In the fast-paced beauty industry, makeup tube packaging isn’t just a container—it’s a brand’s first impression. To stand out, brands need designs that blend creativity, functionality, and sustainability. As a cosmetic packaging supplier, we’ve seen firsthand how innovative tubes capture attention and drive sales. Here’s how to make your makeup tubes unforgettable.

 

1. Eco-Friendly Tube Packaging: Sustainability as a Selling Point

Recyclable Aluminum: Lightweight, infinitely recyclable, and ideal for creams or serums.

Refillable Systems: Reduce waste by offering reusable outer tubes with replaceable inner cartridges.

Case Study: A skincare brand saw a 30% sales boost after switching to eco-friendly tube packaging with a “100% Recycled” label.

 

2. Functional Design: Solving Consumer Pain Points

Great packaging solves problems. Here’s how to turn practicality into a design asset:

Leak-Proof Valves: Ensure mess-free application, even in travel-sized tubes.

Squeeze-to-Open Mechanisms: Eliminate frustrating caps with ergonomic designs that open with a simple press.

Transparent Windows: Let users see product levels at a glance, reducing guesswork.

For mascara or lip gloss, a precision applicator built into the tube’s cap can enhance user experience and cut down on waste.

 

3. Aesthetic Innovation: Turning Heads on Shelves

In a crowded market, aesthetics matter. Use these trends to make your tubes visually striking:

Matte Finishes: Add luxury with soft-touch textures.

Metallic Accents: Foil stamping or metallic inks create premium appeal.

Bold Shapes: Curved, hexagonal, or sculptural tubes catch the eye instantly.

Pair colors with your brand story—for example, pastel tones for a minimalist line or neon hues for a playful vibe.

 

 

4. Market Trends to Watch

Stay ahead with these emerging ideas:

Minimalist Packaging: Clean, clutter-free designs appeal to modern tastes.

Vegan-Friendly Materials: Certify tubes as cruelty-free and vegan for ethical appeal.

Interactive Packaging: Tubes that transform into art when empty or feature peel-off stickers.

 

Conclusion

As a cosmetic packaging supplier, we specialize in eco-friendly tube packaging and cutting-edge designs that align with consumer values.We believe we can make your makeup tubes stand out, blend sustainability, functionality, and creativity.

Artificial leather, also known as synthetic leather or faux leather, is a man-made material that mimics the texture of animal leather without containing any animal components. Due to its excellent water resistance and durability, it is widely used in the handbag industry.

Common materials used in artificial leather include PU, PVC, polyester, polyurethane, and certain natural fibers derived from plants.

PU Leather

PU leather is manufactured using two methods: dry processing and wet processing. Although the processes differ, both involve coating a base fabric with polyurethane.

 

PVC Leather

PVC leather is produced by applying a layer of polyvinyl chloride onto a fabric backing. Compared to PU leather, PVC leather is more robust but offers less breathability.

 

Microfiber Polyester Leather

This material combines ultra-fine polyester fibers with polyurethane, resulting in a soft yet durable product. However, it tends to be more expensive.

Plant-Based Leather

Transforming plant waste into leather is a relatively new technology developed in recent years. This method repurposes plant waste to create environmentally friendly leather alternatives. Common plant-based materials include apple waste, mushroom mycelium, cork leather, and pineapple fibers. These materials are characterized by their natural degradability and higher production costs.

Generally, a waterproof backpack should have better water resistance than a water-resistant backpack.

 

A waterproof backpack can withstand temporary submersion without leaking, while a water-resistant backpack only resists splashes or light rain.

A waterproof backpack should meet at least IPX7 water resistance, while a water-resistant backpack only needs to meet IPX4.

 

IP Rating Explanation

The IP rating is an internationally recognized standard for water resistance, set by the International Electrotechnical Commission (IEC). The higher the IP rating, the better the water resistance. There is no strict standard in the backpack industry specifying what IP rating a product must have to be called "waterproof," so the difference between waterproof backpack and water-resistant backpack comes from a common understanding of these terms.

