Ice Cream Bucket Mold

Ice Cream Bucket Mold

Zhenke Precision Mold: Your Professional Bucket Mould Manufacturer! Taizhou Zhenke Precision Mold Co., Ltd. is a manufacturer specializing in the production of thin-wall molds, PET preform molds, and packaging molds for medical and high-end daily chemicals. Our company currently has more than 40.
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Product Introduction
Zhenke Precision Mold: Your Professional Bucket Mould Manufacturer!

 

Taizhou Zhenke Precision Mold Co., Ltd. is a manufacturer specializing in the production of thin-wall molds, PET preform molds, and packaging molds for medical and high-end daily chemicals. Our company currently has more than 40 senior technical personnel and is a young and dynamic technology-based factory. We provide customers with comprehensive services such as product processing solutions, technical guidance, and after-sales maintenance.

Our Advantages

Advanced Processing Equipment

Zhenke Mold currently has more than 20 sets of various mold steel processing equipment such as CNC machine tools. Mold assembly machines can replace manual assembly of large molds, thereby improving mold quality.

Strict Quality Inspection

We use 7 injection molding machines of various sizes to conduct mold trials to check whether the mold is running well. We will be responsible for any quality issues.

High Return on Investment

The molds we produce adopt a needle valve hot runner system, which helps to accurately control the flow of melt, providing customers with higher production efficiency and lower production costs.

Wide Range of Services

Our company has more than five years of experience in mold design and production. Since its birth, it has provided products and services to more than 30 countries and regions around the world and has more than 100 partners.

 
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An ice cream bucket mold typically refers to a mold or container used in the manufacturing or shaping of ice cream containers. An ice cream bucket can be used in kitchens, garages, offices, living rooms to store nuts, seeds, flour, etc.

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A plastic handle mold refers to a mold used in the manufacturing process of plastic handles. These molds are used to create the desired shape and design of plastic handles. It can be applied to plastic containers such as milk tea cups, ice cream buckets, candy jars, and so on.

 

 

Ice Cream Bucket Mold

 

Introduction to Bucket Mould

A bucket mold, also known as a pail mold or a container mold, is a specialized mold used in the manufacturing process of buckets or pails. The molds consist of two main components: the core and the cavity. The core forms the inner shape of the bucket, while the cavity creates the outer shape.

Advantages of Buckets Made by Bucket Mould
 

 

Durability and Strength
Injection molded plastic buckets are known for their exceptional strength and durability. The molding process ensures that the buckets have a uniform and solid structure, capable of withstanding heavy loads, impact, and rough handling. These attributes make them ideal for storing and transporting a wide range of materials, including paints, chemicals, and food products.

 

Resistance to Corrosion and Chemicals
One of the key benefits of injection molded plastic buckets is their resistance to corrosion and chemicals. This makes them an excellent choice for industries that deal with aggressive substances such as solvents, acids, and alkalis. The buckets' ability to withstand these elements ensures that the material inside remains uncontaminated and safe for use.

 

Versatility and Customization Options
Injection molded plastic buckets offer a high level of versatility when it comes to customization. Manufacturers can easily add features such as handles, lids, and labels to meet specific requirements. Moreover, different sizes and shapes can be achieved through the injection molding process, providing customers with a variety of options to choose from.

 

Cost-Effectiveness
Compared to other materials like metal or glass, bucket moulds offer a cost-effective solution for packaging needs. The manufacturing process of injection molded plastic buckets is efficient and less labor-intensive, resulting in lower production costs. Additionally, plastic buckets are lighter in weight, resulting in reduced shipping expenses.

Application of Bucket Mould
Round Container Mold
Milk Tea Cup Mold
Ice Cream Bucket Mold
Deli Container Mold

Paint Buckets
Storing and transporting paints. Injection molded paint buckets are commonly made using paint bucket industry.

 

Food Storage Buckets
Buckets made from PP and PE plastic provide a safe and durable option for food storage.

 

Thin-Walled Buckets
These containers are used for disposable drink containers and fast food packaging.

 

Utensil Buckets
Injection molded buckets can also be designed for utensil storage and organization.

