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How to Measure PET Bottle Wall Thickness in 3 Easy Steps – Using the ThicknessPen

Home Ensuring consistent wall thickness in PET bottles is essential for maintaining strength, quality, and packaging efficiency. With the ThicknessPen, a highly accurate and portable wall thickness meter, measuring has never been easier — or smarter. Step 1: Choose Your Measurement Mode The ThicknessPen wall thickness gauge offers two advanced, non-destructive testing methods: Magnetic Mode (with target ball) for high-precision, dual-sided measurement Capacitance Mode (touch-only) for quick, single-sided thickness checks without the need for a target This dual-mode capability makes it the most versatile PET bottle thickness tester in its class. Step 2: Measure Bottle Wall Thickness Accurately Simply place the digital thickness gauge on the desired area of the PET bottle or preform. In magnetic mode, align the sensor and ball. In capacitance mode, just tap and measure — ideal for fast production line checks or field work. Use it on curved surfaces, narrow necks, or even during wet conditions — the ThicknessPen adapts effortlessly. Step 3: Sync and Store Data Seamlessly Connect the ThicknessPen to your smartphone or tablet via Bluetooth. Using the dedicated app, you can view, store, and manage measurement data in real time — streamlining your QC process and audit readiness. Why Use the ThicknessPen for Wall Thickness Measurement? Compact, Bluetooth-enabled wall thickness meter App-based operation with real-time data access  Non-destructive testing for PET bottles, preforms & more Ideal for lab, shop floor & field testing Backed by patent-pending dual-mode technology Get your ThicknessPen digital wall thickness gauge at a special price – limited-time only! 🔗 Click here to Download Brochure 📞 Contact us to book a demo or place your order. ​  Wall Thickness Meter, Wall Thickness Gauge, PET Bottle Thickness Tester, Preform Thickness Tester, Material Thickness Gauge, Digital Thickness Gauge, Portable Wall Thickness Meter Let me know if you’d like a meta title and description or blog banner to go with it! For More in detail of Products Please Contact us at  [email protected] or Call us at +91 9326325135

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Air permeability characterization of glass fiber nonwoven fabric for liquid composite molding applications

