アイ・ティー・エス・ジャパン Product Lineup

In the medical industry, precision molding is of utmost importance for product quality and safety. Particularly in the manufacturing of medical devices and instruments, accuracy of dimensions, uniformity of materials, and stability after molding are required. Molding defects can lead to product malfunction and pose risks to patients. The "Virtual Extrusion Lab Series" supports the resolution of extrusion molding challenges with easy operation. 【Usage Scenarios】 - Precision molding of medical tubes, catheters, syringes, etc. - Design and manufacturing of irregular extrusion products - Optimization of material selection and molding conditions 【Benefits of Implementation】 - Cost reduction through the reduction of molding defects - Early detection of issues during the design phase - Shortening of product development time - Stable supply of high-quality medical devices

In the aerospace industry, there is a demand for the advancement of extrusion molding technology to manufacture lightweight and high-strength components. It is particularly important to maximize the properties of materials and mold complex shapes with high precision. Molding defects can lead to a decline in product performance and safety issues. The "Virtual Extrusion Lab Series" addresses challenges in extrusion molding with easy operation and supports the production of high-quality products. 【Application Scenarios】 - Design and manufacturing of aircraft components - Development of components for space exploration vehicles - Optimization of molding processes for high-performance materials 【Benefits of Implementation】 - Reduction in the number of prototypes - Reduction in material costs - Shortening of molding time

In the packaging industry, ensuring product quality and safety is the top priority. Particularly in the packaging of food and pharmaceuticals, barrier properties significantly affect the product's lifespan and quality. Extrusion molding technology is essential for producing packaging materials with these barrier properties, but challenges such as molding defects and increased costs also exist. The Virtual Extrusion Lab series addresses these challenges by simulating the extrusion molding process with easy operation, supporting optimal design and stable molding. 【Usage Scenarios】 - Design of barrier films - Extrusion molding of multilayer films - Quality improvement of packaging materials 【Benefits of Implementation】 - Reduction of molding defects - Optimization of material costs - Shortening of product development time

In the design of home appliances, the appearance of a product greatly influences consumers' purchasing intentions. To increase design freedom, it is essential to accommodate various shapes in extrusion molding. However, complex shapes can increase the risk of molding defects, potentially leading to more prototypes and higher costs. The Virtual Extrusion Lab Series supports problem-solving during the design phase by simulating extrusion molding with easy operation. 【Usage Scenarios】 - Design consideration for home appliances - Shape verification before prototyping - Identification of molding defect areas 【Benefits of Implementation】 - Rapid response to design changes - Reduction of prototyping costs - Shortening of product development time

In the civil engineering industry, the durability of structures is a very important factor. The quality of materials, the accuracy of design, and the stability of the manufacturing process all influence long-term performance. Extruded products significantly contribute to this durability, but molding defects can compromise it. The "Virtual Extrusion Lab Series" allows for easy operation to simulate the extrusion molding process, enabling design optimization and early detection of molding defects. This supports the manufacturing of highly durable products. 【Usage Scenarios】 - Extrusion molding of components for civil structures - Simulation in material selection - Optimization of molding conditions 【Benefits of Implementation】 - Improved product durability - Cost reduction - Stabilization of quality

In the fiber industry, uniform extrusion molding that influences product quality is required. In particular, the uniformity of yarn thickness and strength is directly related to product performance, making it important to suppress the occurrence of molding defects. Uneven molding can lead to product defects and reduced yield. The "Virtual Extrusion Lab Series" simulates the extrusion molding process with easy operation, supporting optimal design and stable molding. 【Usage Scenarios】 - Consideration during the design phase of the extrusion molding process for fiber products - Improvement of product uniformity through optimization of molding conditions - Investigation and countermeasures for the causes of molding defects 【Effects of Implementation】 - Cost reduction through the reduction of molding defects - Improvement in product quality - Shortening of development time