IPX7 vs IPX4 Testing Process

IPX7: The backpack’s zippers are closed, and it is submerged in water up to a depth of one meter (measured from the top of the backpack) for 30 minutes. Afterward, the backpack is taken out, and the interior should remain dry.

IPX4: The backpack is closed and sprayed with water in all directions (front, back, left, right, up, down) for 5 minutes in each direction, with a water flow rate of 10 liters per minute. After the test, the interior should remain dry.

 

It is clear that a IPX4 rated water-resistant backpack is sufficient for everyday situations, such as encountering rainy or damp weather. On the other hand, a IPX7 rated waterproof backpack is more suited for professionals who work in extreme conditions.

In the era of the rapid development of new energy vehicles, the discussion of their extreme testing is no longer a topic limited among technicians; instead, it is closely related to the vital interests of every consumer. As the market demand for new energy vehicles continues to grow, the performance of vehicles in extreme environments has become a key criterion for measuring their performance and reliability.

 

From the stringent tests of the vehicle's three highs testing, to the meticulous inspection of components, and then to the long - term challenge of the vehicle's durability testing, each link is a deep exploration of the technological limits of new energy vehicles. These tests not only showcase the forefront of technology but also provide a comprehensive guarantee for the vehicle's safety and durability. Therefore, understanding the details of these extreme tests is an important window for each of us to perceive the future development trends of automobiles.

 

Vehicle Three Highs Testing: The Ultimate Inspection in Extreme Environments

 

Vehicle three highs testing is one of the standard tests for new energy vehicles, and its importance cannot be overstated. This series of tests includes three major links: high - temperature, high - altitude, and high - cold, aiming to test the performance and reliability of the entire vehicle under the harshest natural conditions.

 

 

First is the high - temperature test, usually carried out in Turpan, Xinjiang, where the surface temperature in summer can reach up to 70°C. Under such extreme high - temperature conditions, the vehicle's thermal management system and the safety performance of the battery will face severe challenges. It tests whether the vehicle can maintain normal operation in an overheated environment and whether it has effective heat dissipation strategies and overheat protection mechanisms.

 

Test Conditions:

High - temperature exposure > 6h

Temperature higher than 35°C

Total driving mileage should be no less than 10,000 km, with no less than 2,000 km on urban roads, no less than 3,000 km on rural roads, and no less than 5,000 km on highways.

Subjective Evaluation Tests:

Evaluation of power performance, drivability, NVH performance, electrical performance, etc.

Evaluation of air - conditioning cooling and comfort

Inspection of daily function operations

Objective Evaluation Tests:

Collection of key - point temperatures during the test under different working conditions

Monitoring of temperature changes and working status

Engine - related Tests:

Engine Shutdown Protection (Test condition: Temperature 40°C - 60°C): To prevent the engine from being damaged due to overheating, which may affect its service life.

Engine Matching Test (Test condition: Temperature 40°C - 60°C): To ensure the matching of the engine and its accessory systems (such as the cooling system, fuel system, and emission system) under high - temperature conditions.

Other Tests:

Light Aging Test (Test condition: Temperature 40°C - 60°C): To evaluate the performance and durability of automotive components, materials, and the entire vehicle under long - term exposure to sunlight.

High - temperature Range Test (Test condition: Temperature higher than 35°C): The vehicle drives from SOC100 to 0%, and the vehicle's range and energy consumption rate are statistically analyzed.

High - temperature Charging Test (Test condition: Temperature higher than 35°C): The power battery is discharged to SOC 0% and then charged to full. The charging efficiency = (electricity entering the power battery / electricity from the charging network) * 100%. Also includes forward function testing, reverse function testing, software function testing, scenario simulation testing, extreme function testing, user function experience testing, etc. And temperature testing of the ECU (Electronic Control Unit) and various sensors, electrical system performance testing, basic calibration (such as chassis system calibration), etc.