Home Affordable price, good mechanical properties, and resistance against harsh environmental conditions render glass fibers attractive in technical textile applications. They are extensively consumed in protective clothing against flame and chemicals, filter media in severe circumstances, and reinforcement fiber in polymer composites. Among textile fabric manufacturing techniques; nonwoven fabrics eliminate yarn production and following conversion of yarn into fabrics processes that enhance the production speed and lower costs dramatically. Controlled placement of fibers enhances the isotropy of the nonwoven fabrics that cannot be achieved easily in woven and knitted fabrics. Nonwoven fabrics from randomly oriented short glass fibers are consumed in large quantities by liquid composite molding industry. Resin infusion performances of these fabrics in single- and multiple-layer form are largely dictated by their permeability in thickness direction. Completely wetted and void-free composite production depends on the accurate air permeability characterization of reinforcement fabric stacks. In this study, air permeability of single-, double-, and triple-layer randomly oriented glass fiber nonwoven fabrics were measured from both front and back faces of the fabric stack, along a pressure drop of 100 and 200 Pa, with test head areas of 20 and 30 cm2 . The results of this study will guide people working on liquid composite molding and its modeling. Materials vs Methods Emulsion bonded chopped strand mat provided by Şişecam Cam ElyafSanayi A.Ş. was used to characterize air permeability behavior of nonwoven fabric from glass fiber. Specification of the fabric is given in Table1.Because reinforcement fabrics are stacked to achieve target thickness during composite production; having a sound understanding about the influence of number of fabric layers on air permeability behavior is valuable. Therefore, we varied number of layers as single, two and three layers within the experimental plan of this study. Fabrics can display different air permeability response depending on the fabric face from which the flowing fluid strikes. Thus, another input variable of this study is testface of the fabric. Air permeability devices are marketed by different test head areas depending on the tightness of the test fabric and power of the device. We also varied test head area as 20 and 30 cm2 to reveal the effect of test head area on air permeability. Another input test parameter is the pressure drop of flowing fluid (air in our case) during test, and commonly used pressure drops are 100 and 200 Pa. We also tried to understand the effect of pressure drop on air permeability performance of nonwoven fabric from glass fiber. Experimental plan of this study is shown in Table 2. Five air permeability measurements from different surface spots were performed for each different combination of independent input parameters, thus in total 120 (5x3x2x2x2) air permeability measurements were completed in this study. Fabric unwinded from the roll was laid on the table. While top face of the fabric was assumed as front face, bottom face that is in contact with the table was assumed as back face of the fabric. In half set of the measurements the flowing air fluid hit the front face of the fabrics, while in other half set; it hit from the back face of the fabrics. Specimens with an area of 20×25 cm2 were cut from the fabric lying on the table. The specimens with different combination of number of layers were used for air permeability test on SDL ATLAS M021A according to ASTM D737-04. Air permeability unit was selected as cm3/cm2/s – the volume of air (in cm3) passing through per unit area (in cm2) of fabric per unit time (in a second). Results & Discussion Data analysis indicated that increasing number of fabric layers resulted in statistically significant decrease in air permeability (Figure 2). Each layer level showed statistically significant air permeability than the others (Table 3). Increasing number of layers from one to two layers lowered air permeability at 34 %, while increasing it from two to three layers lowered air permeability at 22%. Two- and three-layer fabric stacks exhibited less air permeability variation than single layer that was attributed to formation of more uniform air flow channels by closure of big and non-uniform pores in one layer by the adjacent layer. Note: Mean of each layer level is connected through blue line. The top and bottom of each green diamond represent the 95% confidence interval for each layer level. Comparison circles (given on the right column) for means those are significantly different either do not intersect, or intersect slightly. The effect of test fabric face on air permeability Results indicated that whether flowing fluid (air) strike on front or back face of fabric did not create a statistically significant change (p-value of 0,94) in air permeability, and this result is valid for all number of fabric layer levels (Figure 3, Table 4). This study reveals that during stacking of fabric layers before resin infusion, a specific preference for fabric face orientation does not create an advantage to speed up the permeation of resin through the thickness of the fabric stack. Note: If the comparison circles intersect by an angle of more than 90 degrees, or if they are nested (as shown in the figure), the means are not significantly different. The effect of test head area on air permeability Data analysis indicated there was no statistically significant difference between the air permeability test results of 20 cm2 test head area and that of 38 cm2 . Once steady flow state conditions were achieved at given pressure drop, same volume of air passing through per unit fabric area per unit time for both 20 and 38 cm2 test head areas(Figure 4 and Table 5). The effect of pressure drop on air permeability Air permeability tests performed across a pressure drop of 200 Pa resulted in higher air permeability than that of 100 Pa (Figure 5). One hundred percent increase in pressure drop resulted in 57% increase in air permeability (Table 6). Once the device is run, it tries to achieve a steady state air flow through the test area at given pressure

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Energy storage devices undergo endurance testing

