Predicting the Future: The Art of Demand Forecasting in Supply Chain Management

Predicting the Future: The Art of Demand Forecasting in Supply Chain Management

Dorota Owczarek - April 16, 2023 - updated on April 22, 2023

Imagine a world where you could predict the future. A world where you could anticipate the demand for your products, optimize your production processes, and ensure timely delivery of goods to your customers. This may sound like a pipe dream, but it’s not. In fact, demand forecasting is a powerful tool that can help you achieve all of these things and more. By analyzing historical data and using advanced techniques, you can accurately predict customer demand, plan your inventory levels, and optimize your supply chain operations.

Demand forecasting can help you stay ahead of the competition and maximize your profits. In this article, we’ll explore the art of demand forecasting in supply chain management and discuss the latest techniques, best practices, and emerging trends. Get ready to peer into the crystal ball and unlock the power of prediction!


• Demand forecasting is crucial in supply chain management for optimizing operations and improving customer service.
• Advanced techniques such as time series analysis and deep learning enable more accurate predictions of future demand.
• Accurate data collection, choosing the right forecasting technique, and incorporating expert opinion are important best practices for effective demand forecasting in logistics and supply chain management.
• Custom development of demand forecasting software may offer superior flexibility and accuracy compared to off-the-shelf solutions.
• nexocode’s AI experts can help organizations implement advanced AI solutions in logistics and supply chain management. Contact us, if you want to talk about your issues and the potential of ML in managing supply chains.

Why Is Forecasting Important in Supply Chains?

Forecasting plays a vital role in supply chain management, serving as a crystal ball that allows companies to peer into the future and anticipate customer demand. In today’s fast-paced business environment, accurate demand forecasting is a must-have, enabling organizations to avoid the pitfalls of stockouts and overstocks, streamline production processes, reduce lead times, and enhance customer service levels.

In other words, it’s the glue that holds the entire supply chain together, ensuring smooth operations, and keeping customers happy. By harnessing the power of forecasting, companies can stay ahead of the competition and achieve long-term success.

From Big Data to Smart Predictions: Qualitative and Quantitative Forecasting Methods

In today’s data-driven world, the amount of information available for companies to analyze is increasing exponentially. With this explosion of data comes the challenge of making sense of it all and using it to gain insights that can drive business decisions. In the realm of demand forecasting, the use of advanced techniques is becoming increasingly popular, allowing companies to transform big data into smart predictions. There are three major techniques used for demand forecasting: simple qualitative methods, quantitative forecasting techniques like time series analysis, and causal models. In this section, we will delve into each of these techniques, examining their strengths, weaknesses, and applications in the world of supply chain management.

Qualitative Forecasting Methods

Qualitative forecasting methods are techniques used to predict future demand based on subjective or non-mathematical data. These methods rely on expert opinions, market research, and other non-quantitative sources to make predictions. Qualitative methods are particularly useful when there is a lack of historical data or when there is significant uncertainty about future trends. They are also useful when trying to forecast demand for new products or in markets where demand patterns are subject to rapid changes. Common qualitative forecasting methods include expert opinion, market research, and the Delphi method.

Expert opinion involves gathering insights from individuals who have relevant expertise in a particular field (qualitative data). These experts can provide subjective judgments based on their experience, intuition, and knowledge of market trends. Market research involves conducting surveys or focus groups to gather information about customer preferences, buying habits, and market trends. The Delphi method involves soliciting opinions from a panel of experts anonymously and then aggregating the results to make predictions.

While qualitative forecasting can provide valuable insights, they are generally less accurate than quantitative methods, which rely on historical data and mathematical models. Therefore, qualitative methods are often used in combination with quantitative methods to produce more accurate forecasts.

Time Series Analysis

Time series analysis is a powerful quantitative forecasting technique used to forecast future demand based on historical patterns. It involves the use of mathematical models to analyze and interpret time-stamped data, such as sales figures, production data, or website traffic. One of the key strengths of time series analysis is its ability to capture patterns that occur over time, including trends, seasonal variations, and other recurring patterns.