In the chemical industry, the formulation process is a critical challenge regarding product quality and cost efficiency. In particular, formulation design in extrusion molding is a key factor that influences product performance, and even slight differences in formulation can lead to molding defects or reduced yield. The Virtual Extrusion Lab series addresses challenges in extrusion molding with easy operation and supports optimal formulation design. 【Use Cases】 - Formulation design in extrusion molding - Analysis of molding defects - Cost reduction 【Benefits of Implementation】 - Improved quality through optimal formulation design - Cost reduction by decreasing molding defects - Shortened development time through simulation

Nanovia Corporation develops and manufactures advanced material testing equipment designed for precise "surface property evaluation," "mechanical property analysis," and "wear and friction testing." With cutting-edge instruments such as "3D profilometers," "tribometers," "nanoindenters," and "scratch testers," we achieve high-precision measurements with high reproducibility even in demanding environments, from research and development to quality control. Trusted by global leaders in industries such as "aerospace," "automotive," "electronics," "medical devices," and "coatings," we provide high reliability and accuracy in the most critical situations.

In the semiconductor industry, thorough management of foreign matter contamination in the manufacturing process is required to improve product quality and yield. Especially in semiconductor devices that are becoming increasingly miniaturized, even tiny foreign particles can significantly degrade product performance. Nanovia's surface inspection technology documentation contributes to solving the challenges of foreign matter detection. 【Usage Scenarios】 - Foreign matter inspection on wafer surfaces - Foreign matter inspection on masks and reticles - Identification of sources of foreign matter in the manufacturing process 【Benefits of Implementation】 - Reduction of defective products due to foreign matter - Improvement of yield - Increased efficiency in quality control

In the automotive industry's paint inspection, the quality of the paint film greatly influences the value of the product. Not only is the beauty of the appearance important, but functionality such as weather resistance and abrasion resistance is also crucial. Defects in the paint can lead to a decline in product quality and potential complaints from customers. Nanovia's surface inspection technology documentation provides high-precision measurement data for paint quality control, contributing to quality improvement. 【Application Scenarios】 * Detection of scratches, foreign objects, and pinholes on painted surfaces * Measurement of paint film thickness, glossiness, and color * Evaluation of abrasion resistance, corrosion resistance, etc. 【Effects of Implementation】 * Reduction of rework costs through early detection of paint defects * Increased efficiency in quality control and improvement in quality * Enhanced customer satisfaction

In the electronics industry, accurate understanding of surface conditions during implementation evaluation is required to improve product reliability. In particular, fine scratches and the presence of foreign substances can lead to performance degradation or failure of the product. Nanovia's surface inspection technology documentation contributes to solving challenges in surface inspection during implementation evaluation. 【Usage Scenarios】 * Quality control of printed circuit boards * Confirmation of surface conditions after component mounting * Early detection of foreign substance contamination * Measurement of fine surface shapes 【Benefits of Implementation】 * Improved product reliability * Reduction of defective products * Increased efficiency in quality control * Enhanced inspection accuracy

In the pharmaceutical industry, it is essential to accurately analyze the fine structures and properties of surfaces in quality control of pharmaceuticals. In particular, the coating of tablets and the surface condition of containers significantly affect drug efficacy and stability, making surface analysis extremely important. Inadequate surface conditions can increase the risk of drug degradation and contamination. Nanovia's surface inspection technology documentation contributes to solving the challenges of surface analysis in the pharmaceutical industry. 【Application Scenarios】 - Quality evaluation of tablet coatings - Detection of foreign substances on container surfaces - Stability evaluation of pharmaceuticals - Surface wear and friction testing 【Effects of Implementation】 - Improvement of pharmaceutical quality - Increased product reliability - Enhanced efficiency in research and development - Improved accuracy in quality control

In the food industry, foreign object contamination is a serious issue that undermines corporate trust. Foreign object contamination not only poses health risks to consumers but can also significantly damage a company's brand image. Nanovia's surface inspection technology enables the early detection of foreign objects in the food manufacturing process, supporting the provision of safe food. 【Usage Scenarios】 * Foreign object contamination inspection on food production lines * Foreign object inspection of packaging materials * Quality control of raw materials 【Benefits of Implementation】 * Reduction of foreign object contamination risks * Improvement in product quality * Enhancement of corporate reliability