Home Lithium-ion batteries play a central role in the efficient storage of electrical energy. Due to their high energy density at a relatively low weight, they have long been the battery of choice for stationary storage of renewable energies, but also in the area of automotive applications or electromobility. Due to their high storage capacity, they are used in ever increasing areas. But their high energy and power density means new potential hazards when operated outside their specifications. In addition, it is important to achieve the longest possible service life at consistently high capacity. Aging and performance tests on cells and modules for lithium batteries As a leading technical service company, TÜV SÜD subjects individual battery components to extreme endurance tests to determine the service life and performance of individual cells and modules for batteries under changing conditions. Cells and modules for lithium-ion batteries are tested for automotive applications or for the consumer sector. The temperature resistance of the cells and modules is tested and endurance analyses are carried out in various temperature ranges in environmental simulation chambers or cooling incubators from BINDER. The endurance tests are used to characterize the cyclic and chronological aging of components, as well as their aging under varying environmental conditions. A target value between 70% and 80% of the service capacity is often used. De-energized components are exposed to varying temperatures to test their service life (standard safety package A), which simulates cyclical and chronological aging. The unit is equipped with a second fixed independent adjustable temperature safety device, which turns the test chamber off when it reaches the factory preset temperature of 120 °C in order to protect it against excessive heating. The controller, which is limited to a temperature of 120 °C, supports this safety measure. Alternating temperature testing with pulsating current Extensive performance tests are carried out in order to determine the performance of the cells and modules (safety package P). The components are therefore brought to the limits of their performance and load capacities by exposing them to constantly changing temperatures, with and without a current. The test object is exposed, for example, to temperatures of -10 °C to 55 °C in the cooling incubator under continuous temperature changes. Test scenarios are also carried out in the environmental simulation chamber in climatic ranges of -30 °C to 60 °C at up to 96% RH. The duration of the tests varies. Some tests last several months with extreme demands on the material. Other tests require years with lower demands. Special coating and heated pressure relief valve: Customization of environmental simulation chambers and cooling incubators For the test runs, it is important that the test object is stored on an electrically non-conductive surface. For this reason, the stainless-steel racks have been specially coated to prevent transmission of an electrical charge. Access ports with silicone plugs have been specially installed on the walls of the units to ensure safe and simple cable feed through. In addition, special precautions are required. Due to the aging and other electrical characterization tests with cells and modules, in a worst-case scenario it is possible for gas to form in the test chamber as a result of irreversible reactions of cell components. For this reason, additional equipment has been installed on the side of the housings to feed through protective chains to prevent doors from blasting off in the event of an unforeseen explosion. To divert the gas or related pressure if necessary, pressure relief valves have been installed in the chambers. These are also heated to prevent the formation of condensate and possible icing. Width instead of depth and extreme unit reliability Lisa Döbler and Johannes Rößner, both test engineers at TÜV Süd Battery Testing GmbH, explain why they have opted for BINDER units: “To perform the experiments, constant environmental conditions in the test area are very important. The climate chambers from BINDER are known for their high reliability,” explains Lisa Döbler about the demands on the test equipment. Both engineers also appreciate that the unit chambers are customizable. “The most compelling feature for us, however, is the ability to customize the units. We have been able to tailor the climate chambers to our specific needs,” continues Johannes Rößner. Tasks and objectives • Aging and performance tests on cells and modules for lithium-ion batteries • Constant environmental conditions in the test room • Special protective measures due to the risk of irreversible reactions • Non-conductive racks for alternating temperature tests with pulsating current BINDER solutions • BINDER environmental simulation chamber from the MKF series for complex dynamic climate profiles with vapor pressure humidification and drift-free capacitive humidity sensor for very accurate test results • BINDER cooling incubator from the KB series with forced convection • APT.line climate technology for homogeneous climate conditions throughout test objects • Special coating on the racks • Heated pressure relief valves • Protective chains in the event of explosion Advantages • Technology offering maximum reliability • User-friendly chamber interior • Comprehensive standard equipment • “Made in Germany” quality Areas of application • Plastics industry • Automotive • Electronics / Semiconductor Industry Article Source: https://www.dksh.com/ For More in detail of Products Please Contact us at  [email protected] or Call us at +91 9326325135

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Three Fogging Test Methods for Automotive’s Interior Decoration

