Parts Cleaners

Chapter One: What is a Parts Cleaner?

A parts cleaner is a specialized device designed to eliminate grease, dirt, and contaminants from manufactured components before they are shipped or moved for additional processing. This cleaning process not only prepares the parts for their next stage but also allows for quality control by identifying potential defects, imperfections, or distortions.

The parts washing process is designed to clean and decontaminate large quantities of components swiftly and effectively. It utilizes environmentally friendly and biodegradable chemicals, making it a sustainable and safe option for cleaning.

Chapter Two: How Parts Cleaners Work?

When planning the parts cleaning process, the primary factor to consider is the quantity of parts that need to be cleaned. While the volume doesn’t change the fundamental steps of the process, it does influence the method chosen. For a small number of parts, manual cleaning or brushing might be sufficient, whereas larger quantities will necessitate the use of specialized parts cleaning equipment.

Regardless of the cleaning method selected, it is essential to use some form of solvent, cleaner, or chemical to achieve optimal results. Manufacturers of parts cleaners offer a diverse range of cleaning agents specifically designed to thoroughly sanitize and clean various types of parts.

How Parts Cleaners Work

Pre-Cleaning

For hand cleaning, all tasks can be completed in a single step. However, when using parts cleaning equipment, the process involves multiple stages, starting with pre-cleaning. This initial phase occurs in a designated area of the machine where the parts are prepared and pre-cleaned before entering the main cleaning bath. Pre-cleaning typically involves a light spray or thorough rinsing to remove dust and other loose debris from the surface of the parts.

Cleaning

During the cleaning stage, the part is placed into the cleaning equipment. The equipment varies widely, from compact units about four feet tall to large conveyor systems used in production lines. In smaller units, pre-cleaning is integrated into the machine's overall operation. Conversely, larger conveyor systems are divided into sections, or zones, where each stage of the cleaning process is carried out. These zones are equipped with access doors for maintenance or repairs.

Rinsing

The rinsing stage is crucial for ensuring that parts are thoroughly cleaned. The specific rinsing requirements depend on the standards set for the cleaning process. Typically, city water is used for rinsing, often supplemented with deionization, reverse osmosis, or purified water to remove any residual cleaning agents or solvents.

The effectiveness of the rinsing cycle directly impacts the cleanliness of the parts. Rinsing is not meant to rewash the parts but to eliminate any remaining cleaning agents. While multiple rinses can enhance the cleaning quality, they can also increase the overall cost.

Water is a fundamental component of the cleaning solution, comprising 95% of it. Although tap water is generally safe for drinking, it is not suitable for cleaning parts due to its calcium and magnesium content, which can leave spots and accumulate on heated surfaces. The rinse system integrated into a parts cleaner purifies the water to ensure it is optimal for cleaning.

Corrosion Protection Rinse

Following the cleaning process, some parts may have exposed surfaces that are vulnerable to corrosion. To address this, an additional step called a corrosion rinse is applied. This rinse offers protection against corrosion without contaminating the surface, ensuring the part is safeguarded before proceeding to further processing.

Alternate Cleaning Methods

While solvent and chemical cleaning is a widely used method for parts cleaning, there are alternative solid cleaning techniques that do not involve chemicals and may skip some steps found in liquid or wet processes. For example, one method employs pellets to blast away grime and dirt, while the dry ice (CO₂) process is used for cleaning sensitive and delicate parts.

Other cleaning methods include ultrasonic cleaners, vibration cleaners, lasers, brushes, and air blow systems. These techniques are generally less invasive compared to solvent-based or dry ice cleaning methods.

The choice of cleaning process depends not only on the volume of parts but also on the specific requirements of the parts themselves. For delicate or technically complex parts, a more careful and efficient cleaning approach may be needed. Regardless of the method, parts cleaning remains a critical step in the production of all manufactured products.

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Chapter Three: What is the power density of parts cleaners?