 

Pesticide Buckets
Durable containers for hazardous chemicals, with warnings and instructions for safe handling and disposal.

 

Lube and Engine oil Buckets
Essential for storing and transporting lubricants and engine oils in various sizes and shapes.

 

Chemical Products Buckets
Versatile containers for storing and transporting a range of chemical substances, with color-coding and labeling to prevent cross-contamination.

Manufacturing Process of Bucket Mould
 
Design and Planning

The first step in making a plastic bucket injection mold is to design and plan. This step involves determining the dimensions, specifications, and requirements of the mold. It also involves deciding on the type of plastic material to be used in the production process. The design and planning phase is critical to ensure that the mold is functional and optimized for your specific manufacturing needs.

Material Selection

The next step is to select the appropriate materials needed to manufacture the mold. This includes selecting the mold base, mold steel, and other essential components such as hot runners and cooling systems. The material selection process must be carefully done to ensure the final product meets the required specifications.

Manufacturing the Mold

After completing the design and material selection phase, the mold is then manufactured. This step involves the use of specialized equipment and machinery to cut, shape, and assemble the mold. It is essential to ensure that the mold conforms to the required specifications and meets the necessary quality standards.

Testing and Validation

Once the mold is completed, it is then tested and validated. This step is crucial to ensure that the mold can produce high-quality products efficiently and consistently. It involves testing the mold with different plastic materials and ensuring that it meets the necessary quality standards.

Production

The final step in making plastic bucket injection molds is production. Once the mold has been tested and validated, it is then used to produce high-quality plastic products. This stage of the process is critical to ensure the efficiency and profitability of the manufacturing process.

Common Materials Compatible with Bucket Mould

 

 

Acrylic (PMMA)
Poly (methyl methacrylate), better known as Acrylic, is a thermoplastic material that has decent mechanical strength, is lightweight, and has a clear, see-through appearance. Although not ductile, it sports good shatter resistance. Moreover, one of its biggest strengths is its ease of machinability. After injection molding, acrylic parts are easy to alter and finish.

 

Acrylonitrile Butadiene Styrene (ABS)
ABS is one of the well-recognized injection molding materials. It has good strength and toughness, impact resistance, and chemical resistance to acids, bases, and oils. It is completely opaque and can be injection molded in many colors. On top of this, it is quite cheap compared to other plastic injection molding materials in this list. ABS is highly suitable for industrial-grade applications like automotive parts and high-impact sports equipment. It is also very popular for rapid prototyping due to its costs and functional capabilities.

 

Polycarbonate (PC)
PC has outstanding toughness, shatter resistance, and impact resistance. It has a transparent appearance. Additionally, it has the desirable quality of maintaining its mechanical properties and appearance for a wide temperature range. Thus, it operates well in high-temperature environments. It does have excellent optical clarity, oftentimes better than glass. This makes it a very popular injection molding material for manufacturing helmet visors, protective machine shields, and goggles. PC, however, is proven to be bad for the human body, particularly the reproductive system. As a result, it is not suitable for industries like food and beverages.

 

Polyoxymethylene (POM)
POM is best known for its suitability for products requiring high precision. It has great dimensional stability due to its rigidity and stiffness. Moreover, it has a low coefficient of friction and good lubricity, making it ideal for contact-intensive applications. Furthermore, its properties remain stable at very low temperatures as well. It is preferable when plastic injection molding hard automotive components such as handles and switches. Moreover, its applications include kitchen knives, gears, furniture, and ball bearings.

 

Polypropylene (PP)
PP is found all around us, especially in our kitchen cabinets in the form of food containers. It is one of the most common plastic injection molding materials that are approved for use by the FDA. It is hard, heat resistant, chemical resistant, and recyclable many times. These qualities make it user-friendly. However, it has a high thermal expansion coefficient. This inhibits high-temperature applications. On top of this, this also makes it difficult to manage during injection molding. After injection molding, it also degrades under Ultraviolet (UV) light and acquires flammability. Some of its applications include food containers, rugs, toys, and home appliances.