Home Overview Through fogging test to materials of auto’s inner decoration, volatile substances of those materials can be controlled so as to effectively lower the environmental contamination inside cars. Therefore, fogging test has become an important means for automotive manufacturers as well as auto’s inner decoration manufacturers to control product quality. At present, relevant domestic and international fogging test standards for auto’s inner decoration altogether involve three kinds of test methods: the reflectometric method, the gravimetric method and the haze method. These standards and their relevant testing methods are as follows: Standards Issue time Test methods Note DIN 75201 1992 Reflectometric method, gravimetric method   SAE J1756 1994 Reflectometric method, gravimetric method   ISO 6452 2000 Reflectometric method, gravimetric method   QB/T 2728 2005 Reflectometric method, gravimetric method   NES M0161   Haze method   ES-X83231   Haze method, gravimetric method   Fogging Device The figure below is the structural representation of fogging device in fogging test. A sample is placed under specimen presser at the bottom of a glass beaker, which is immersed in a constant temperature oil bath. The beaker is covered with oil and higher temperature resistant fluorine seal ring, with fogging carrier (position G), filter paper, cooling plate placed above sequentially. The substances emitted from the leather sample under heat condense on the cooling plate. Except for position G, test equipments for these three methods are the same. For reflectometric and hazing method, the G part is a fogging glass plate. Test results are obtained through measuring the opaqueness or fogging value of the glass plate before and after test. In Gravimetric method, position G is an aluminum foil with a little bigger circular glass plate 3 mm in thickness placed above. Test results of this method are obtained through measuring the quantity of condensate that formed on a cold surface. Environmental Requirements So long as constant high temperature bath and cooling plate can work under required temperature, fogging process of the test does not require high on external environment. Environment has no effects on it fundamentally. However, fogging carriers, such as aluminum foil or glass plate, have strict requirements on environment and even the slightest change will produce great influence. In Almost all standards, fog-formed glass plate is required to be placed under a temperature of 23oC ± 2oC and conditioned under the humidity of 50% ± 5%RH in a windless and sunless environment. Fogging carrier has some condensed water inevitably. Environmental temperature and humidity, which are difficult to be controlled efficiently, are of vital importance to water evaporation. The uncertainty of environmental control will directly affect accuracy of final testing results. In standards DIN 75201, ISO 6452 and QB/T 2728, it is specified that fog-formed aluminum foil should be conditioned in desiccators. In this case, users only need to take environmental temperature into condensation and need not consider humidity and gas flow any more. Consequently, conditioning environment of fog-formed aluminum foil is more easily controlled. Test Results Calibration Since fogging test is complex in operation procedures and is easily subject to environment variation, the three standards, DIN 75201, ISO 6452 and QB/T 2728, provide the same calibration method to evaluate the correctness of final test results. For reflectometric method, 10 ± 0.1g DIDP are put into the beaker that is immersed in 100oC constant temperature bath; the cool plate is 21oC; and the final result should be within 77 ± 3%. Otherwise, the test is regarded as unsuccessful. Users should find out the reason and re-test. In gravimetric method, 10 ± 0.1g DOP are put into the beaker that is immersed in 100oC constant temperature bath; the cool plate is 21oC, and the final results should be within 4.9 ± 0.25mg. Otherwise the test is regarded as unsuccessful. Users should Find out the reason and retest. For haze method, no calibration method has been provided in the above-mentioned standards. Comparison of the Three Methods The table below is a comparison of the items of the three methods Fogging test method Reflectometric method Gravimetric method Haze method Notes Devices to be cleaned Beaker, specimen presser, seal ring, glass plate Beaker, specimen presser, seal ring, Beaker, specimen presser, seal ring, glass plate   Fogging carrier Glass plate Aluminum foil Glass plate   Environmental requirements Temperature 23oC±2oC, humidity 50%±5%RH Temperature 23oC±2oC Temperature 23oC±2oC, humidity 50%±5%RH   Calibration agent DIDP DOP No agent   Calibration period 4 hours 20 hours 5hours   Success rate of test About 75% About 97%     With its statistics and analysis to 19 reflectometric method tests, 32 gravimetric tests and 9 hazing tests, Fogging Tester has obtained the value of success rate of this table. Success rate for reflectometric method is usually within 69%~74%, a little lower to the calibration range. For the same instruments using the same operating method in the same external environment, almost all the test using gravimetric method are successful, which completely indicates the better operability of gravimetric method. Conclusions The reflectometric method and hazing method are similar to each other and both are used to test optical property of glass plate. These two methods are adopted when users attach great importance to the impairing visibility caused by volatile substance from auto’s inner decoration condensed on windscreen. While in adopting gravimetric method, users pay more attention to the influence of hazardous volatile substances on human health. Article Source: https://en.labthink.com/

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5 Benefits of Friction Testers for Paper and Packaging Manufacturers