When selecting parts washers, a key factor to consider is the effectiveness of the cleaning process. One critical measure of this effectiveness is power density, which gauges the power of a device or power supply unit. This is particularly significant in relation to the internal capacity of the system.

For parts cleaners, power density refers to the amount of cleaning energy, measured in horsepower, relative to the cubic feet of the cabinet volume. As the dimensions of the parts cleaner—such as its diameter and height—increase, the power density decreases exponentially.

When evaluating different parts cleaners, it is crucial to assess the horsepower of the pump in relation to the cleaner's working volume, as illustrated in the image below.

When assessing the performance of an aqueous parts washer, four key factors must be considered: mechanical energy, temperature, detergent, and time. A cleaner that combines high mechanical energy with elevated temperatures can achieve shorter cleaning cycles and superior performance. The effectiveness of the parts cleaner is also influenced by the pump motor and the quality of the nozzles. Additionally, power density is a crucial consideration.

As the size and volume of a parts cleaner increase, the power density also changes. For optimal performance, the power density must be appropriately matched to the cleaner’s volume. As the volume grows, it is necessary to adjust the horsepower of the pump and pump motor accordingly to maintain the desired power density.

Power density is a crucial factor in evaluating the performance of parts cleaners. A parts cleaner with inadequate horsepower may struggle to effectively clean parts if its volume exceeds the pump's capacity. Manufacturers provide specifications on the pump motor’s horsepower relative to the power density to help assess performance. Engineers take this information into account when designing parts cleaners to ensure they meet the required cleaning standards.

Chapter Four: What are the different types of parts cleaners?

Parts cleaners come in a wide range of models, with new designs continually emerging to address the evolving needs of manufacturers. Specialized cleaners are essential for tackling the challenge of cleaning complex and uniquely designed parts, particularly those with intricate details that require thorough cleaning of hard-to-reach areas.

There is a specific parts cleaner suitable for every task, regardless of its size or volume. For instance, parts cleaners used in auto repair shops tend to be smaller and more affordable compared to those designed for high-volume manufacturing environments. Despite their size differences, each type is engineered to deliver the necessary efficiency and effectiveness for its intended application.

Spray Parts Cleaners

Spray parts cleaners are among the most widely used types. They operate by using nozzles positioned at various angles to apply a combination of cleaning solution and water at high pressure. This pressurized spray effectively removes soil, grime, grease, oil, coolants, and other contaminants from the parts. Spray cleaning systems are commonly integrated into conveyor setups and cleaning cabinets.

The spray cleaning process is automated. Once parts are loaded into the system, the cleaner executes each stage of the cleaning cycle automatically.

Immersion Parts Cleaners

Immersion parts cleaners consist of tanks or containers filled with a mixture of water and cleaning solution. This method is ideal for disassembled parts that require a prolonged soak in the solvent. Many immersion cleaners include agitation features, akin to those in household washing machines, to enhance the cleaning action. Additionally, some models combine immersion with ultrasonic cleaning, utilizing high-frequency vibrations produced by transducers. This combination is especially beneficial in the biotech and pharmaceutical industries for thorough cleaning of delicate components.

Rotary Drum Parts Cleaners

The rotary drum cleaner can be equipped with either perforated spray nozzles or function as a solid drum for immersion cleaning. As the drum rotates, it keeps the parts in continuous motion, enhancing the cleaning efficiency. The drums can differ in dimensions, rotation speed, and cleaning intensity. Rotary drum cleaners are designed to blend a gentle tumbling action with either immersion or spray methods to ensure thorough cleaning.

In a typical rotary drum cleaning cycle, the process starts with agitation to clean complex areas such as blind holes, hollows, and tubes. After cleaning, the parts are rinsed and dried. One of the key advantages of rotary drum cleaners is their durability, primarily attributed to the stainless steel construction of the drum.