In the cosmetics industry, inspecting the surface condition of containers is crucial to ensure product quality. Particularly for cosmetic containers where aesthetic appeal is essential, issues such as scratches, foreign substances, and dimensional discrepancies can significantly diminish the product's value. Nanovia's surface inspection technology documentation provides high-precision inspection methods and specific case studies to address these challenges. 【Application Scenarios】 - Surface inspection of cosmetic containers - Detection of foreign substances and scratches - Dimensional measurement 【Benefits of Implementation】 - Reduction of defective products - Improvement of product quality - Increase in customer satisfaction

In the aerospace industry, safety and reliability are the top priorities, and quality control of components is extremely important. Surface defects and anomalies in mechanical properties can lead to serious accidents. Nanovia's surface inspection technology documentation addresses these challenges and contributes to the improvement of aerospace component quality by providing high-precision inspection data. 【Application Scenarios】 * Surface inspection of aircraft components * Quality control of spacecraft components * Evaluation of surface properties in material testing 【Effects of Implementation】 * Early detection of component defects to prevent accidents * Improved accuracy in quality control and enhanced reliability * Increased efficiency in material evaluation during research and development

In the medical device industry, it is essential to accurately assess the fine defects and characteristics of surfaces to ensure product safety and reliability. In quality control, strict management of surface conditions that influence product performance is required, along with efforts to optimize the manufacturing process. Nanovia's surface inspection technology documentation contributes to improving quality control by providing high-precision measurement data and analysis results to address these challenges. 【Usage Scenarios】 * Surface inspection of medical devices * Evaluation of surface characteristics in quality control * Material testing 【Effects of Implementation】 * Improvement in product quality * Reduction of defective products * Optimization of the manufacturing process

In the energy industry, corrosion of infrastructure such as plants and pipelines is a significant challenge. Corrosion can accelerate the deterioration of equipment and potentially compromise safety and efficiency. Early detection of corrosion and appropriate measures are essential. Nanovia's surface inspection technology documentation captures the early stages of corrosion, enabling accurate diagnosis. 【Application Scenarios】 * Corrosion inspection of turbine blades in power plants * Corrosion diagnosis of oil and gas pipelines * Corrosion assessment of piping in chemical plants 【Benefits of Implementation】 * Improved safety of equipment * Reduced maintenance costs * Increased operational efficiency of plants

In the printing industry, ink inspection significantly affects the quality of the final printed materials. Factors such as ink uniformity, adhesion, and abrasion resistance are crucial, and insufficient characteristics can lead to printing defects and a decrease in product value. Nanovia's surface inspection technology documentation provides high-precision measurement data to address these challenges and supports ink quality management. 【Application Scenarios】 * Evaluation of ink surface properties * Analysis of mechanical properties of printed materials * Ink wear and friction testing 【Benefits of Implementation】 * Improvement in print quality * Reduction of defective products * Cost savings

In the textile industry, accurate evaluation of the surface condition of fabrics and textile products is required to ensure product quality. In particular, surface characteristics such as friction, wear, and coating uniformity significantly affect the durability and functionality of the products. Inadequate surface conditions can lead to decreased product performance and complaints. Nanovia's surface inspection technology documentation provides high-precision measurement data to address these challenges. 【Application Scenarios】 - Surface evaluation of fabrics - Wear and friction testing of textile products - Quality control of coatings 【Benefits of Implementation】 - Improvement in product quality - Reduction of defective products - Increased customer satisfaction

In the packaging industry, seal inspection is crucial for maintaining product quality and ensuring safety. In particular, evaluating the airtightness and strength of packaging materials is essential for protecting contents, maintaining shelf life, and preventing foreign matter contamination. Improper seals can lead to product leaks or damage, resulting in customer complaints and product recalls. Nanovia's surface inspection technology documentation provides high-precision inspection data to address these challenges and contribute to the improvement of packaging material quality. 【Application Scenarios】 - Inspection of seal defects in packaging materials - Evaluation of packaging material strength - Reduction of foreign matter contamination risks 【Benefits of Implementation】 - Improvement of product quality - Increased customer satisfaction - Cost reduction

The double drive system, a feature of the Iplexa series, not only enhances high load performance but also improves the resolution of load and displacement sensors. Here, we will introduce a wide range of application examples, including not only those that leverage high load performance but also examples of minute load data obtained for the first time due to the measurement accuracy of the sensors. We will also present unique cases such as simultaneous measurement of complex permittivity (DEA) and dynamic mechanical analysis (DMA), as well as high-temperature measurements using a 1500°C temperature chamber, which we hope you will find useful.