Home During our daily sales, when our sales managers introduce our products, they are asked from the people “why would I want to measure ___”. That is always great questions. Many unseen factors affect our machines, products, filling, orproduction. You may run various quality control checks in your manufacturing process. But,have you considered the cost of not inspecting the machinery that makes thatprocess possible? The constant wear and tear, or friction, your machinery endures each day affects its manufacturing performance. This results in process and product quality inconsistencies, as well as safety issues for your operators. Firstly, I want to give you a quick knowledge of Friction. Basically, there are two kinds of friction: static friction and kinetic friction. Static friction is friction between two or more solid objects that are not movingrelative to each other. For example, static friction can prevent an object fromsliding down a sloped surface. Kinetic friction, also known as dynamic friction or sliding friction, occurs when two objects are movingrelative to each other and rub together (like a sled on the ground). Here we come to the question: Why Friction is something we want and need to measure? 1. Friction Causes Wear and Tear Friction causes wear and tear of the parts of machinery in contact, which will reduce their life time. The less friction, the less wear, and the longer your machine will last. The ability to pre-determine what parts of your system will need maintenance before a total system failure is invaluable when it comes to keeping operations running smoothly. Ongoing, consistent friction measurement also optimizes the process of replacing parts. So, a friction analyzer can help you identify: When it’s time to replace a part due to theamount of wear. When the wear itself is increasing frictionand accelerating more wear. How long it takes to reach the point ofreplacement. 2. Consistency In The Manufacturing Process Consider the example of two identically constructed machines. With one, the manufacturing process seems to work as intended every time, while the other doesn’t, e.g.slipping boxes on a packing line or slipping web or sheet processes on rollers.Accurate friction testers ensure interface surfaces are consistent. In layman’sterms, surfaces that are not too sticky, and not too slippery… but just right! 3. Ensure Product Consistency In addition to ensuring manufacturing consistency, there is also a need for product consistency. If the manufacturing process isn’t consistent or if variation of the raw materials isn’t corrected, your end product is going to have variation. When it comes to food products, medical devices, cosmetics, pharmaceuticals or any heavily standardized industry, thiscan make the difference between a final product being ready for the market, orbeing sent to the trash. 4. Safety Slips and falls can occur anywhere in your facility, frompublic areas to employee-only areas. Therefore, special designed floors have been made possible with the use of accurate. Additionally,while packaging large bundles can be a relatively simple process, friction analyzers keep them in place during transit. Measuring friction of the outerpackaging both during development and before shipment plays a dual role to keepworkers safe while preventing product losses. 5. Research & Develop Finally, the traditional role of friction measurement in R&D has made great strides. The research part begins with measurement,which allows the causes of problems to be identified and repaired. It can be University and Colleges, Laboratories, or Factory R&D departments More Details – https://www.flexitest.in/c620h-friction-peel-tester-packagingArticle Source: https://en.labthink.com/en-us/

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The Relationship between the Hot Tack of Packaging Material and Filling Efficiency

Home The hot sealing performance of packaging materials is the main parameter to assess packaging ability of materials. It includes the hot tack and ultimate strength. Hot tack has been used to check the strength to peel off hot sealing parts, when shortly after hot sealing (not cold yet). Ultimate strength has been used to check the strength to peel off the hot sealing parts, when the parts have already gone cold. These parameters vary hugely with one material. However, the proper application of these parameters usually affects the choices of packaging materials and the actual filling efficiency. This paper is going to introduce the application of hot tack of materials by using filling product line material as an example. 1 The Application of Hot Tack Today, in food, medicine, cosmetics, and other areas, soft packaging often uses Form-Fill-Seal Machine. In these filling production lines, soft package manufacture is carried out at the same time with filling. The filling method is basically to fill the product into the package from a certain height. The falling cast strong impact to the bottom of packages. If the bottom cannot bear the impact, the bottom will crack—package break. It will affect the cleanness and the filling efficiency. As on the filling product line, the time between hot sealing manufacture of package and product filling is very little, it is almost impossible to cold down the hot sealing parts in such a short time period. It can be seen that the ultimate strength is not applicable in this case. The hot tack should be adopted. It is commonly recognized that optimization of hot sealing process is an efficient way to shorten the packaging time. The hot tack test will be helpful for manufacturers to choose the best hot sealing parameters.Thus, the difference between hot tack and ultimate strength is clear. Hot tack is applied to assure the running of filling product line. The hot tack will affect the filling efficiency and package break rate directly. The hot sealing performance is usually used to indicate the containment ability of materials. It is to assure that the hot sealed parts are not going to leak during transportation, storage and exhibition. It is the pre-condition to realize the functions of packaging materials. 2 Case Studies How to choose the best hot seal parameters of product line by making use of hot tack testing? The relationship between hot tack and hot sealing parameters of product line is going to be introduced in the following paragraph. It is the case of Labthink helping its clients to test product.The client is an East Asian food production company. The company wanted to make a choice between A and B film, which share similar performance parameters. The company wanted a film to satisfy the requirement of product line and make the product line more efficient. The hot sealing side of material, the hot sealing time and pressure are all fixed. Client required that the hot sealing temperature to be no more than 133°C and the hot tack to be no lower than 2N. Given the conditions above, the hot sealing time should be as short as possible and energy saving. We used Labthink HTT-L1 hot tack tester to test the hot adhesive of A, B two types of films. Hot sealing time was set to 0.3s, 0.5s, 0.7s; sealing temperature was set to 115 °C, 118 °C, 121 °C, 124 °C, 127 °C, 130 °C, 133 °C. Other parameters were set in accordance with customer requirements. The width of the test sample was 25mm as customer required. Figure 1 and 2 is the test data curve. In fact, there is a best temperature point in order to achieve the best hot adhesive of film materials. When the hot sealing temperature rises above the best temperature point, the hot adhesive will drop under the best point. From the figure 1 and 2 we can see that the best hot sealing temperature is about 130 °C, while B’s best sealing temperature is about 127 °C.Based on data of film A, when the hot sealing time is 0.3s, the hot adhesive did not reach the requirement of client; when the hot sealing time is 0.5s, sealing temperature at 127 °C ~ 133 °C, the material could just reach the requirement of client; but when the hot sealing time is 0.7s and the temperature is between 127 °C ~ 133 °C, the hot adhesive of the material could well satisfy the requirement. Thus in the case of film A, hot sealing time of more than 0.5s and temperature of 127 °C ~ 133 °C can satisfy the need of clients. But to film B, in the same condition of film A, film B showed better hot adhesive than film A. when the hot sealing time is no less than 0.3s and the temperature is more than 118 °C ~ 133 °C, film B can satisfy customer’s need for hot adhesive. As the time of hot sealing increased, the time need for hot sealing showed a significant drop. When the not sealing time reached 0.7s and temperature between 115 °C ~ 133 °C, film B could be very satisfactory.Referring to the above test data, we believe that the film should be B, and the production line sealing parameters can be set: sealing time of 0.3 s ~ 0.5s, sealing temperature of 118 °C. Of course, sealing temperature should also be further tested to determine the best value. It should be noticed that there values should be somehow over the margin in order to avoid uneven sealing, which could be caused by mechanical or material problem. Simply from the point of view of materials, we believe film A would lower the efficiency of filling and raise the energy cost of product line. However further analysis should be base on some other issues like material cost and the best efficiency of the who product line. 3 Summaries In order to reasonably set the hot sealing parameters of filling product lines, hot

