Fortuna precise lead frame maker for integrated circuit lead frames

The metal stamping industry is poised for significant growth and evolution in 2024. As technology advances and market demands shift, the need for reliable manufacturers has never been greater. Finding the right partner can make or break your business, ensuring quality products and timely delivery. In this guide, we’ll explore the latest trends in metal stamping, key factors to consider when choosing a manufacturer, and steps to identify and evaluate potential partners. Visit www.dgmetalstamping.com for more expert insights.Metal Stamping Trends In 2024Staying informed about the latest trends in the metal stamping industry is crucial for making strategic decisions and selecting a manufacturer that is ahead of the curve.Technological AdvancementsThe metal stamping industry is undergoing a technological revolution. Advanced machinery and automation are setting new standards for precision and efficiency. For instance, Industry 4.0 technologies like IoT and AI are enabling real-time monitoring and predictive maintenance, reducing downtime and enhancing productivity. These innovations are not just about speed; they also improve accuracy and consistency, crucial for high-quality outputs.Adopting these advanced technologies offers several benefits. Manufacturers can achieve tighter tolerances, reduce waste, and streamline operations. This not only boosts efficiency but also translates to cost savings, making it a win-win for both manufacturers and clients. Staying updated with these technological trends is essential for anyone looking to partner with a forward-thinking metal stamping manufacturer.Sustainable PracticesSustainability is no longer a buzzword but a necessity in modern manufacturing. The metal stamping industry is increasingly embracing eco-friendly practices to minimize environmental impact. From using recycled materials to implementing energy-efficient processes, manufacturers are making strides towards greener operations.Examples of sustainable practices include the use of renewable energy sources, waste reduction techniques, and eco-friendly coatings. These initiatives not only help protect the environment but also enhance a company's reputation. When choosing a manufacturer, it's crucial to consider their commitment to sustainability, as it reflects their responsibility and forward-thinking approach.Market Demands and ShiftsThe market for metal stamping is evolving, driven by changes in consumer preferences and industrial needs. There's a growing demand for lightweight and durable components in sectors like automotive, aerospace, and electronics. This shift is pushing manufacturers to innovate and adapt their processes to meet these new requirements.Understanding these market demands helps in selecting a manufacturer that is not only capable but also proactive in addressing industry trends. A manufacturer who stays ahead of the curve will ensure your products meet current and future market expectations, giving you a competitive edge.Key Factors To Consider When Choosing A Metal Stamping ManufacturerSelecting the ideal manufacturer involves evaluating various critical aspects to ensure they align with your project requirements and quality standards.Experience and ExpertiseExperience is a critical factor in selecting a metal stamping manufacturer. An experienced manufacturer brings a wealth of knowledge and a proven track record of delivering high-quality products. Evaluate their expertise by looking at their portfolio, client testimonials, and industry reputation. Longevity in the industry often indicates reliability and stability, which are essential for long-term partnerships.Quality AssuranceQuality assurance is non-negotiable when it comes to metal stamping. Look for manufacturers with stringent quality control processes and relevant certifications, such as ISO 9001. These standards ensure that the manufacturer adheres to high-quality benchmarks, providing you with consistent and reliable products. Understanding their quality assurance processes can give you confidence in their ability to meet your standards.Production CapabilitiesAssessing a manufacturer’s production capabilities is crucial. This includes their capacity to handle your volume requirements, scalability for future growth, and flexibility to accommodate custom needs. A manufacturer with diverse production capabilities can better adapt to your specific requirements, ensuring timely delivery and consistent quality.Technological ProficiencyIn today’s fast-paced world, technological proficiency is essential. Manufacturers equipped with the latest technology can offer superior precision, efficiency, and innovation. Look for those who invest in modern equipment and software, as this reflects their commitment to staying