 

The high - cold test is completely the opposite. It is often carried out in places like Heihe and Hailar, where the ambient temperature is as low as - 30°C. In such a low - temperature environment, the chemical reaction rate of the battery will drop significantly, affecting the vehicle's range and power output. The focus of the test is the response speed and efficiency of the battery heating system, as well as the battery's discharge performance and low - temperature protection mechanism in severe cold conditions.

Test Road Types:

High - speed snow loop, snow dynamic square, ice dynamic square, ABS open - circuit, ice and snow roundabout, handling stability road, checkerboard road, snow - melting pool, split - slope ramp

Test Conditions:

Vehicle soaking > 12h

Temperature lower than - 10°C

Total driving mileage should be no less than 10,000 km, with no less than 2,000 km on urban roads, no less than 3,000 km on rural roads, and no less than 5,000 km on highways.

Subjective Evaluation Tests:

Evaluation of power performance, drivability, NVH performance, electrical performance, controllability, braking performance, suspension system performance, etc.

Objective Evaluation Tests:

Starting Performance Test (Test condition: Ambient temperature - 20°C to - 40°C): To evaluate the cold - start performance, power, efficiency, and reliability of the engine.

Heating Performance Test (Test condition: Ambient temperature - 20°C to - 40°C): Collection of key - point temperatures during the test under different working conditions, and monitoring of the temperature changes and working status of the ECU (Electronic Control Unit) and various sensors.

Defrosting Performance Test (Test condition: Ambient temperature - 20°C to - 40°C): With the blower at the maximum setting and full - warm defrosting, pay attention to the field of view of the front windshield area and the exterior rear - view mirror during the test.

Other Tests:

Snow - covered Area Passability Test (Test condition: Ambient temperature - 10°C to - 40°C): Tests include snow - covered road passability test and snow - covered slope passability test.

Snow - blowing Test (Test condition: Ambient temperature - 20°C to - 40°C, with a snow - blower set on the high - speed snow loop): To detect whether there is snow accumulation and icing in the front cabin, fan, trunk, lamps, etc., and the operation of functions.

Low - temperature Range Test (Test condition: Ambient temperature - 20°C to - 40°C): The vehicle drives from SOC100 to 0%, and the vehicle's range and energy consumption rate are statistically analyzed.

 

Low - temperature Charging Test (Test condition: Ambient temperature - 20°C to - 40°C): The power battery is discharged to SOC 0% and then charged to full. The charging efficiency = (electricity entering the power battery / electricity from the charging network) * 100%. Also includes forward function testing, reverse function testing, scenario simulation testing, software function testing, extreme function testing, user function experience testing, etc. And calibration of various system and performance parameters of the vehicle in a cold environment, such as engine performance calibration, air - conditioning system performance calibration, basic calibration, "three - electric" system calibration, thermal management system calibration, chassis system calibration.

 

Finally, the high - altitude test is mainly carried out in areas above 4,000 meters above sea level to detect the electrical safety of new energy vehicles in a low - oxygen environment and the stability of the motor and electronic control systems. In the high - altitude environment, the air is thin, and the insulation performance between electrical equipment will be tested, and arcs are likely to occur. Therefore, this test focuses on whether the vehicle's electrical system can maintain stable operation under oxygen - deficient conditions and the effectiveness of its safety protection measures.

 

Typical regions for three - high tests

 

Through vehicle three highs testing, not only can the adaptability of new energy vehicles in extreme environments be comprehensively evaluated, but also direct and effective data support can be provided for subsequent technological improvements, ensuring that new vehicle models have sufficient environmental adaptability and safety guarantees when they are launched on the market.

 

Clarify the test requirements

Determine the type of parts: There are many new energy vehicle parts, such as power batteries, drive motors, charging systems, thermal management systems, body and chassis systems, electronic control systems, etc. The test requirements of different parts vary greatly, and the corresponding test equipment needs to be determined according to the specific parts.