Tumbler Parts Cleaners

Among the diverse range of parts cleaning equipment, part tumblers often don't receive the attention they deserve, despite being a highly efficient and well-engineered solution. Primarily used in the automotive industry, part tumblers excel in removing burrs and polishing parts. There are two main categories of parts tumblers: vibratory and rotary.

Both vibratory and rotary tumblers share a similar construction, featuring a barrel, base, drive system, motor, and gear assembly. The key difference lies in the type of motion they generate during the cleaning process. Both types can be employed for wet or dry deburring and are equipped with speed control features.

Rotary Parts Tumblers

Rotary tumblers are equipped with a hexagonal or cylindrical barrel, along with a base, drive mechanism, motor, and gear assembly. The cleaning action in a rotary tumbler involves rotating the barrel with abrasive media inside, which generates a sliding motion. This method is known for its speed and effectiveness in both deburring and polishing parts.

Vibratory Parts Tumblers

In contrast to rotary tumblers, which rely on rotational movement, vibratory tumblers use a high-frequency side-to-side agitation. This rapid oscillation creates friction that effectively grinds the parts against one another, thoroughly cleaning their surfaces. Vibratory tumblers are particularly suited for processing small to medium-sized parts.

Conveyor Parts Cleaners

Conveyor parts cleaners are engineered to handle the high-volume cleaning of numerous parts in a streamlined, continuous process. While there are standard conveyor systems available, many are custom-designed to align with specific assembly operations. Common configurations include u-bend, monorail, and in-line systems.

These conveyor systems can be incorporated into existing assembly lines or operate as standalone units, based on operational requirements. Their flexibility allows conveyor parts cleaners to adapt to various applications and processes efficiently.

U-Bend

In a u-bend system, parts are introduced into the cleaning unit, processed, and then returned to the operator in a continuous loop. This setup resembles the conveyor mechanism found in commercial dishwashers.

Monorail

A monorail system features a traditional conveyor's functionality but differs in that it transports parts using an overhead monorail. Components are mounted on custom supports that guide them through various cleaning stages. Each monorail system is tailored to meet the specific requirements of the parts and their intended application.

In-Line

In an in-line or tunnel parts cleaner, parts are fed onto a conveyor at the entry point and exit thoroughly cleaned at the end. During their journey from entry to exit, the parts pass through multiple zones or stations, each dedicated to a specific cleaning process.

Ultrasonic Parts Cleaners

Ultrasonic parts cleaners use high-frequency sound waves, typically above 20 kHz, to remove contaminants such as dirt and grime. This process involves ultrasonic cavitation, where sound waves create rapid pressure changes that form bubbles in the cleaning solution. These bubbles collapse with force, generating heat and energy that dislodges debris from the surfaces of the parts. This method leverages sound frequencies beyond the range of human hearing to enhance the cleaning action.

Ultrasonic cleaning is highly versatile and can be customized to meet various cleaning requirements, from delicate medical instruments to complex aircraft components. Adjustments can be made to the cleaning temperature, solution, duration, and frequency of the ultrasonic waves to accommodate different cleaning needs.

Agitating Parts Cleaners

Agitating parts cleaners are a variation of the immersion cleaning technique. In this method, parts are submerged in a tank filled with a cleaning solution, and both vibration and mixing are used to enhance the cleaning process. The vibrations are generated by impellers, creating a cavitation effect similar to that in ultrasonic cleaning, but at a less intense level. This agitation is further supported by high-pressure spray nozzles, which effectively clean blind holes and complex features of the parts.

Some surfaces need a gentler cleaning method that uses a milder but effective media. While shot blasting, which employs shards or beads, can be too harsh and alter the surface structure, soda blasting offers a more balanced approach.

Soda, rated 2.5 on the Mohs scale, is non-abrasive and will not etch or distort the surface being cleaned. It is particularly effective for cleaning softer, ductile metals like aluminum, and can remove contaminants such as dirt, grease, grime, paint, and carbon deposits. Soda blasting can be performed using either a slurry or a dry blasting method and typically does not require pre-washing of parts.