Recently, deep learning methods have become increasingly popular in time series analysis, offering a significant improvement in forecasting accuracy. These methods involve training complex artificial neural networks to recognize and learn patterns in historical data, and then using these learned patterns to make predictions about future demand. Deep learning models can capture complex relationships between variables and are capable of identifying non-linear patterns in the data that may not be apparent to traditional time series models.

Deep learning models can also handle large datasets, including unstructured and noisy data, making them suitable for forecasting in complex supply chain environments. Examples of deep learning models used in time series analysis include Recurrent Neural Networks (RNNs), Long Short-Term Memory Networks (LSTMs), and Convolutional Neural Networks (CNNs).

The Transformer model is a novel, powerful deep learning architecture that uses attention mechanisms to focus on relevant information in a time series, allowing it to capture complex temporal dependencies and identify patterns that may not be apparent in traditional time series models. The Transformer model has been shown to outperform traditional time series models on a range of forecasting tasks, including stock prices, weather patterns, and energy demand.

In addition to advanced machine learning methods, traditional time series analysis techniques such as Moving Average (MA), Exponential Smoothing (ES), Multiple Aggregation Prediction Algorithm (MAPA), and Auto-Regressive Integrated Moving Average (ARIMA) are still widely used in supply chain management for demand forecasting. MA involves calculating the average of a fixed number of recent time periods to predict future demand, while ES uses a weighted average of past values, with more recent values given greater weight, to make predictions. A multiple aggregation prediction algorithm is a method focusing on seasonality forecasting.

While these methods are less complex than deep learning techniques, they are still effective in capturing simple patterns and trends in the data. In fact, many supply chain managers and practitioners still prefer to use these traditional methods due to their simplicity and ease of use.

Time series analysis is a valuable technique for demand forecasting in supply chain management that offers several advantages. By capturing trends and patterns in historical data, organizations can anticipate future demand and optimize their inventory levels and production schedules accordingly. The reliance on historical data also allows businesses to leverage their existing data to make predictions about future demand. The insights provided by time series analysis can inform informed decision-making, which helps optimize supply chain operations and reduce operating costs. Additionally, time series analysis is adaptable and customizable to meet the specific needs of an organization, making it a versatile tool for businesses of all sizes and industries.

Causal Models

Causal models are a type of quantitative forecasting method that uses statistical analysis to identify causal relationships between various factors and predict future demand. This type of quantitative supply chain forecasting method relies on the assumption that future demand is influenced by various factors such as economic conditions, marketing efforts, and weather patterns.

Causal models analyze historical data to determine the relationship between the dependent variable (demand) and independent variables (causal factors). The model then uses this relationship to predict future demand based on changes in the causal factors. These models can be simple linear regression models or more complex multiple regression models that include several independent variables.

Causal models are useful in supply chain management because they can help organizations understand the factors that influence demand and develop strategies to manage these factors. For example, a business may use a causal model to predict the impact of a marketing campaign or changes in the economy on future demand.

However, causal models also have limitations, such as the requirement for accurate and comprehensive data, the potential for multicollinearity (where two or more independent variables are highly correlated), and the assumption that the relationship between the independent and dependent variables remains stable over time.

Data Sources and Factors Impacting Demand Planning and Forecasting

Demand planning and forecasting involve analyzing data from various sources to predict future demand accurately. There are several data sources and factors that can impact accurate demand planning and forecasting, including:

How predictive analytics models are built and work on historical and current data to create predictions?
How predictive analytics models are built and work on historical and current data to create predictions?

Historical Sales Data: Analyzing past sales data is a critical component of demand planning and forecasting. Historical sales data can provide insights into past pricing trends and patterns in demand, which can be used to make predictions about future demand.