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The Effect of Packaging-Film Thickness on Quality of Products

Home Loss of moisture and addition of oxygen are ones of the ways in which freshness of fruits and vegetables is lost. Similarly, many products are sensitive with oxygen, moisture, light, and temperature. So that, we find many methods such as lowering temperature, raising relative humidity, reducing air movement, use high barrier packaging materials, coating the packaging materials, to ensure the product shelf life. Moreover, Researchers claimed that a suitable thickness of polyethylene film can also extend the storage life of products There is a research to study three commonly available packaging films viz. low-density polyethylene (50 and 70 μm thickness), polypropylene (25 and 50 μm thickness), and polyvinyl chloride (PVC) (40 and 50 μm thickness) at 5 and 10 °C. At each temperature, the oxygen, carbon dioxide, and water vapor transmission rates (OTR, CTR, and WVTR) requirement of guava were compared with those of the selected films. The storage life, peel color and pulp firmness of guava at the end of the storage in each packaging film were analyzed. The OTR and CTR required for designing the modified atmosphere packaging of guava were relatively close to that available with the PVC films but, the required WVTR was higher than that available with the studied films. Highest storage-life (25 and 20 days at 5 and 10 °C, respectively) were observed in PVC 40 film, and at the end of the storage the samples showed brighter color, lower firmness and were perceived as mature and highly acceptable by the judges. The available WVTR of PVC 40 film was highest. Hence, it may be used for storage of guava with estimated mass of moisture scrubber to prevent in-package condensation. Labthink as a professional manufacturer of packaging testing instrument, provides a high precision Thickness Tester – C640 Thickness Tester. This Thickness Tester is designed based ISO 4593 and ASTM standards. Article Source: https://en.labthink.com/en-us/

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Single Parcel Distribution Test Design for E-Commerce