In the automotive industry, vibration analysis is essential to balance vehicle safety and comfort. In particular, it is necessary to accurately understand the vibration characteristics of components such as tires and suspensions and to implement appropriate measures. Inadequate vibration countermeasures can lead to a deterioration in ride comfort and early degradation of components. Our DMA dynamic viscoelastic measurement device achieves high load performance and high-precision measurements through a double drive system, contributing to the vibration analysis of automotive parts. 【Application Scenarios】 - Prediction of tire rolling resistance - Fatigue testing of elastomers - Vibration analysis of composite materials 【Benefits of Implementation】 - Improved accuracy in evaluating component durability - Optimization of vehicle vibration countermeasures - Reduction in product development time

In the aerospace industry, the development of heat-resistant composite materials is essential for reducing the weight and enhancing the performance of aircraft. Accurately understanding the viscoelastic properties of these materials is crucial for improving design reliability and ensuring safety. In particular, understanding material behavior in high-temperature environments affects the durability and performance of aircraft. Our DMA dynamic viscoelastic measurement device, with its double drive system, achieves high load performance and high-precision measurements, supporting material development in the aerospace field. 【Application Scenarios】 * Viscoelastic measurement of composite materials at high temperatures * Evaluation of heat-resistant elastomers * Durability assessment of aircraft components 【Benefits of Implementation】 * Accurate understanding of high-temperature properties of materials * Improved design reliability * Enhanced safety and performance of aircraft

In the electronics industry, evaluating the properties of materials is crucial to ensure the long-term reliability of products. In particular, it is essential to accurately understand the behavior of materials under environmental conditions such as temperature changes and vibrations. Improper material selection or design can lead to product failures or performance degradation. Our DMA dynamic mechanical analysis equipment analyzes the viscoelastic properties of materials in detail, contributing to the improvement of product reliability. 【Application Scenarios】 - Material evaluation of electronic components - Reliability assessment of semiconductor packages - Vibration analysis of printed circuit boards 【Benefits of Implementation】 - Optimization of material selection during the product design phase - Improvement of product durability - Reduction of failure risks

In the packaging industry, selecting the appropriate shock-absorbing materials is essential to protect products from impacts during transportation. To prevent product damage and maintain customer satisfaction, it is necessary to accurately evaluate the performance of shock-absorbing materials. The DMA dynamic mechanical analysis device analyzes the viscoelastic properties of shock-absorbing materials in detail, supporting optimal material selection. 【Application Scenarios】 - Evaluation of shock-absorbing performance of cushioning materials, protective materials, etc. - Durability assessment against vibrations and shocks during product transportation - Material selection in the design and development of packaging materials 【Benefits of Implementation】 - Improved product protection performance through optimal selection of shock-absorbing materials - Reduced risk of product damage during transportation - Cost-effective packaging material design - Enhanced customer satisfaction

In the medical device industry, evaluating the biocompatibility of materials is essential to ensure the safety of biomaterials such as implants and artificial organs. It is particularly important to accurately understand the changes in the mechanical properties of materials in the in vivo environment. Inappropriate material selection can adversely affect patient health. Our DMA dynamic viscoelastic measurement device precisely measures the viscoelasticity of biomaterials and supports the evaluation of biocompatibility. [Application Scenarios] - Durability evaluation of implant materials - Flexibility evaluation of artificial blood vessels - Evaluation of drug release materials [Effects of Implementation] - Accurate understanding of the mechanical properties of biomaterials - Improved safety and reliability of products - Increased efficiency in research and development