Market Research: Market research can provide valuable insights into customer preferences, buying habits, and other factors that may impact demand.

Economic Conditions: Changes in economic conditions, such as recessions or changes in interest rates, can significantly impact consumer behavior and demand patterns.

Weather: Weather patterns can also impact demand, particularly for seasonal products or products that are weather-dependent, such as outdoor apparel or snow removal equipment.

Marketing and Promotions: Marketing campaigns, promotions, and other advertising efforts can impact consumer behavior and demand patterns.

Competitor Behavior: Changes in competitor behavior, such as pricing strategies or new product launches, can also impact demand.

Product Lifecycle: The stage of the product lifecycle can also impact demand as products move through the introduction, growth, maturity, and decline stages.

Logistics Data: Logistics data, such as transportation and shipping costs, can impact demand forecasting, as changes in logistics costs can affect product pricing and demand.

Inventory Levels: Inventory levels are critical to demand planning and forecasting, as stockouts can result in lost sales, and excess inventory can lead to increased costs.

Inventory Capacity: Inventory capacity is another factor that can impact demand planning and supply chain forecasting methods, as it determines the maximum amount of inventory that can be stored at a given time.

Replenishment Times: Replenishment times refer to the amount of time it takes to restock inventory after it has been depleted. Longer replenishment times can lead to stockouts and lost sales.

These factors are critical components of demand planning and forecasting, and they must be carefully managed to ensure that organizations can meet customer demand while minimizing costs.

Applications of Supply Chain Forecasting

Now that we have explored various demand forecasting methods and factors that impact demand planning, it is time to examine how organizations can apply these techniques in their supply chain operations.

Customer Demand Forecasting

Customer demand forecasting is a critical aspect of supply chain management that involves predicting future demand for products or services. By analyzing historical sales data, market research, and customer feedback, organizations can accurately forecast customer demand and optimize their production schedules while minimizing inventory costs. For example, a clothing retailer might use demand forecasting to predict the number of jackets to stock during the winter season, based on previous sales data, customer experience, and weather forecasts.

This application is particularly important when introducing new products to the market, as organizations must accurately predict demand for these products to optimize their production schedules and minimize the risk of overstocking or stockouts. For instance, a technology company might use demand forecasting to predict the demand for a new smartphone model based on market research and customer feedback.

Production Planning and Inventory Management

Production planning and inventory management involves optimizing production schedules to meet demand. This application involves analyzing production capacity, inventory levels, and demand forecasts to ensure that production schedules are optimized to meet customer needs while avoiding stock overruns and understocks. For example, a food manufacturer might use demand forecasting to optimize its production schedules to satisfy customer demand and ensure that it has enough inventory, raw materials availability from suppliers, and capacity within manufacturing plants to meet customer demand during peak seasons.

Replenishment Forecasting

Replenishment forecasting involves predicting when inventory needs to be replenished to meet demand. This application is critical to supply chain management, as it helps organizations maintain optimal inventory levels and minimize stockouts.

By automating the replenishment process based on trend forecasting model, organizations can minimize the risk of stockouts and reduce the costs associated with excess inventory and poorly defined safety stock levels. For example, a retailer might use replenishment forecasting to automatically reorder products when inventory levels fall below a certain threshold, based on sales forecasts.

AI-based replenishment software with forecasting options
AI-based replenishment software with forecasting options that automatically trigger restocking orders

Related case study: Optimizing drug distribution and inventory activities for a hospital pharmacies network

To improve current large-scale procurement processes, a pharma company approached us to use applied analytics to stock and distribute drugs among US hospitals.

Our challenge? Maximizing savings by streamlining the procurement of medication across the hospital network and their pharmacies.  Read more about this case study.