 

Polyethylene (PE)
PE comes in three main categories that differ in density: High-Density Polyethylene (HDPE), Low-Density Polyethylene (LDPE), and Polyethylene Terephthalate (PET). Generally, PE grades are ductile, have good impact strength, and creep resistance (can hold mechanical loads for long periods of time without deforming much). Also, they are resistant to chemical reactions. HDPE is stronger and more rigid. Thus, it is useful for items like molding jugs, tubs, and pipes.

Components of Bucket Mould
 

 

Sprue Bushing
In an injection mold, the sprue bushing is the component that allows molten plastic to be injected into the mold's runner and proceed to travel along with it to reach the cavity. The runner system and the sprue bushing direct the material into the cavity through the gate. The runner system is the interface between the press and the injection mold. This part is made from hardened tool steel and is highly polished for optimum effectiveness to minimize stickiness. It is a replaceable part of the mold. A sprue bushing is critical for typical molding applications where conditions are dictated by parameters such as viscosity of the molding material, the volume of material flowing through the runner system, and the thickness of the mold plate of half of the cavity-half of the mold.

 

Core and Cavity Plates
The mold components that form the molded part are the core and cavity plates(also A and B plate). To take advantage of the ejector system (usually located in the core half of the mold), we mold the plastic product in the core plate whenever possible. However, some situations in which the plastic product design requires some of the plastic parts to be placed in the cavity plate for surface-looking consideration.

 

Runners and Gates
Injection molding is the process of heating molten plastic as it leaves the injection molding machine and enters the mold through the sprue bushing. Once it has entered the mold, the melt must be directed to the cavity image by the runner system and gates. Runners are pathways that are carved into the surface of the mold base. These are usually created using a ball-end mill, but you can also use an electrical discharge machine to create the runner system. As the gate is located at the end of the runner and is defined as one of the openings on a mold, it is considered a door. Designed and constructed to allow molten plastic to fill the cavity within a relatively short period of time and to fill the cavity rapidly, but under a controlled condition, this cavity filling device retains its function and remains effective in this regard. It is essential to keep the gate as thin as possible during the injection molding process to ensure proper flow and play a huge role in determining the overall cycle time of the process.

 

The Ejector Half
The ejector half of the mold comprises things like the ejector housing, the support plate, the support pillars, the ejector shaft and support design, the sprue pullers, and the guides for the ejector system.

 

Support Plate
In the ejector housing, a significant amount of unsupported section is located directly under the core plate of the mold, where it is shaped in the U shape. The open area beneath the core plate causes the plate to bow or bend, which leads to distortion. The amount of distortion is on the order of 0.010 in. (0.26 mm). This is enough to cause a lot of flash on the parting line and quickly result in a weakened B plate. The B plate is mounted directly behind a supporting plate to prevent major and minor distortions. This technique, consisting of two plates, the B plate and the support plate, provides much greater resistance to distortion than simply thicknessing the B plate.

 

Support Pillars
A support pillar is used to assist with the reduction (or elimination) of the B plate distortion placed between the ejector housing and the support plate of the mold. In addition to the support plate, support pillars are used to help reduce the distortion.

Maintenance Tips for Bucket Mould

 

Cleaning

Regular cleaning is essential. Dirt, debris, and residues can impair the performance of the mold and the quality of the products. Use non-abrasive cleaning methods like ultrasonic cleaning or dry-ice blasting to ensure the mold's integrity.

Inspection

After cleaning, inspect the mold for signs of wear, damage, or misalignment. Look for cracks, wear, rust, and other imperfections. Pay close attention to the vents, which can become clogged and lead to part burns or short shots.

Lubrication

Lubricate the moving parts of the mold to reduce wear and ensure smooth operation. Use a lubricant that is compatible with the material you are molding to avoid contamination.

Polishing

Polish the mold's surfaces to maintain a good finish on the plastic parts. Do not over-polish since this can alter the mold's dimensions and lead to part inconsistency.

Repair

If you find damaged components during the inspection, repair or replace them immediately. A small problem can quickly become a big one if not addressed promptly.