Home Overview The COVID-19 pandemic has provided a major boost to e-commerce, with the U.S. Census Bureau reporting a 45% year-over-year increase from the second quarter of 2019 to the second quarter of 2020. For brands experiencing a significant increase in e-commerce sales or embracing e-commerce for the first time, designing packaging to hold up under the conditions a single parcel may face in shipping can be a challenge. Products that are damaged during shipping are costly to your brand’s reputation and can ruin your relationship with customers. Testing your packaging to ensure it can protect the product at all points along its journey from your packaging line to its destination is integral to the process and to your brand. While the process can be daunting, there are two main things you need to understand before you get started: the distribution environment your product and its packaging will encounter during shipping and the available testing standards that simulate how your package will perform in that environment. Know Your Distribution Environment Distribution environments can be complicated. Depending on the product, a package may encounter a wide variety of conditions between packaging and arrival at its destination. These conditions can be broken down into two main categories, ambient conditions, and handling conditions. Ambient Conditions Ambient conditions can vary wildly depending on the distance your package will travel and the geographic location(s) it will travel through. Factors to consider include the humidity it will experience, the range in temperatures it will face and how much exposure it will have to elements such as sun light and, potentially, precipitation. Some products may even need to remain refrigerated or frozen during shipping to preserve quality. Handling Conditions Handling conditions have a similarly broad range and depend on whether your packaging will ship via rail, truck, air or some combination of the three. While we’re primarily focusing on products that will ship as single parcels, there may be portions of their journey where they travel as part of a unitized load. Packaging decisions can also vary depending on whether a package is primarily hand-carried or if it will be lifted with a crane or forklift. At times, other packages may be stacked on top of it, meaning the package will need to support additional weight without being crushed. Insights from Technology While an expert can make a fairly accurate projection about the conditions a package will face in the distribution environment, there are ways to take some of the guesswork out of the process. Several companies make small, disposable sensors that can be placed in test packages and shipped through the normal distribution channels to capture a variety of information about shock, temperature, and sunlight, along with location and time, to provide an opportunity for real-time data analysis. Know Your Testing Standards There are two main bodies that issue widely accepted single parcel test standards. ASTM is one of the world’s largest international organizations that develops standards. It is comprised of a large group of experts who develop and democratically approve those standards. The other organization, ISTA is a private industry association with standards generated by its board of directors. While the standards developed by both organizations are valuable, ASTM standards are more widely accepted than ISTA standards. For food and beverage brands, for example, the FDA recognizes more than 400 ASTM standards, but recognizes only the ISTA 3A, 3B and 3E series. These organizations have developed hundreds of standards that cover the wide variety of options for packaging sizes, shapes, and materials. It would be impossible to summarize all of them here, but an example that compares a few of the available standards is helpful in illustrating the relationship between knowing your distribution environment and knowing what options are available for testing.  The table below lays out the steps in three testing standards that can be applied to double-walled carton that is 1.8 cubic feet in size and weighs 5 lbs. Testing Standards Example Step ISTA 3A Series ASTM D4169 DC 13 AL II ASTM D7386 1 Precondition to ambient for 12 hours Condition to adjusted settings from standard of 73.4 +/- 2°F (23 +/- 1°C) and 50% +/- 2% for 72 hours Condition to adjusted settings from standard of 73.4 +/- 2°F (23 +/- 1°C) and 50% +/- 2% for 24 hours 2 Condition to determined temperature and humidity “Controlled” conditions will use 73°F and 50% humidity for 72 hours Handling – Six drops from 15” Handling – Four drops from 18” and two drops from 20” 3 Shock – Eight drops from 18” plus one drop from 36” Vehicle Stacking – Apply and release 278lbs Vibration under Compressive Load – Bottom face for 60 minutes and side face for 30 minutes 4 Vibration – Random with overall Grms level of .46Grms and with 105lbs topload for total of 120 minutes Loose Load Vibration – Fixed Displacement for 30 minutes High Altitude (optional) 5 Vibration – Random with overall Grms level of .46Grms for total of 30 minutes Low pressure (optional) Handling – Two drops from 20” and four drops from 18” 6 Shock – Seven drops from 18” plus one drop from 36” Vehicle Vibration – Random60min with overall Grms level of 0.54120 min with overall Grms level of 1.05 Vibration – Bottom face for 30 minutes and side face for 30 minutes 7 n/a Handling – Five drops from 15” plus one drop from 30” Handling – Two drops from 14”, three from 20” and one from 32” 8 n/a n/a Concentrated Impact – Drop height 36” The details included for each step are instructive in deciding which standard best applies to your package and its distribution environment. Differences include the temperatures the packages are exposed to during testing, drop heights, the amount of compression force applied to the package, and other factors. ISTA 3A requires dropping the package from a height of 18 inches seven times and a height of 36 inches once, while ASTM D4169 DC 13 AL II calls for five drops from 15 inches and one from 30 inches. A thorough

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Extending shelf-life of Ready-To-Eat Meals