Supply Chain Network Optimization

Supply chain network optimization involves optimizing the design and structure of supply chain networks to minimize costs while meeting customer demand. Organizations can optimize their supply chain network and reduce operating costs by analyzing transportation, production, and inventory costs. To understand this aspect better, you can look at a logistics company that might use demand forecasting to determine the optimal fleet size and composition for delivering goods based on demand forecast, location of distribution centers, routes, transportation costs, and other factors.

Sales and Marketing Planning

Sales and marketing planning involves developing effective sales and marketing strategies to maximize revenue and minimize costs. By analyzing customer behavior, market trends, and demand forecast, organizations can develop targeted sales and marketing strategies that align with customer needs and maximize revenue.

In addition to developing sales and marketing strategies for new products or services, organizations can also use demand forecasting to plan promotions for overstocks or slow-moving products. As an example, you can imagine a retailer using demand forecasting to plan a clearance sale for overstocked products to minimize the risk of obsolescence and recover some of the costs associated with excess inventory.

Financial Planning and Budgeting

Financial planning and budgeting involve developing financial plans and budgets based on demand forecasts and other factors that impact supply chain operations. By analyzing production costs, inventory costs, and other operating costs, organizations can develop financial plans and budgets that are aligned with their organizational goals and objectives.

For example, a manufacturer might use demand forecasting to allocate resources for new product development based on the demand forecast, risk assessment, and production costs.

Best Practices in Demand Forecasting in Supply Chain Management

Now that we have explored the importance of sales forecasting in supply chain management and the modern technology that enables accurate forecasting, let’s dive into some practical tips and best practices to help your business achieve accurate and effective demand forecasting.

Data Collection and Preparation: Laying the Foundation for Accurate Forecasts

Collect as much data as possible: The more data you have, the more accurate your forecasts will be. Ensure that you collect data from multiple sources, such as customer feedback, historical sales data, and market research.

Clean and prepare the data: Ensure that the data you collect is accurate and relevant to your forecasting needs. Remove any outliers or irrelevant data points to ensure that your forecasts are based on relevant data.

Automate data collection: Automating data collection can help save time and reduce the risk of errors. Consider using technologies such as machine learning algorithms for synthetic data generation or automated data collection tools.

Choosing the Right Forecasting Technique: Making the Most Out of Novel Technologies

Evaluate different forecasting techniques: Different forecasting techniques work best for different types of data and applications. Evaluate different techniques, such as time-series analysis, machine learning algorithms, and predictive analytics, to determine which technique works best for your specific needs.

Leverage novel technologies: Emerging technologies such as real-time stream processing, big data analytics, and deep learning techniques are transforming demand forecasting. Leverage these technologies to improve the accuracy and speed of your forecasts.

Expert Opinion: Incorporating Human Insight into Demand Forecasting

Involve domain experts in the forecasting process: Domain experts such as sales representatives, marketing managers, and customer service representatives can provide valuable insights into customer behavior and market trends. Involve them in the forecasting process to improve the accuracy of your forecasts.

Use a collaborative approach: Encourage collaboration between different departments and stakeholders involved in the forecasting process. This can help ensure that the forecasting process is based on accurate data and insights from multiple sources.

Continuous Improvement and Monitoring: Adapting to Changing Conditions

Monitor your forecasts regularly: Regular monitoring of your forecasts can help identify any inaccuracies or errors in the forecasting process. Use real-time data to continuously update your forecasts and adjust them as necessary.

Use performance metrics: Use performance metrics such as forecast error, mean absolute percentage error (MAPE), forecast bias, or other much more advanced metrics to evaluate the accuracy of your forecasts. Use these metrics to continuously improve your forecasting process.

Collaborative Planning, Forecasting, and Replenishment (CPFR): Partnering for Mutual Benefit

Collaborate with suppliers and customers: Collaborative planning, forecasting, and replenishment (CPFR) involve partnering with suppliers and customers to develop more accurate forecasts and optimize the supply chain. By sharing data and insights with suppliers and customers, organizations can improve the accuracy of their forecasts and reduce operating costs.