competitive and delivering top-notch products.Customer Service and SupportGood customer service can significantly enhance your experience with a manufacturer. Evaluate their responsiveness, willingness to communicate, and support throughout the production process. A manufacturer who values customer relationships will go the extra mile to ensure your satisfaction, making the collaboration smoother and more productive.Cost and ValueWhile cost is a critical factor, it’s essential to balance it with value. The cheapest option isn’t always the best, as it may compromise quality and reliability. Assess the overall value by considering factors like quality, service, and long-term benefits. A manufacturer offering a fair price for excellent value is a better choice for sustainable growth.Steps To Identify And Evaluate Potential ManufacturersChoosing the right manufacturer involves a systematic approach to research, evaluation, and validation to ensure they meet your specific needs and standards.Research and ShortlistingStart by conducting thorough research on potential manufacturers. Use industry directories, online reviews, and professional networks to gather information. Create a shortlist based on criteria such as experience, capabilities, and reputation. This initial step is crucial for narrowing down your options to the most promising candidates.Request for Proposals (RFPs)Issuing a Request for Proposal (RFP) is a critical step in the selection process. An RFP allows you to outline your requirements and evaluate how each manufacturer can meet them. Key components of an effective RFP include project specifications, timelines, quality standards, and budget. This helps in obtaining detailed proposals that facilitate informed decision-making.Site Visits and AuditsVisiting the manufacturing site provides firsthand insight into their operations. During the visit, observe their facilities, equipment, and quality control processes. This on-site evaluation helps verify their capabilities and commitment to quality. It also offers an opportunity to discuss your project in detail and assess their responsiveness and professionalism.References and ReviewsGathering references and reviews from past clients is essential. This feedback provides valuable insights into the manufacturer’s reliability, quality, and customer service. Look for consistent positive feedback and address any concerns that arise. This step helps build confidence in your choice and ensures you partner with a reputable manufacturer.Sample and Prototype EvaluationRequesting samples or prototypes allows you to assess the quality and precision of the manufacturer’s work. Evaluate these samples against your standards to ensure they meet your requirements. This step is crucial for verifying their capabilities and establishing trust before committing to a full-scale partnership.Building A Strong Partnership With Your Chosen ManufacturerSecuring a reliable manufacturer is just the beginning; fostering a robust partnership ensures continued success and mutual growth.Communication and TransparencyEffective communication and transparency are the cornerstones of a successful partnership. Establish clear communication channels and ensure regular updates on project progress. Transparency in operations and decision-making fosters trust and collaboration, leading to a more productive relationship.Continuous Improvement and FeedbackA good manufacturer is committed to continuous improvement. Encourage a culture of feedback where both parties can share insights and suggestions. This collaborative approach helps identify areas for enhancement and drives mutual growth. Regular performance reviews and feedback sessions can significantly improve the quality and efficiency of your projects.Long-term CollaborationBuilding a long-term relationship with your manufacturer offers numerous benefits. It fosters a deeper understanding of your needs, leading to better customization and innovation. Strategies for maintaining a strong partnership include regular check-ins, joint problem-solving, and celebrating successes together. A long-term collaboration ensures stability and continuous improvement, contributing to sustained success.ConclusionIn 2024, the metal stamping industry is set to experience significant advancements and shifts. Finding a reliable manufacturer is essential to navigate these changes successfully. By understanding the latest trends, considering key factors such as experience, quality assurance, and technological proficiency, and following a structured evaluation process, you can make an informed decision. Building a strong partnership with your chosen manufacturer ensures long-term benefits and continuous improvement.For expert insights and to find a reliable metal stamping partner, visit www.dgmetalstamping.com.