Home As we know, extending shelf life of food is the primary function of food packaging and advanced food processing technologies can help to preserve flavor, texture, nutrients and color during processing. Microwave-assisted thermal sterilization (MATS) is an advanced state-of-the-art technology that can provide higher quality of sterilized meals in comparison to retort. The development of this technology was started by Dr. Juming Tang, at Washington State University, Pullman in 1997. It was partially financed by the U.S. Army Natick Soldier Systems Center and Kraft Foods and patented in 2006. For the first time in the USA, a microwave based thermal processing technology was accepted by FDA. This technology uses a 915 MHz microwave single-mode cavity and water immersion. The 915 MHz microwaves have longer wavelength compared to 2450 MHz frequency used in domestic microwaves that can penetrate deeper into food products, which gives MATS an additional means for uniform heating. Dr. Shyam Sablani, Professor at Washington State University, collaborated with polymer companies Toppan USA Inc., GA, USA; Dai Nippon Printing Co., Ltd., Tokyo, Japan; Kuraray America Inc., Texas, USA; Printpack Inc., GA, USA; Mitsubishi Gas and Chemical America, New York, USA to develop and evaluate high barrier packaging for MATS. Researchers from his group have determined that changes in barrier properties (oxygen transmission and water vapor transmission) of multilayer films are smaller after MATS processing due to shorter processing time (almost one-third) as compared to conventional retort processing. This greatly enhances the shelf life of packaged foods as these barrier properties have a significant impact on the food quality when stored for 3-5 years. The multilayer packages that Dr. Sablani’s laboratory evaluated were comprised of metal oxide coated PET and EVOH as barrier layer. Both laboratories at Washington State University are currently investigating combined MATS processing effect and advanced packaging effect on complex recipes such as macaroni and cheese, chicken pasta that could be used for U.S. Army rations, NASA’s extended duration space missions and by food companies targeting high quality shelf stable foods. Author: Dr. Juhi PatelSource: https://packaging360.in/casestudies/Extending-shelf-life-of-ready-to-eat-meals

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Applications of Moisture analysers in Dairy Industry

Home What is Moisture Analyzer A Moisture Analyzer, is also known as a moisture balance or moisture meter, is an instrument used for the assurance of the moisture content of a sample. It consists of an infrared weighing and heating unit. How does moisture analyzer work? Moisture analyzers use Loss on Drying (LOD) strategy to measure moisture. In this strategy, the moisture analyzer weighs a sample, warms it up to dry it, and weighs it again once it’s dry. The weight in the wake of drying is deducted from the weight previously, so the deficiency of moisture is resolved utilizing the deficiency of mass. The hotness creating framework can differ from one analyzer to another. Some moisture analyzers use halogen and some utilization infrared or without glass metal radiators situated over an accuracy balance. Halogen moisture analyzers are speedy, proficient, and responsive. These sorts of moisture analyzers are ideal to utilize where there is no single setting that heats all samples evenly. How to measure dry extract in dairy products: optimizing the methodology Dairy items are a typical staple in the human eating diet. Moisture content is a significant component in the structure of food varieties, and it is a boundary used to measure samples quality because of its immediate effect on food storage. In this review, the dampness substance of three distinct items (mozzarella cheddar, a velvety cheddar spread, and yogurt drinks) were estimated utilizing broiler drying, infrared drying, and microwave drying to think about the aftereffects of these three techniques. The various strategies used to measure the dry concentrate of the greater part of the brands investigated didn’t contrast essentially between one another in view of an importance level of 5% on test. There was a critical contrast between the procedures utilized on account of just one brand of each investigated products. Food sources, compound/pharma products, building materials or animal feed – the moisture content definitively affects value, processability and quality, going from unrefined components to eventual outcomes. Deciding this moisture content is one of the most widely recognized analysis in product improvement, the manufacturing process and quality control. As a leading provider of moisture analysis equipment, Flexitest is thoroughly familiar with the needs of its customers and thus offers a wide range of equipment fitting perfectly to various applications. Features of Moisture Analyzer High-performance AURI heating units for uniform sample heating 30% faster measurement results improve laboratory efficiency Integrated Method Development Assistant for easy customization Convenient analysis method importing and exporting with compatible devices Programmable up to 100 unique and custom analysis methods Parameters / Comparison Max. weighing capacity 200g Reproducibility, typical Starting at an initial sample weight of approx. 1 g: ± 0.2% Starting at an initial sample weight of approx. 5 g: ± 0.05% Readability 1 mg, 0.01% Typical sample quantity 5 g – 15 g Display modes for results Moisture content in % M and % g Dry weight in % S and g ATRO (ratio) in % M|S Temperature range and settings 40°C – 200°C, in increments of 1°C Standby temperature selectable from 50°C – 120°C

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