Use technology to support collaboration: Use technologies such as cloud-based platforms, data analytics tools, and collaborative planning software to support collaboration between different stakeholders involved in the supply chain. These technologies can help ensure that the whole chain forecasting process is based on accurate data and insights from multiple sources.

Demand Forecasting Software for Logistics and Supply Chain Management

Demand forecasting software is an essential tool for logistics and supply chain management, providing an accurate forecast and timely predictions of future demand to optimize production schedules, minimize inventory costs, and improve customer service levels. While off-the-shelf demand forecasting software solutions are readily available on the market, these solutions may not always align with the specific needs of an organization’s business processes and operations. This is where custom development comes into play, providing a tailored solution that is specifically designed to meet the unique requirements of an organization. By leveraging custom development, organizations can incorporate their own data analysis methods and algorithms, and fine-tune the software to their specific business processes and operations, resulting in more accurate and effective demand forecasting.

Demand forecasting software solutions can vary greatly in terms of initial investment and ongoing monthly costs. While off-the-shelf solutions may be more affordable initially, they often come with ongoing monthly fees and may require additional customization to align with an organization’s specific needs. Custom development, on the other hand, requires a higher initial investment but may result in lower monthly costs and a solution that is specifically tailored to an organization’s unique business processes and operations.

That being said, there are several ready-to-use solutions available on the market that can provide effective demand forecasting capabilities. Some examples of these solutions include SAP Integrated Business Planning (enterprise), Netstock (small and mid-size businesses), and Solvoyo (mid-market). While these solutions may offer a more affordable (especially at the beginning) and easy-to-implement option, they may not always provide the flexibility and customization capabilities that organizations require. Therefore, it’s important for organizations to carefully evaluate their needs and weigh the benefits and drawbacks of off-the-shelf solutions versus custom development before making a decision.

The Impact of Emerging Technologies on Demand Forecasting

As we have seen, demand forecasting plays a critical role in supply chain management, helping organizations optimize their operations and improve customer service levels. The emergence of advanced technologies, such as machine learning, deep learning, and big data analytics, is transforming the way supply chain managers approach demand forecasting. These technologies are enabling organizations to predict demand more accurately, optimize production schedules, and reduce inventory costs.

However, implementing these technologies can be a complex process that requires expertise and experience. That’s where nexocode’s AI experts come in. Our team has extensive experience in implementing advanced AI solutions in logistics and supply chain management and can help organizations leverage emerging technologies to improve their demand forecasting capabilities.

Whether you’re looking to implement a custom demand forecasting solution, leverage off-the-shelf software, or explore emerging technologies such as machine learning or deep learning to create a more resilient supply chain, nexocode can help. Contact us today to learn more about how we can help your organization improve its demand forecasting capabilities and optimize its supply chain operations.

About the author

Dorota Owczarek

Dorota Owczarek

AI Product Lead & Design Thinking Facilitator

Linkedin profile Twitter

With over ten years of professional experience in designing and developing software, Dorota is quick to recognize the best ways to serve users and stakeholders by shaping strategies and ensuring their execution by working closely with engineering and design teams.
She acts as a Product Leader, covering the ongoing AI agile development processes and operationalizing AI throughout the business.

Would you like to discuss AI opportunities in your business?

Let us know and Dorota will arrange a call with our experts.

Dorota Owczarek
Dorota Owczarek
AI Product Lead

Thanks for the message!

We'll do our best to get back to you
as soon as possible.

This article is a part of

AI in Logistics
51 articles

AI in Logistics

Artificial Intelligence is becoming an essential element of Logistics and Supply Chain Management, where it offers many benefits to companies willing to adopt emerging technologies. AI can change how companies operate by providing applications that streamline planning, procurement, manufacturing, warehousing, distribution, transportation, and sales.