In the sports equipment industry, the durability of products is highly valued. Especially for products exposed to impacts and friction, accurately understanding the viscoelastic properties of materials is essential for improving product quality. Inappropriate material selection or design can lead to early deterioration or damage of the product. Our DMA dynamic viscoelastic measurement device achieves high load performance and high-precision measurements through a double drive system, strongly supporting the durability evaluation of sports equipment. 【Usage Scenarios】 * Material evaluation of sports equipment such as rackets, balls, and shoes * Evaluation of shock absorption, abrasion resistance, and fatigue resistance * Optimization of material selection in product design 【Benefits of Implementation】 * Improved product durability * Reduced product development time * Enhanced efficiency in quality control

In the textile industry, evaluating flexibility, which affects product quality, is crucial. Different levels of flexibility are required depending on the application, especially for clothing and industrial materials. Proper assessment of flexibility is essential to ensure the durability, comfort, and functionality of products. Inadequate evaluation can lead to quality issues and customer complaints. Our DMA dynamic viscoelastic measurement device achieves high-precision measurements through a double drive system, allowing for accurate evaluation of the flexibility of textile products. 【Usage Scenarios】 * Evaluation of the texture of clothing * Durability assessment of industrial textiles * Development of new materials 【Benefits of Implementation】 * Improvement in product quality * Increased customer satisfaction * Reduction in development time

In the paint industry, the evaluation of adhesion, which affects the durability and performance of products, is crucial. Delamination and deterioration of the paint film can shorten the product's lifespan and undermine customer trust. The Iplexar series double drive system can accurately obtain the data necessary for evaluating the adhesion of paints, thanks to its high load performance and high-resolution sensors. This helps in optimizing paint formulations and manufacturing processes. 【Application Scenarios】 - Evaluation of paint adhesion - Paint film delamination testing - Evaluation of paint durability 【Benefits of Implementation】 - Improvement in paint quality - Enhancement of product reliability - Increase in customer satisfaction

In the adhesive industry, accurate evaluation of adhesive strength is essential to ensure product reliability. This is particularly important for adhesives exposed to temperature changes and stress, as understanding their dynamic properties is crucial. Improper selection or evaluation of adhesives can lead to deterioration or failure of product performance. Our DMA dynamic viscoelastic measurement device achieves high load performance and high-precision measurements through a double drive system, contributing to the strength evaluation of adhesives. 【Application Scenarios】 - Development of adhesive materials - Evaluation of adhesive strength - Durability assessment 【Benefits of Implementation】 - Improved accuracy in adhesive performance evaluation - Reduced product development time - Enhanced efficiency in quality control

In the food industry, the evaluation of texture, which influences product quality, is important. Understanding consumer preferences and obtaining objective data on texture is essential for better product development. However, traditional measurement methods have faced challenges regarding data reproducibility and measurement accuracy. Our DMA dynamic viscoelastic measurement device provides detailed data on food texture to support product development. [Usage Scenarios] - Evaluation of food texture - Measurement of texture changes due to cooking time [Benefits of Implementation] - Acquisition of objective data on texture - Improvement of quality in product development - Differentiation from competing products

In the cosmetics industry, the texture of products greatly influences consumers' purchasing intentions. Sensations such as skin feel, spreadability, and stickiness are extremely important for evaluating product quality. However, objectively assessing these sensations is challenging, and the current situation often relies on experience and subjectivity. Our DMA dynamic viscoelasticity measurement device quantifies the texture of cosmetics, enabling product development based on objective data. 【Application Scenarios】 - Evaluation of textures for creams, lotions, foundations, etc. - Measurement of texture changes due to new materials or ingredient formulations - Quality control of products 【Benefits of Implementation】 - Enables product development based on objective data - Reduces complaints related to texture - Improves product quality and differentiation - Shortens development time - Reduces costs