Preventive Maintenance

Implement a preventive maintenance schedule based on the manufacturer's recommendation and your tool's specific use history. This should include tasks like checking for looseness in the mold, lubricating, and cleaning.

Record-Keeping

Maintain a detailed record of every maintenance activity, including what was done, who performed the work, and when it was completed. This helps track the mold's performance and provides valuable data for future maintenance schedules.

Temperature Management

Ensure the cooling/heating system of the mold works effectively. Temperature variations can cause stress, leading to cracks and warping in the mold.

Storage

When not in use, store the mold in a controlled environment to prevent rust and degradation. Seal it properly and keep it in a dry, temperature-controlled area.

Training

Lastly, train your staff on proper mold handling, maintenance, and safety procedures. The longevity of a mold is greatly influenced by the way it is treated daily.

Our Factory
 

Zhenke Mold is a company that can manufacture precision molds and has many years of experience in mold design and production. 23,000 square meters of construction area and advanced equipment enable our factory to quickly create value for customers. 

 

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Ultimate FAQ Guide to Bucket Mould

Q: What is plastic injection mold structure?

A: Seven major systems make up a complete plastic injection mold. Consists of 4 parts: the main flow channel, manifold, gate, and cold cavity. The molding structure is the part that is in direct contact with plastic products, including the front and rear mold kernel, insert, slider, slant top, and other institutions.

Q: What is the composition of injection mold?

A: An injection mold is a tool comprised of a series of parts that allows molten plastic to be formed and cooled in such a way as to create a discrete part shape. Mold halves are attached to the molding platens by the clamp plates.

Q: What is the plastic bucket manufacturing process?

A: All plastic containers are made using either blow molding or injection molding equipment. A lot of buckets are constructed of high-density polyethylene. HDPE is a long-lasting, non-reactive thermoplastic that can withstand impact and harsh weather conditions either in transit or storage. In blow injection molding, raw HDPE polymer, known as stock at the start of the molding process, is fed into a hopper. The stock is then directed by the hopper into a conveyor tube, where a huge screw pushes it toward a mold. The mix of contact & pressure warms the stock as the screw spins. This heat treatment, along with the additional heat produced by heating elements installed along the channel, warms the stocks to the threshold of liquefaction. The liquid stock now fills a mold cavity and develops form. After that, pressurized air is pushed into the cavity, hollowing out the center of the plastic mold. The item is cooled and hardened when the molding process is completed. It is then expelled from the mold, cleaned of any defects (if any), and either dispatched or moved for further processing.

Q: How is the gate design of Bucket Mold determined?

A: Gate location is determined by many factors such as part material, size and complexity of shape. The closer the gate is to the parting line the smaller will be the part draft angle.

Q: How to design the runner of Bucket Mold?

A: The runner should be designed so that there are no sharp corners or edges at any point along its length. Sharp corners and edges can cause breakage of runners during ejection from molds leading to increased cycle time due to rework requirements and/or possible damage to molding machines. Part dimensional accuracy is also affected by runner design as it determines how well cooled parts come out of molds without distortion or warping; again leading to rework and/or damage if left unchecked.

Q: How to choose the size of Bucket Mold?

A: When choosing a bucket mold for injection molding, it's essential to consider the capacity you require. Bucket molds come in various sizes, ranging from small to large capacities. The capacity can be measured in liters or gallons, depending on your preference and application.

Q: What is a plastic bucket injection molding machine?

A: A plastic bucket injection molding machine is a specialized machine used to manufacture plastic buckets through the injection molding process. It involves injecting molten plastic into a Bucket Mould cavity, allowing it to cool and solidify, resulting in the production of high-quality plastic buckets.

Q: What are the Bucket mold design and structure?

A: A high-quality mold structure is a prerequisite for a qualified plastic bucket mold. We attach great importance to mold structure analysis, including drawing angle, product surface profile, gating system design, exhaust design, cooling system design, etc. The main problems in die structure design are tested repeatedly.

Q: What material is Bucket Mold made of?