CNC machining is a cornerstone of modern manufacturing, known for its precision and versatility. Whether you're crafting intricate aerospace components or robust automotive parts, the design phase is critical. Getting it right can mean the difference between a smooth, efficient production run and costly, time-consuming errors.In this guide, we'll explore essential tips and best practices for designing parts specifically for CNC machining. From selecting the right materials and understanding tolerances to optimizing tooling and prototyping, we'll cover all aspects to help you create high-quality, cost-effective CNC machined parts. Whether you're a seasoned engineer or just starting, these insights will streamline your design process and enhance the performance of your machined parts. Let's dive in and unlock the full potential of CNC machining for your projects.Key Design Considerations For CNC MachiningDesigning parts for CNC machining involves several crucial considerations. Focusing on these areas can help you create parts that are easier to manufacture, perform better, and are more cost-effective.Material SelectionSelecting the right material is crucial for CNC machining. Metals like aluminum, steel, and titanium are popular due to their strength and machinability. Plastics such as ABS and polycarbonate are also commonly used for their ease of machining and lightweight properties. Composites can offer unique advantages but might require special considerations due to their structure.Material properties like hardness, tensile strength, and thermal stability affect how they can be machined. For instance, harder materials may require slower machining speeds and more robust tooling, while softer materials can be machined more quickly but might necessitate careful handling to avoid deformation.Tolerances and PrecisionTolerances define the allowable deviation from the design dimensions. In CNC machining, tight tolerances ensure high precision and part functionality. However, achieving extremely tight tolerances can increase machining time and cost. It's essential to balance the need for precision with practical machining capabilities.Understanding the limits of your CNC machine and tooling will help you set realistic tolerances. Collaborate with your machinist to determine achievable tolerances that meet the part's functional requirements without overburdening the manufacturing process.Part Complexity and GeometriesComplex designs can significantly impact CNC machining time and cost. Simplifying part geometries where possible can lead to more efficient machining. However, complex parts are often necessary, especially in high-tech applications.For complex parts, consider using multi-axis CNC machines that can handle intricate shapes and features. Designing with these capabilities in mind can lead to more efficient and cost-effective manufacturing.Design Features To Optimize For CNC MachiningIncorporating specific design features can significantly improve the efficiency and quality of CNC machined parts. Paying attention to these details can enhance the machining process and result in superior products.Hole and Slot DesignHoles and slots are common features in CNC machined parts. Optimal hole sizes and depths vary depending on the material and intended function. Generally, avoiding extremely deep or very small holes can prevent issues during machining.When designing slots, consider the width, depth, and spacing. Properly designed slots can enhance the part's functionality and make machining more straightforward. Avoiding overly narrow or deep slots can reduce the risk of tool breakage and ensure smooth machining.Wall Thickness and FilletsWall thickness is critical for both strength and machinability. Thin walls can lead to part deformation, while overly thick walls might be unnecessary and increase material costs. Aim for a balanced wall thickness that maintains strength without compromising machinability.Fillets, or rounded internal corners, are also vital. They reduce stress concentrations and enhance the lifespan of cutting tools. Incorporating fillets into your design can lead to more durable parts and smoother machining processes.Threaded FeaturesThreads are essential for assembly in many CNC machined parts. Designing internal and external threads requires attention to detail to ensure compatibility and durability. Standard thread sizes and pitches can simplify machining and reduce costs.When designing threads, consider the depth and pitch carefully. Deep threads may require specialized tooling, while very fine threads can be challenging to machine accurately. Consulting threading standards and working closely with your machinist can ensure optimal results.Tooling Considerations In CNC MachiningChoosing the right tools and understanding their impact on the machining process is vital for achieving precision and efficiency in CNC machining. Here are key factors to consider when selecting and maintaining tools for optimal performance.Tool SelectionThe choice of tools significantly impacts the CNC machining process. End mills, drills, taps, and other cutting tools come in various shapes and sizes, each suited for specific tasks. Selecting the right tool for the material and design is crucial for achieving the desired finish and accuracy.Different materials may require