Understand the test items: Clarify the test items to be carried out, such as power batteries need to be tested for electrical performance, safety performance, environmental adaptability, etc.; drive motors need to be tested for power performance, reliability, electromagnetic compatibility, etc., and select equipment with corresponding functions according to these items.

 

Pay attention to equipment performance indicators

Accuracy: For measuring equipment, such as battery charging and discharging test equipment, motor performance tester, etc., accuracy is crucial. High-precision equipment can provide more accurate test results and help accurately evaluate component performance.

Stability: The equipment should maintain stable performance during long-term operation and multiple tests to ensure the consistency and reliability of the test results and avoid inaccurate test data due to equipment fluctuations.

Speed: On the production line or in large-scale testing, equipment with faster test speeds can improve test efficiency and shorten the test cycle, but it is also necessary to ensure that the speed does not affect the test accuracy and quality.

 

Consider compatibility and scalability

Compatibility: The equipment should be able to adapt to the testing of new energy vehicle parts of different models and specifications, and have certain versatility and compatibility. For example, battery charging and discharging test equipment should be compatible with various types of power batteries.

Scalability: With the development of new energy vehicle technology and the continuous improvement of testing requirements, the selected equipment should have certain scalability to facilitate subsequent upgrades or add new test functions to meet future testing needs.

 

Investigate equipment quality and reliability

Brand and reputation: Choose equipment from well-known brands. Usually these brands have a certain reputation and credibility in the market, and the product quality and after-sales service are more guaranteed. You can understand the brand's reputation through online evaluation, industry recommendations, etc.

Certification and qualifications: Check whether the equipment has passed the relevant standard certification and qualification review, such as ISO and other quality management system certification, metrology certification, etc. These certifications are a reflection of the quality of the equipment.

 

Evaluate after-sales service

Maintenance service: Understand the maintenance service capabilities of the equipment supplier, including maintenance response time, maintenance cycle, maintenance costs, etc., to ensure that the equipment can be repaired in time when it fails and reduce downtime.

Technical support: The supplier should be able to provide professional technical support, including equipment operation training, test method guidance, troubleshooting, etc., to help users better use and maintain the equipment.

 

Consider cost factors

Purchase cost: According to the budget and actual test needs, choose reasonably priced equipment to avoid blindly pursuing high-end equipment and causing excessive costs, but also ensure that the equipment performance meets basic test requirements.

Use cost: Including equipment energy consumption, consumables, maintenance costs, etc., choose equipment with low energy consumption, low frequency of consumables replacement, and simple maintenance, which can reduce long-term use costs.

A screw lock carabiner is a specialized metal connector widely used in climbing, mountaineering, rescue operations, and industrial work. It belongs to the broader category of carabiners—oval or D-shaped metal hooks designed to secure ropes, harnesses, and other equipment under high-tension conditions. The screw lock variant distinguishes itself through its manual locking mechanism, which combines security with adaptability.

Core Design and Function
Screw lock carabiners feature a twist-to-secure gate mechanism. The gate, a pivoting arm that opens and closes the carabiner’s loop, is equipped with a threaded collar. Users must manually rotate this collar to tighten it against the gate’s body, creating a locked state that prevents accidental openings. This design prioritizes controlled security: unlike auto-locking carabiners that engage automatically, screw locks rely on user action, making them ideal for scenarios requiring intentional adjustments.

Applications and Advantages
Moderate-Risk Environments: Commonly used in sport climbing, rigging, and caving, screw locks excel where frequent repositioning of equipment is needed. Their manual lock ensures stability during critical tasks like anchoring ropes or attaching belay devices.
Lightweight and Durable: Typically crafted from aluminum alloy or stainless steel, they balance strength with portability. Aluminum models are favored for personal gear due to their lower weight, while steel variants are deployed in heavy-duty industrial settings.
Customizable Security: The twist-lock mechanism allows users to gauge lock tension visually, reducing the risk of over-tightening or under-securing. This feature is crucial in dynamic environments where rapid equipment reconfiguration is essential.