Follow our article series to find out the applications of AI in logistics and how this tech benefits the whole supply chain operations.

check it out


Insights on practical AI applications just one click away

Sign up for our newsletter and don't miss out on the latest insights, trends and innovations from this sector.


Thanks for joining the newsletter

Check your inbox for the confirmation email & enjoy the read!

This site uses cookies for analytical purposes.

Accept Privacy Policy

In the interests of your safety and to implement the principle of lawful, reliable and transparent processing of your personal data when using our services, we developed this document called the Privacy Policy. This document regulates the processing and protection of Users’ personal data in connection with their use of the Website and has been prepared by Nexocode.

To ensure the protection of Users' personal data, Nexocode applies appropriate organizational and technical solutions to prevent privacy breaches. Nexocode implements measures to ensure security at the level which ensures compliance with applicable Polish and European laws such as:

  1. Regulation (EU) 2016/679 of the European Parliament and of the Council of 27 April 2016 on the protection of natural persons with regard to the processing of personal data and on the free movement of such data, and repealing Directive 95/46/EC (General Data Protection Regulation) (published in the Official Journal of the European Union L 119, p 1); Act of 10 May 2018 on personal data protection (published in the Journal of Laws of 2018, item 1000);
  2. Act of 18 July 2002 on providing services by electronic means;
  3. Telecommunications Law of 16 July 2004.

The Website is secured by the SSL protocol, which provides secure data transmission on the Internet.

1. Definitions

  1. User – a person that uses the Website, i.e. a natural person with full legal capacity, a legal person, or an organizational unit which is not a legal person to which specific provisions grant legal capacity.
  2. Nexocode – NEXOCODE sp. z o.o. with its registered office in Kraków, ul. Wadowicka 7, 30-347 Kraków, entered into the Register of Entrepreneurs of the National Court Register kept by the District Court for Kraków-Śródmieście in Kraków, 11th Commercial Department of the National Court Register, under the KRS number: 0000686992, NIP: 6762533324.
  3. Website – website run by Nexocode, at the URL: whose content is available to authorized persons.
  4. Cookies – small files saved by the server on the User's computer, which the server can read when when the website is accessed from the computer.
  5. SSL protocol – a special standard for transmitting data on the Internet which unlike ordinary methods of data transmission encrypts data transmission.
  6. System log – the information that the User's computer transmits to the server which may contain various data (e.g. the user’s IP number), allowing to determine the approximate location where the connection came from.
  7. IP address – individual number which is usually assigned to every computer connected to the Internet. The IP number can be permanently associated with the computer (static) or assigned to a given connection (dynamic).
  8. GDPR – Regulation 2016/679 of the European Parliament and of the Council of 27 April 2016 on the protection of individuals regarding the processing of personal data and onthe free transmission of such data, repealing Directive 95/46 / EC (General Data Protection Regulation).
  9. Personal data – information about an identified or identifiable natural person ("data subject"). An identifiable natural person is a person who can be directly or indirectly identified, in particular on the basis of identifiers such as name, identification number, location data, online identifiers or one or more specific factors determining the physical, physiological, genetic, mental, economic, cultural or social identity of a natural person.
  10. Processing – any operations performed on personal data, such as collecting, recording, storing, developing, modifying, sharing, and deleting, especially when performed in IT systems.

2. Cookies

The Website is secured by the SSL protocol, which provides secure data transmission on the Internet. The Website, in accordance with art. 173 of the Telecommunications Act of 16 July 2004 of the Republic of Poland, uses Cookies, i.e. data, in particular text files, stored on the User's end device.
Cookies are used to:

  1. improve user experience and facilitate navigation on the site;
  2. help to identify returning Users who access the website using the device on which Cookies were saved;
  3. creating statistics which help to understand how the Users use websites, which allows to improve their structure and content;
  4. adjusting the content of the Website pages to specific User’s preferences and optimizing the websites website experience to the each User's individual needs.