different tool materials and coatings. For example, carbide tools are excellent for cutting hard metals, while high-speed steel tools might be suitable for softer materials. Matching the tool to the material and the specific machining task can enhance efficiency and part quality.Tool Path OptimizationTool path planning is essential for reducing machining time and improving efficiency. Effective tool path strategies like climb milling, where the cutting tool rotates in the same direction as the material is fed, can reduce tool wear and improve surface finish.Trochoidal milling, a technique that uses circular tool paths, can also be beneficial for removing material efficiently. By optimizing tool paths, you can reduce machining time, minimize tool wear, and achieve better part quality.Tool Wear and MaintenanceTool wear is a significant factor in CNC machining. Worn tools can lead to poor surface finishes, dimensional inaccuracies, and increased machining time. Regular monitoring and maintenance of tools are essential to ensure consistent part quality.Implementing a proactive tool maintenance schedule can extend tool life and reduce downtime. Using high-quality tools and proper cutting parameters can also mitigate wear, ensuring that your machining operations run smoothly and efficiently.Prototyping And Testing CNC DesignsPrototyping and testing are essential steps in refining your CNC machined parts. They help ensure that your designs are practical, functional, and ready for full-scale production.Rapid Prototyping TechniquesPrototyping is a critical step in the CNC machining design process. Rapid prototyping techniques like 3D printing, soft tooling, and CNC prototypes allow you to validate designs and identify potential issues before full-scale production.Prototyping helps you catch design flaws early, saving time and money. It also provides an opportunity to test the functionality and aesthetics of your design, ensuring it meets all requirements before committing to production.Testing for Functionality and DurabilityTesting CNC machined parts for functionality and durability is essential to ensure they perform as intended. Stress testing, dimensional analysis, and other evaluation methods can reveal weaknesses and areas for improvement.Iterating designs based on test results can lead to optimal performance and reliability. Continuous testing and refinement ensure that your parts meet the highest standards and are ready for real-world applications.Cost-Effective CNC Machining Design PracticesImplementing cost-effective design practices in CNC machining can significantly reduce production expenses and improve overall efficiency. These strategies will help you optimize your designs without compromising on quality.Design for Manufacturability (DFM)Design for Manufacturability (DFM) principles aim to simplify production and reduce costs. By considering the manufacturing process during the design phase, you can create parts that are easier and more economical to produce.● Minimize the Number of Setups: Reducing the number of setups required for machining a part can save time and money. Design your parts in a way that allows multiple features to be machined in a single setup. This approach minimizes the need for repositioning, which can introduce errors and increase machining time.● Standardize Features: Using standard hole sizes, thread pitches, and other features can reduce the need for custom tools and simplify the machining process. Standard features are easier to produce and often result in lower costs.● Simplify Geometries: Complex geometries can increase machining time and tool wear. Simplifying your part design where possible can lead to faster machining and lower costs. Avoid unnecessary intricacies that don’t add functional value to the part.● Choose Appropriate Tolerances: While tight tolerances may be necessary for certain features, applying them universally can increase costs. Apply tighter tolerances only where they are crucial to the part’s function. For non-critical areas, looser tolerances can suffice.Reducing Waste and Improving EfficiencyMinimizing material waste and optimizing machining efficiency are key to cost-effective CNC machining.● Nesting and Optimal Stock Sizes: Efficiently nesting parts on the raw material can reduce waste. By strategically arranging parts on the material sheet or bar, you can maximize the use of the material and reduce scrap. Additionally, selecting stock sizes that closely match the final dimensions of your part can minimize excess material removal.● Optimize Tool Changes: Frequent tool changes can add to machining time and costs. Grouping similar features and designing parts that require fewer tool changes can improve efficiency. This approach reduces downtime and increases the machine’s productive time.● Utilize Batch Processing: If you’re producing multiple identical or similar parts, batch processing can be highly efficient. Machining parts in batches allows for streamlined setups and continuous production, reducing the time spent on individual setups for each part.● Leverage Advanced Machining Techniques: Techniques such as high-speed machining and adaptive machining can enhance efficiency. High-speed machining allows for faster material removal rates, while adaptive machining adjusts cutting parameters in real time to optimize performance and reduce tool wear.Material UtilizationThe choice of material and how it is utilized can significantly impact the cost-effectiveness of CNC machining.