 

Safety Considerations

Maintenance: Regularly inspect for deformation, cracks, or gate stiffness. Replace immediately if compromised.
Usage Protocols: Always confirm the gate is fully locked before loading. Avoid exposing aluminum carabiners to sharp edges to prevent cuts.
Environmental Sensitivity: While robust, they are not indestructible. Drops from heights may cause internal damage undetectable externally, necessitating retirement after severe impacts.

 

Evolution and Alternatives

Modern screw lock designs incorporate smoother-edged gates and ergonomic collars to enhance handling. However, advancements in auto-locking carabiners—which engage automatically upon gate closure—have expanded options for users prioritizing hands-free security. Despite this, screw locks remain a staple for professionals valuing precision and adaptability.

In conclusion, the screw lock carabiner embodies a balance of proactive safety and operational flexibility. Its enduring relevance across industries underscores its role as a cornerstone of reliable equipment connection in high-stakes environments.

 

 

With the improvement of global environmental awareness, the problem of plastic pollution has attracted more and more attention from all walks of life. In order to respond to this environmental protection operation, Hong Kong announced that it would implement a widely known "plastic limit order". Against this background, solutions seeking to replace traditional plastic tableware have become imminent. In this change, a emerging product -water -based coating paper tableware, with its green environmental protection characteristics, is gradually emerging, becoming an important trend of future catering supplies.

 

The water -based coating paper tableware of Xiamen Glaman Environmental Technology Co., Ltd. is an innovative product that emerged under such market demand. This tableware is usually made of renewable wooden pulp cardboard. The surface is coated with a special layer of water -based coating, so that it has better waterproof performance and durability, and can maintain stability when carrying hot food and wet food. Compared with ordinary paper tableware, the advantage of glamanpaperlid water -based coating paper tableware is:

 

1. Biodegradability: Because natural wood pulp cardboard is used as raw materials, these tableware can be easier to be broken down by the natural environment after use, reducing the impact on the ecosystem.

 

2. Recyclable: Paper tableware usually does not require complex chemical treatment in production, so it is easy to recycle and reuse, and further promote the recycling of resources.

 

3. Environmental protection production process: Compared with traditional plastic tableware, the carbon emissions produced in paper tableware are lower in production, which is in line with low -carbon and environmentally friendly production concepts.

 

4. Safety: Water -based coating usually does not contain harmful substances to the human body, so it is safer and healthy to use.

 

Although water -based coating paper tableware may be slightly higher than plastic tableware in terms of cost, in the long run, with the advancement of technology and large -scale production, the cost gap is expected to shrink. More importantly, the choice of companies and individuals who use this eco friendly tableware will have a positive impact on the future earth environment. This is the value that cannot be measured by money.

 

In the beverage production industry, having the right equipment is essential to ensure product quality, safety, and efficiency. Here are some key equipment and their importance:

 

 

 

 

 

 

 

 

 

 

 

 

 

These supporting equipment play an indispensable role in the production of juice, water, yogurt and other liquid beverages. They not only improve production efficiency and product quality, but also ensure compliance with food safety standards. Whether you are a small producer or a large beverage manufacturer, investing in these essential equipment can significantly improve your production process and final product quality.

As a piece of furniture that is both portable and practical in modern life, the load-bearing capacity of folding stools is significantly differentiated due to differences in materials, design and structure. From lightweight to super-strong load-bearing, folding stools in different scenarios show diverse technical characteristics.

Lightweight folding stools: a balance between portability and practicality
Lightweight folding stools are generally made of aluminum alloy or PP. Such products are lightweight through optimized structural design. For example, a folding stool made of thickened aluminum alloy steel pipes, covered with Oxford cloth on the surface, weighs only 525 grams, but can bear a weight of 200 jin (about 100 catties). The design focus is to achieve a breakthrough in load-bearing capacity under limited dead weight through triangular support structures and high-strength connectors. Another Japanese minimalist folding stool made of PP material, through the design of dense shafts and thickened bone core, can bear 120 jin (about 60 kg) in small specifications, and is only 5 cm wide after folding, which is easy to store in home gaps or car trunks.