A: In order to improve die life and product quality, we increase the hardness of die steel through heat treatment. We commonly used steel H13(48-52HRC), 2316(45-50HRC) and so on. In order to prevent the mold from eccentricity, we use the whole piece of steel as the bucket. The cooling system is very important. Single loop cooling mode is adopted, and a uniform water distribution channel is set as far as possible. All the small sliders will be nitrided to increase hardness.

Q: What are the advantages of using Bucket Mold for injection molding production?

A: Cost-Effective Mass Production
Plastic injection molding is highly efficient for large-scale production. Once the initial tooling and setup costs are covered, the per-unit cost decreases significantly as production volume increases.
Precision and Consistency
Injection molding allows for high precision and repeatability. Tight tolerances can be achieved, ensuring that each molded part is virtually identical to the next. This level of consistency of bucket mould is crucial for industries where product quality and performance are paramount.
Wide Range of Materials
Plastic injection molding supports a vast array of thermoplastic and thermosetting materials, including engineering-grade plastics with various properties like strength, flexibility, transparency, and heat resistance. This versatility allows manufacturers to select the right material for the specific application.
Complex Geometries
Injection molding can produce buckets with intricate and complex shapes that would be challenging or impossible to achieve using other manufacturing methods. This design freedom is particularly valuable for creating innovative and functional products.
High Production Speed
The injection molding process is fast, with cycle times typically ranging from a few seconds to a few minutes. This rapid production rate is crucial for meeting high demand and tight deadlines.
Minimal Material Waste
Injection molding generates minimal material waste since excess material can be recycled and reused in the process.

Q: What should I do if the Bucket Mold is rusty?

A: During the use of mold, there are often residues, scraps, oils, and the like in mold release. If it is not cleaned in time, it will affect molding of mold. After removing these impurities, butter is used to prevent rust. However, after butter is oxidized, it absorbs moisture in the air, and adhesion to mold is not strong. Moisture is generated from the gap between the grease and cavity surface, thereby causing rust. Therefore, special rust preventive oil should be used for maintenance. Before using mold that has been stored for a period of time, it is necessary to remove oil. Otherwise, oil entering the surface of cavity, inlaid part and ejector pin will often ooze out during molding, which will cause defects in injection molded plastic parts. Especially for injection molded plastic parts with transparent surface parts such as transparent injection molded plastic parts, degreasing is very important. The method of removing oil is to first disassemble the mold, and then scrub the rod and the core inlay with a solvent such as kerosene. For parts that cannot be disassembled, solvent can be injected and blown with compressed air while scrubbing. Cavity degreasing can be cleaned with a solvent such as ethanol or acetone.

Q: How to determine the damage of Bucket Mold?

A: Under the normal operation of the injection molding, various properties of the mold shall be tested, and the size of the plastic injection molded parts shall be measured. Through this information, the existing status of the mold can be determined, and the damage to the cavity, core, cooling system, and parting surface can be found. According to the information provided by the plastic mold parts, the damage status of the mold and the maintenance measures can be determined.

Q: Which materials make Bucket Mold highly reliable?

A: The quality of the plastic bucket mould is crucial for producing high-quality buckets. Look for moulds made from durable and reliable materials, such as high-grade steel or aluminum, which offer longevity and resistance to wear and tear.

Q: What is the purpose of Bucket Mold's cooling system?

A: The cooling system of the plastic bucket mould plays a significant role in the production process. A well-designed cooling system ensures uniform and consistent cooling of the plastic material, resulting in faster cycle times and improved productivity.

Q: How long does it take to build a mold?

A: Each project is unique, so we require varying amounts of time to build molds. The lead time for mold fabrication depends on the complexity of the mold. Mold builds can vary from 4 weeks to 6 months depending on the project complexity.

Q: What's the difference between cold and hot runner molds?

A: Ever since its introduction in the late 19th century, plastic injection molding has revolutionized the way we create plastic products. Although the technology has evolved significantly over the years, many injection molds today still fall into two main categories: hot runner and cold runner systems. A hot runner mold uses a heated runner to transfer molten thermoplastic or polymer to the mold cavity where the final product takes on its shape. A cold runner mold uses an unheated runner channel to transfer the molten material from the machine nozzle to the mold cavity.

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