In the energy industry, the reliability of insulating materials such as wires and cables is crucial. The deterioration of insulating materials can lead to power supply interruptions or accidents. Dynamic viscoelastic measurements evaluate the behavior of these materials in response to temperature and frequency, aiding in long-term performance predictions. The Iplexar series double drive system enables measurements under low loads due to its high load performance and high-resolution sensors, providing more accurate data. 【Application Scenarios】 - Evaluation of wire insulation materials - Evaluation of polyurethane foam resins - High-temperature measurements of fiber-reinforced composites 【Benefits of Implementation】 - Improved accuracy in predicting the deterioration of insulating materials - Enhanced product reliability - Assurance of safety

In the automotive industry, weight reduction is an essential factor for improving fuel efficiency and performance. Vacuum forming technology contributes to the manufacturing of lightweight and high-strength components, but it also carries the risk of molding defects. Particularly in complex shapes and thin-walled molding, issues such as material sagging and uneven wall thickness become challenges. The vacuum forming simulation program T-SIM addresses these challenges and supports the production of high-quality lightweight components by deriving optimal molding conditions. 【Application Scenarios】 - Design and development of automotive parts - Prototyping of parts aimed at weight reduction - Reduction of molding defects - Optimization of material selection 【Benefits of Implementation】 - Early detection of issues during the design phase - Reduction in the number of prototypes - Optimization of material costs - Stable supply of high-quality lightweight components

In the medical device industry, precision molding prioritizes product quality and safety above all else. Particularly in the molding of medical device components with complex shapes and fine structures, it is essential to accurately predict material behavior and prevent molding defects before they occur. The vacuum molding simulation program T-SIM employs an integral viscoelastic model to accurately analyze sheet sag during drawdown and cooling after molding, thereby supporting the production of high-quality medical device components. 【Application Scenarios】 - Medical tubes - Implant components - Diagnostic containers 【Benefits of Implementation】 - Reduction of molding defects - Decrease in the number of prototypes - Improvement in product quality

In the food packaging industry, the airtightness of packaging materials is crucial for maintaining product quality. In particular, accurate analysis that does not overlook even slight abnormalities during the molding process is required to prevent the deterioration of contents and ensure consumer safety. The vacuum forming simulation program T-SIM supports the design of highly airtight packaging materials by accurately analyzing sheet sagging and the cooling process. 【Application Scenarios】 - Design of food packaging containers - Evaluation of packaging material airtightness - Reduction of foreign matter contamination risks 【Benefits of Implementation】 - Reduction of product waste due to sealing failures - Extension of shelf life - Increased reliability from customers

In the home appliance design industry, vacuum forming technology is essential for balancing product appearance and functionality. Particularly for products with complex shapes and high design quality, it is necessary to prevent molding defects and consistently produce high-quality products. Improper molding can damage the product's appearance and lead to a decrease in functionality. T-SIM automatically calculates the optimal initial sheet temperature settings to flexibly reproduce various vacuum forming processes and achieve a uniform thickness distribution. 【Usage Scenarios】 - Design consideration for home appliances - Prototyping through vacuum forming - Optimization of molding conditions - Mold design 【Benefits of Implementation】 - Realization of high-design products - Reduction of molding defects - Shortening of prototyping periods - Cost reduction

In the aerospace industry, lightweight and high-strength components are required. Vacuum forming is an effective method for manufacturing complex-shaped parts, but the strength is greatly influenced by the forming conditions, making pre-validation through simulation essential. In particular, accurately predicting temperature and stress application, and finding the optimal forming conditions, are crucial for enhancing the reliability of components. T-SIM supports the strength design of aerospace parts by employing an integral viscoelastic model and accurately analyzing sheet sag during drawdown and cooling after forming. 【Application Scenarios】 - Forming of aircraft interior components - Manufacturing of rocket parts - Design of drone exterior components 【Benefits of Implementation】 - Improved component strength by identifying optimal forming conditions - Cost reduction through a decrease in the number of prototypes - Shortened development time through quality prediction at the design stage