● Select Cost-Effective Materials: While high-performance materials may be necessary for certain applications, selecting cost-effective alternatives can reduce costs without compromising quality. Consider the material’s machinability, availability, and overall cost when making your selection.● Reduce Material Removal: Designing parts with minimal material removal can save time and reduce costs. Features such as pockets and holes should be designed to require the least amount of material removal while still meeting functional requirements.● Recycling and Reusing Material: Implementing a recycling and reuse strategy for scrap materials can reduce costs. Recycling metal chips and reusing material where possible can lead to significant savings, especially in high-volume production.ConclusionIn summary, designing for CNC machining involves careful consideration of materials, tolerances, geometries, and tooling. By following best practices and incorporating specific design features, you can optimize the machining process and produce high-quality parts efficiently.At Dongguan Fortuna Metal Stamping, we specialize in providing precision CNC machining services that meet your exact specifications. Our team of experts is dedicated to helping you achieve superior results through innovative design and advanced machining techniques. Whether you need prototyping, production, or testing, we have the expertise and state-of-the-art equipment to bring your designs to life.Contact us today to learn more about how our CNC machining services can benefit your next project. Visit our website at Fortuna Metal Stamping for additional resources and to get in touch with our team for consultations and inquiries. Let us help you transform your ideas into reality with precision and efficiency.

Stamping terminals are essential components in various industries, known for their role in establishing secure and reliable electrical connections. These terminals, created through the stamping process, are used to connect wires and cables to electrical devices, ensuring a consistent flow of electricity. The importance of stamping terminals lies in their ability to maintain the integrity of electrical systems, preventing failures that could lead to costly downtimes or hazardous situations.Historically, stamping terminals have evolved from simple wire connectors to sophisticated components designed to meet the demanding requirements of modern technology. Their versatility and reliability make them indispensable in sectors ranging from automotive to telecommunications.The Stamping Terminal Manufacturing ProcessThe journey from raw materials to finished stamping terminals involves a series of precise and controlled steps to ensure high-quality, reliable components.Material SelectionChoosing the right materials sets the foundation for creating durable and efficient stamping terminals.Common Materials UsedThe manufacturing of stamping terminals begins with the careful selection of materials. Common materials include copper, brass, and stainless steel, chosen for their excellent electrical conductivity and corrosion resistance. Copper is often favored for its superior conductivity, while brass offers a good balance of conductivity and mechanical strength. Stainless steel is selected for applications requiring high durability and resistance to harsh environments.Factors Influencing Material ChoiceSeveral factors influence the choice of materials for stamping terminals. Electrical conductivity, mechanical strength, corrosion resistance, and cost are primary considerations. The specific requirements of the application, such as the environmental conditions and the electrical load, also play a crucial role in determining the appropriate material.Design and EngineeringInnovative design and meticulous engineering are the cornerstones of producing high-quality stamping terminals.CAD and PrototypingThe design and engineering phase involves the use of Computer-Aided Design (CAD) software to create detailed models of the stamping terminals. CAD allows engineers to visualize and refine the design, ensuring it meets all specifications. Prototyping follows, where physical models are produced and tested to validate the design. This iterative process ensures that the final product is both functional and manufacturable.Customization OptionsCustomization is a key advantage of modern stamping terminals. Manufacturers can tailor designs to meet specific customer requirements, such as unique shapes, sizes, and electrical characteristics. This flexibility allows for the creation of specialized terminals that optimize performance in their intended applications.Stamping TechniquesEmploying advanced stamping techniques is crucial for producing high-precision and reliable terminals efficiently.Progressive StampingProgressive stamping is a technique where a metal strip is fed through a series of stations, each performing a specific operation, such as cutting, bending, or forming. This method is highly efficient and suitable for high-volume production, producing consistent and high-quality terminals.Transfer StampingTransfer stamping involves moving individual parts from