Cookies usually contain the name of the website from which they originate, their storage time on the end device and a unique number. On our Website, we use the following types of Cookies:

  • "Session" – cookie files stored on the User's end device until the Uses logs out, leaves the website or turns off the web browser;
  • "Persistent" – cookie files stored on the User's end device for the time specified in the Cookie file parameters or until they are deleted by the User;
  • "Performance" – cookies used specifically for gathering data on how visitors use a website to measure the performance of a website;
  • "Strictly necessary" – essential for browsing the website and using its features, such as accessing secure areas of the site;
  • "Functional" – cookies enabling remembering the settings selected by the User and personalizing the User interface;
  • "First-party" – cookies stored by the Website;
  • "Third-party" – cookies derived from a website other than the Website;
  • "Facebook cookies" – You should read Facebook cookies policy:
  • "Other Google cookies" – Refer to Google cookie policy:

3. How System Logs work on the Website

User's activity on the Website, including the User’s Personal Data, is recorded in System Logs. The information collected in the Logs is processed primarily for purposes related to the provision of services, i.e. for the purposes of:

  • analytics – to improve the quality of services provided by us as part of the Website and adapt its functionalities to the needs of the Users. The legal basis for processing in this case is the legitimate interest of Nexocode consisting in analyzing Users' activities and their preferences;
  • fraud detection, identification and countering threats to stability and correct operation of the Website.

4. Cookie mechanism on the Website

Our site uses basic cookies that facilitate the use of its resources. Cookies contain useful information and are stored on the User's computer – our server can read them when connecting to this computer again. Most web browsers allow cookies to be stored on the User's end device by default. Each User can change their Cookie settings in the web browser settings menu: Google ChromeOpen the menu (click the three-dot icon in the upper right corner), Settings > Advanced. In the "Privacy and security" section, click the Content Settings button. In the "Cookies and site date" section you can change the following Cookie settings:

  • Deleting cookies,
  • Blocking cookies by default,
  • Default permission for cookies,
  • Saving Cookies and website data by default and clearing them when the browser is closed,
  • Specifying exceptions for Cookies for specific websites or domains

Internet Explorer 6.0 and 7.0
From the browser menu (upper right corner): Tools > Internet Options > Privacy, click the Sites button. Use the slider to set the desired level, confirm the change with the OK button.

Mozilla Firefox
browser menu: Tools > Options > Privacy and security. Activate the “Custom” field. From there, you can check a relevant field to decide whether or not to accept cookies.

Open the browser’s settings menu: Go to the Advanced section > Site Settings > Cookies and site data. From there, adjust the setting: Allow sites to save and read cookie data

In the Safari drop-down menu, select Preferences and click the Security icon.From there, select the desired security level in the "Accept cookies" area.

Disabling Cookies in your browser does not deprive you of access to the resources of the Website. Web browsers, by default, allow storing Cookies on the User's end device. Website Users can freely adjust cookie settings. The web browser allows you to delete cookies. It is also possible to automatically block cookies. Detailed information on this subject is provided in the help or documentation of the specific web browser used by the User. The User can decide not to receive Cookies by changing browser settings. However, disabling Cookies necessary for authentication, security or remembering User preferences may impact user experience, or even make the Website unusable.

5. Additional information

External links may be placed on the Website enabling Users to directly reach other website. Also, while using the Website, cookies may also be placed on the User’s device from other entities, in particular from third parties such as Google, in order to enable the use the functionalities of the Website integrated with these third parties. Each of such providers sets out the rules for the use of cookies in their privacy policy, so for security reasons we recommend that you read the privacy policy document before using these pages. We reserve the right to change this privacy policy at any time by publishing an updated version on our Website. After making the change, the privacy policy will be published on the page with a new date. For more information on the conditions of providing services, in particular the rules of using the Website, contracting, as well as the conditions of accessing content and using the Website, please refer to the the Website’s Terms and Conditions.

Nexocode Team