corrected before the machine goes into actual production. Some factories, for example, choose to test individual mechanisms on a smaller scale or to test a prototype running continuously for several days under near-target conditions. This type of piloting prevents subsequent downtime on the production floor.

Stage 4 - Production and assembly of the machine in the plant

This is the moment when plans become reality. An experienced team of fitters and engineers proceed to physically build the components, weld the structure (if necessary) and assemble the components. If the task is outsourced to an external company such as Michale Automatics, the process may look like this:

1. Production of components in a dedicated workshop or in cooperation with reliable suppliers.
2. Pre-assembly at the supplier's premises, where all systems are tested before the unit is shipped to the customer's plant.
3. Transporting and installing the machine at the target location - making sure the machine fits in the production line and levelling it accurately.
4. Test run and initial calibration.

The challenge of coordination

One of the significant challenges at this stage is coordinating the work of the various teams. Many times the assembly of a machine has to take place during a short production shutdown. Therefore, the schedule should be fine-tuned down to the day and the plant personnel trained in what is happening on the shop floor. If the company uses industrial automation solutions (e.g. PLCs, HMI), communication tests with the existing infrastructure will also need to be performed.

Quality control and acceptance

The trial run is often followed by performance tests, safety tests and verification of compliance with industry standards. Only when everything has gone well is the machine formally accepted. The plant gains a finished machine that fully meets its needs and which can start production immediately.

Stage 5 - Training of operators and maintenance staff

Even the most innovative and advanced production machine will prove useless if workers do not know how to operate it correctly. Installation and initial testing are therefore followed by a training phase.

Scope of training

• Daily service: Starting, stopping and setting machine parameters.
• Safety: Procedures for working with a machine in motion, emergency action or replacement of personal protective equipment.
• Care and maintenance: Periodic inspections, replacement of consumables, lubrication and cleaning of components.

Documentation and educational material

It is important that staff have access to clear operating instructions and technical documentation. Many companies also host short instructional videos that the operator can return to when in doubt.

Stage 6 - Maintenance and servicing

To keep a production machine running smoothly for years, regular service and maintenance is essential. Many faults occur for mundane reasons - lack of replacement of consumable parts or delayed servicing.

Proactive maintenance

More and more companies are relying on predictive maintenance, where operating anomalies can be detected early thanks to sensors and data analysis. This approach minimises the risk of failures and downtime.

External service support

When dealing with complex machinery, it is worth having an experienced partner on hand. At Michale Automatics, we provide service and maintenance services, which significantly streamlines the maintenance process. If a machine requires advanced diagnostics, our engineers can quickly arrive on site and make the necessary repairs. In this context, it is also worth taking a look at the offer of
servicing and maintenance of stations.

Additional improvements and modifications during operation

After the implementation period and the start of operation, further ideas for improvements to the machine may arise. The machine can usually be extended, e.g. with automation components, vision systems or a robotic station.

Integration with robots and automation

In today's reality, many companies are opting for an even higher degree of automation. For example, packaging, palletising or welding robots can be incorporated. At Michale Automatika, we take care of these types of developments so that one production machine can become part of a fully integrated line. If your company is at the stage of planning robotisation, it is worth checking out our offer on
robotisation of packaging.

Software updates and upgrades

We live in an age where control systems (PLC, SCADA or HMI panels) are constantly evolving. Regular software updates can not only improve machine operation, but also increase data and operator safety. If the system is prepared for integration with ERP or MES, it is worth considering implementing such a solution to monitor production efficiency in real time.

The most common challenges when putting a machine into production

Despite careful planning, the process can present some risks. Below are the most common challenges that are worth anticipating in advance.

Vague specification of requirements

If we do not clearly define all needs and constraints at the outset, there is a risk of creating a machine that does not match production realities. This results in additional costs and delays in implementation.

Lack of staff training

A common problem is insufficient staff preparation. Even the best machine will not deliver the desired results when the team operating it does not have the right knowledge and skills.

Insufficient budget for modifications and development

The machinery installed in a plant should reflect not only the current needs, but also the development of the company over the next few years. Some business owners forget this aspect and only discover after time that an expensive upgrade is necessary.

Practical applications - how to prepare for machine deployment

- Set realistic targets and budget: Think about what exactly you want to achieve and what the maximum investment ceiling is.
- Assemble a project team: People from production, maintenance, as well as operators - all should be involved in discussions about the target functionality of the machine.
- Take into account the possibility of further automation: Consider whether you want to implement robots for welding, packaging or other tasks in the future. If so, plan a suitable machine layout now.
- Ensure training and documentation: Prepare detailed instructions, instructional videos and conduct operating workshops.
- Schedule service and spare parts: Find out when and how to order consumable items. Make sure you will have access to expert service support.

Summary

Implementing a machine in production is one of the most important stages in the development of any industrial company. On the one hand, it means a large investment and commitment of resources, but on the other hand, it is an opportunity to significantly improve processes, reduce labour costs and increase competitiveness in the market. A reliable approach is key here: going step by step from needs analysis to servicing and possible upgrades.

If you would like to learn more about the possibilities offered by modern industrial automation, we encourage you to check out our company's services in the field of
robotisation.

A production machine that has been implemented conscientiously and professionally becomes a guarantee of stable results and good quality of the final product. If you are considering building or upgrading such a machine, we invite you to contact the experts at Michale Automatics - we will help you plan, design and commission a solution tailored to your needs.

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Thank you for reading this text. We hope that you have found in it valuable tips on how to approach the step-by-step implementation of a machine in an industrial plant. If you have additional questions or need a personal consultation, please feel free to contact us - the Michale Automation team is at your service!

FAQ

How long does it take to put a machine into production?
The implementation time depends on the complexity of the project, the resources available and the complexity of the processes. It can be a few weeks for simple solutions or even several months for large integrations.

Does putting a machine into production mean redundancies?
Usually no. Modern machines often take over monotonous and repetitive tasks, allowing staff to focus on more challenging and creative activities. Many companies offer retraining for staff.

What are the costs involved in putting the machine into production?
The cost depends on the scale of the project, the type of machine, the degree of automation and the modifications needed. The need to integrate with existing systems and production lines also has a significant impact.