one station to another for various operations. While it is slower than progressive stamping, transfer stamping is ideal for producing complex parts that require multiple operations.Fine BlankingFine blanking is a precision stamping technique that produces parts with smooth edges and high dimensional accuracy. It is used for applications where the quality of the cut edge is critical, such as in high-performance electrical connectors.Quality Control MeasuresEnsuring the highest standards of quality is paramount in the stamping terminal manufacturing process.Inspection MethodsQuality control is an integral part of the stamping terminal manufacturing process. Inspection methods include visual checks, dimensional measurements, and electrical testing to ensure each terminal meets the required standards. Advanced techniques like automated optical inspection (AOI) can quickly and accurately detect defects.Testing ProceduresComprehensive testing procedures are employed to validate the performance of stamping terminals. These tests assess electrical conductivity, mechanical strength, and environmental resistance. Ensuring that terminals perform reliably under various conditions is crucial for maintaining the integrity of the electrical systems they support.Advantages Of Using Stamping TerminalsStamping terminals offer numerous advantages that enhance efficiency, reliability, and cost-effectiveness across various applications. These benefits make them a preferred choice in many industries.Faster Production TimesOne of the primary benefits of using stamping terminals is their ability to streamline production processes. The automated nature of stamping significantly reduces manufacturing time, enabling faster turnaround and higher output. This speed is crucial in industries where time-to-market is a competitive factor, allowing companies to meet tight deadlines and increase productivity.Reduced Labor CostsThe efficiency of the stamping process translates to reduced labor costs. Automation minimizes the need for manual intervention, lowering the number of workers required for production. This reduction in labor not only cuts costs but also minimizes the potential for human error, ensuring more consistent and reliable products.Consistent PerformanceReliability is a hallmark of stamping terminals. The precision of the stamping process ensures that each terminal is produced to exact specifications, resulting in consistent performance. This consistency is vital for maintaining the integrity of electrical systems, and reducing the risk of connection failures that could lead to operational disruptions or safety hazards.Longevity and DurabilityStamping terminals are designed for durability. Made from robust materials and subjected to rigorous quality control measures, these terminals can withstand harsh conditions and maintain their performance over time. Their longevity reduces the frequency of replacements and repairs, contributing to overall system reliability and cost savings.Material SavingsThe precision of the stamping process minimizes waste, optimizing the use of raw materials. This material efficiency not only reduces production costs but also supports sustainable manufacturing practices. By maximizing material utilization, manufacturers can offer high-quality terminals at competitive prices.Lower Maintenance CostsThe reliability and durability of stamping terminals lead to lower maintenance costs. With fewer failures and longer lifespans, these terminals require less frequent maintenance, reducing downtime and associated costs. This cost-effectiveness makes them an attractive option for applications where long-term performance and minimal maintenance are critical.Versatility in ApplicationsStamping terminals are extensively used in the automotive industry, where they provide secure connections in various systems, including sensors, connectors, and control units. Their reliability and durability make them ideal for automotive applications that demand high performance under challenging conditions.In the electronics and electrical industries, stamping terminals are integral to printed circuit boards (PCBs), battery contacts, and various connectors. Their ability to provide stable and reliable connections ensures the proper functioning of electronic devices and systems, from consumer electronics to industrial machinery.Applications Of Stamping Terminals In Various IndustriesStamping terminals are versatile components that find critical applications across a wide range of industries, each benefiting from their reliability and efficiency.Automotive IndustryThe automotive industry relies heavily on stamping terminals to ensure robust and reliable electrical connections in vehicles.Connectors and TerminalsIn the automotive industry, stamping terminals are used extensively in connectors and terminals. These components ensure secure connections in electrical systems, from engine control units to infotainment systems. Their reliability is crucial for the safety and performance of vehicles.Sensor ComponentsStamping terminals are also vital in sensor components, which monitor various parameters such as temperature, pressure, and speed. These sensors rely on accurate and reliable connections to transmit data, enabling efficient vehicle operation.Electronics IndustryThe electronics industry