In the agricultural sector, the durability of agricultural machinery and materials significantly impacts product lifespan and costs. This is particularly true for products used in harsh environments, where material selection and molding methods are crucial. Inappropriate material selection or molding defects can lead to early deterioration or damage of products, potentially resulting in increased costs. The vacuum forming simulation program T-SIM simulates various molding conditions to support optimal design. 【Application Scenarios】 - Design of agricultural machinery parts - Molding of agricultural materials - Pre-simulation of durability tests 【Benefits of Implementation】 - Improved product durability - Optimization of material costs - Reduction in the number of prototypes

In the toy industry, ensuring product safety is the top priority. Especially for toys that children may put in their mouths, it is crucial to prevent breakage due to molding defects and exposure to harmful substances. The vacuum forming simulation program T-SIM flexibly reproduces various molding conditions and automatically calculates the optimal initial sheet temperature settings to achieve a uniform thickness distribution. 【Usage Scenarios】 - Safety evaluation of vacuum-formed toys - Improvement of product durability - Reduction of molding defect risks 【Benefits of Implementation】 - Enhanced product safety - Reduction in the number of prototypes - Cost savings

In the electronics industry, as products become smaller and more high-performance, heat dissipation measures have become an important issue. In the design of components for efficiently dissipating heat, vacuum forming technology is essential. However, difficulties in predicting sheet sag during molding and the cooling process can pose barriers to design. T-SIM adopts an integral viscoelastic model to address these challenges. 【Usage Scenarios】 - Electronic device enclosures - Heat dissipation components - Thermoplastic resin molding 【Benefits of Implementation】 - Automatic calculation of optimal initial sheet temperature settings - Uniform distribution of wall thickness - Reduction of the risk of molding defects

In the construction industry, insulation performance is a crucial factor that influences a building's energy efficiency and residential comfort. The manufacturing of insulation materials using vacuum forming technology requires uniform thickness and appropriate shapes. Sheet sagging and deformation during the cooling process can lead to a decrease in insulation performance. The vacuum forming simulation program T-SIM addresses these challenges by employing an integral viscoelastic model, accurately analyzing sheet sagging during drawdown and cooling after molding, thus supporting optimal insulation material design. 【Application Scenarios】 - Development of high-performance insulation building materials - Optimization of the manufacturing process for insulation materials through vacuum forming - Achieving uniform thickness distribution by automatically back-calculating the initial sheet temperature settings 【Benefits of Implementation】 - Improved insulation performance - Optimization of material costs - Reduced risk of molding defects

In the packaging industry, there is a demand for balancing product protection and cost reduction. In particular, it is important to eliminate waste in packaging materials and to create optimal designs. Inappropriate designs can lead to increased costs due to material waste and molding defects. The vacuum forming simulation program T-SIM simulates various molding conditions and supports optimal packaging design. 【Usage Scenarios】 - Cost reduction of packaging materials - Reduction of molding defects - Optimal thickness design 【Benefits of Implementation】 - Reduction in material costs - Improved yield - Shortened design period

In the container industry, molding technologies that can accommodate a variety of shapes and materials are in demand. Particularly for containers with high design quality or those that pursue functionality, it is crucial to accurately predict the behavior of the sheet during molding and to mold under optimal conditions. Improper molding can lead to a decline in container quality and a deterioration in yield. T-SIM adopts an integral viscoelastic model to accurately analyze sheet sag during drawdown and cooling after molding, enabling flexible reproduction of various vacuum forming processes. 【Application Scenarios】 - Food containers - Medical containers - Industrial containers 【Benefits of Implementation】 - Optimization of wall thickness distribution - Suppression of molding defects - Reduction of material costs

In the display industry, thinness is a crucial factor that influences product competitiveness. Vacuum forming technology is essential for the manufacturing of display components, but molding defects and uneven wall thickness can negatively impact product quality and performance. T-SIM provides an optimal solution for achieving both thinness and high-quality product manufacturing by employing an integrated viscoelastic model to accurately simulate sheet sag during drawdown and cooling after molding. 【Application Scenarios】 - Examination of optimal molding conditions in vacuum forming of display components - Improvement of product quality through uniform wall thickness distribution - Reduction of the risk of molding defects 【Benefits of Implementation】 - Cost reduction through a decrease in the number of prototypes - Shortening of product development timelines - Stable supply of high-quality display components