Breakthrough load-bearing folding stool: a model of industrial design
Some folding stools have achieved a leap in load-bearing capacity through innovative materials and structures. A Feistel outdoor folding stool uses high-strength flexible materials, similar to the connection parts and support frame combination of ladder panels, which can be stretched 20 times to extend the use area and bear a maximum load of 362 pounds (about 181 kilograms). The core lies in the stress dispersion mechanism of the flexible material and the trapezoidal support structure, which evenly distributes the weight at each support point. Another cardboard folding stool uses three-dimensional molding technology to transform two-dimensional materials into load-bearing structures. In actual tests, it can bear 500 pounds (about 250 kilograms), showing a breakthrough application of material science.

Technical parameters and scene adaptation
The load-bearing capacity of a folding stool is closely related to its technical parameters. Taking a feisteloutdoor export-grade folding stool as an example, its unfolded size is 32×27×37.5 cm, and the size is reduced to 37.5×31.5×6 cm after folding, and it can bear 100 kg with a dead weight of 1600 grams. This design meets the needs of outdoor camping, queuing and waiting through precise control of volume compression and weight distribution. Another large folding stool adopts a three-stage adjustable leg design, with a load-bearing range of 120 jin to 300 jin (about 60-150 catties), and the bottom non-slip foot pad and the top non-slip texture ensure the safety of users of different weights.

The load-bearing capacity of folding stools has exceeded traditional cognition, from 200 catties to 500 catties, which is not only due to the progress of material science, but also depends on the innovation of structural design. In the future, with the application of new materials such as carbon fiber and titanium alloy, the load-bearing performance of folding stools is expected to be further improved, providing more reliable equipment support for outdoor adventures, emergency rescue and other fields.

 

A 30 kN carabiner is a critical piece of equipment in climbing, construction, and rescue operations, designed to securely connect ropes, harnesses, and anchors. Understanding its load-bearing capacity is essential for ensuring safety during high-risk activities.

The term "30 kN" refers to the carabiner's breaking strength, which is the maximum force it can withstand before failing. This force is equivalent to approximately 3,000 kilograms (kg) or 6,614 pounds (lbs) when converted using the standard gravitational acceleration of 9.81 m/s² (for simplicity, some calculations round to 10 m/s², yielding 3,000 kg). This capacity is determined through rigorous laboratory testing, where the carabiner is subjected to incremental forces until it fractures.

In practical use, a 30 kN carabiner is typically rated for dynamic loads (such as a falling climber) and static loads (like holding a suspended person or equipment). For instance, in climbing scenarios, it can support the weight of an adult climber plus gear, which often totals less than 150 kg under normal conditions. However, the carabiner's actual load capacity may be reduced by factors like impact forces during a fall, angle of loading, or wear and tear from repeated use.

It's crucial to note that a carabiner's strength is not solely determined by its major axis (the strongest orientation). Many carabiners have lower ratings for minor axis (side) loading or when the gate is open. For example, some models may be rated at 23 kN for minor-axis loading and 12 kN when unlocked. This highlights the importance of using carabiners correctly—always ensuring they are loaded along their major axis and that gates remain closed and locked during use.

Regular inspections are vital for maintaining safety. Signs of damage, such as deformation, cracks, or gate malfunctions, warrant immediate replacement. Even if a carabiner appears undamaged after a fall, internal stresses may compromise its integrity.

In conclusion, a 30 kN carabiner can theoretically hold up to 3,000 kg in a controlled environment, but real-world applications demand adherence to safety guidelines and proper usage. By understanding its limitations and conducting routine checks, users can rely on this equipment to perform reliably in critical situations. Always prioritize manufacturer recommendations and industry best practices to maximize safety.