benefits greatly from the precision and reliability of stamping terminals, which are essential for the functionality of various electronic devices.Printed Circuit Boards (PCBs)In the electronics industry, stamping terminals are used in printed circuit boards (PCBs) to establish electrical connections between components. Their precision and reliability ensure the proper functioning of electronic devices, from smartphones to industrial equipment.Battery ContactsBattery contacts are another critical application of stamping terminals in the electronics industry. These terminals provide secure and reliable connections between batteries and devices, ensuring a stable power supply.TelecommunicationsIn the telecommunications industry, stamping terminals play a crucial role in maintaining signal integrity and ensuring reliable communication.Signal ConnectorsIn telecommunications, signal connectors rely on stamping terminals to maintain signal integrity. These terminals ensure clear and stable communication, supporting the performance of various telecom devices and systems.Antenna ComponentsAntenna components also utilize stamping terminals to ensure reliable connections. These terminals are critical for the performance of antennas, which are essential for wireless communication.Aerospace and DefenseThe aerospace and defense sectors depend on stamping terminals for their critical applications, where reliability and durability are paramount.AvionicsIn the aerospace and defense industries, stamping terminals are used in avionics to ensure reliable connections in aircraft systems. The high reliability of these terminals is crucial for the safety and performance of aircraft.Military EquipmentMilitary equipment also relies on stamping terminals for secure and reliable connections. These terminals are used in various applications, from communication systems to weaponry, ensuring the effectiveness of military operations.ConclusionStamping terminals are vital components across numerous industries, providing unmatched efficiency, reliability, and cost-effectiveness. From the automotive and electronics sectors to telecommunications and defense, these terminals ensure robust and secure electrical connections essential for modern technology.Understanding the manufacturing process—from material selection to advanced stamping techniques—highlights the precision and innovation that underpin the quality of stamping terminals. The numerous advantages, including enhanced efficiency, improved reliability, and versatility in applications, make them indispensable in today's industrial landscape.At Dongguan Fortuna Metal Stamping Company, we pride ourselves on delivering top-quality stamping terminals that meet the stringent demands of various industries. Our commitment to excellence, customization capabilities, and rigorous quality control ensure that our products stand out in performance and reliability. Explore our offerings and discover how our stamping terminals can enhance your projects and operations. Visit Dongguan Fortuna Metal Stamping Company to learn more.

In order to strengthen the communication between children and parents and promote the harmonious relationship between parents and children, Fortuna planned happy day trip parent-child activities for employees, and sent a warm care and blessing.On August 11, 2024, Fortuna officially kicked off the one-day parent-child activities for its employees. Meticulous arrangements were made from travel planning, various interesting visiting programs, parent-child interaction programs, diet planning, and event precautions, etc. to eliminate all possible problems for parent-child play and bring the experience of parent-child activities to the extreme. Let children and parents get along more closely and harmoniously.  Warm parent-child time  Warm parent-child time    Warm parent-child time  At the same time, the schedule of the day's activities is also extremely sophisticated, starting from the understanding of the cultural heritage of the play place, so that parents and children have a process of learning and communication.Then is the visit of the animal and plant museum, in an immersive way to let children feel the beauty of nature, science natural knowledge, experience zero contact with animals, feel the friendly relationship between humans and animals.Subsequently, it is the free activity time between parents, fun projects of parent-child collaboration, exciting ocean theater, local customs and customs dance appreciation, which invisibly enhance the relationship between parents, but also make up for the lack of care and companionship of parents because of busy work.                                                         Fortuna, out of the humanistic care for employees, organized a parent-child interaction and communication so that parents could have more opportunities to communicate with their children and listen to their children's aspirations and demands. At the same time, it also enables children to better appreciate the hard work of their parents and understand the situation of their parents, thus promoting the harmonious development of parent-child relationship. It also reflects that Fortuna is committed to seeking happiness for employees, giving them the best welfare treatment, and growing up and making progress together with employees.