Specialized equipment is necessary for soda blasting because soda does not flow as easily as other abrasive materials.

Vacuum Degreasers

Traditionally, parts were degreased by placing them in an open-top vapor degreaser (OTVD), initiating the process, and then removing the cleaned part once the solvent had done its job. However, due to concerns over high costs and safety, OTVDs are being gradually replaced by vacuum vapor degreasers (VVDs). VVDs offer the same cleaning capabilities with improved safety and cost-efficiency.

The effectiveness of VVDs lies in their ability to remove air from the cleaning process, which allows uncontaminated vapor to swiftly clean the part's surface. By eliminating air from the chamber, VVDs prevent any obstructions that could impede the vapor’s action. This technology enhances the degreaser's efficiency, enabling it to clean challenging areas such as blind holes and intricate designs. The cleaning solvent can thoroughly reach surfaces that were previously obstructed by air.

Vacuum degreasing addresses many limitations of older equipment, which, despite being effective, produced high emissions and consumed excessive energy. Modern vacuum degreasing systems eliminate these drawbacks, offering a more efficient and environmentally friendly solution.

Robotic Parts Cleaners

Robotic arms equipped with six-axis capabilities provide a versatile solution for various manufacturing tasks such as deburring, flash removal, cleaning, and parting line removal. Driven by pneumatic systems, these robotic arms offer rapid, efficient, and safe defect removal in parts production. They can be programmed for extended reach and precise movements, with additional axis options available through turntables and linear tables to further enhance their operational range.

During the cleaning process, robotic arms use grippers to secure and properly position the workpiece for effective access. These robotic systems can be programmed to handle both cleaning and drying tasks. Advanced methods like CO₂ or dry ice blasting are employed to remove dust, oil, and sub-micron particles. These non-abrasive techniques are safer and generate no secondary waste. CO₂ blasting is suitable for a range of materials, including metals, plastics, and composites.

Chapter Five: What is solvent parts cleaning?

Modern manufacturing demands high levels of precision and accuracy, requiring parts to be thoroughly cleaned of all contaminants before assembly. While water-based cleaning methods are effective to some extent, they often fall short of meeting the stringent cleanliness standards required for production.

To address these needs, parts cleaner manufacturers collaborate with chemical companies to formulate solvents that are both effective and environmentally friendly. These solvents must be tailored to specific temperature requirements and can include various chemical compositions, such as chlorinated, brominated, fluorinated, or alcohol-based solutions.

When selecting cleaning chemicals, several factors must be evaluated, including health risks, flammability, and overall performance. Low-performing chemicals might necessitate higher temperatures and additional equipment, while fast-drying solvents pose safety hazards and require meticulous handling. Conversely, slow-drying solvents offer excellent performance but generally require supplementary drying processes.

Parts intended for manufacturing must be cleaned thoroughly before final assembly. Contaminants such as cutting oil, grease, and grime from production processes need to be removed to ensure product quality. Solvent-based cleaning methods are commonly used for this purpose, as they offer lower surface tension and viscosity compared to water, allowing them to penetrate into gaps, blind holes, and complex configurations. Solvents effectively wet the surfaces and evaporate from confined spaces.

Solvent based fluids provide lower surface tension and are less viscous than water, allowing them to get into gaps, blind holes, and intricate configurations. Solvents wet the surface of the parts and evaporate out of small tight areas.

Mineral Spirits

Mineral spirits are a popular choice for parts cleaning due to their efficiency in dissolving oil, grease, dirt, grime, burnt carbon, and lubricants. Typically, petroleum-based mineral spirits are used in immersion parts cleaners due to their strong cleaning properties. However, these substances are highly volatile and flammable, making them unsuitable for use in many other types of parts cleaning equipment. Despite their effectiveness, mineral spirits pose significant health and environmental risks due to their toxicity.

Naphtha

Naphtha, a petroleum-based cleaner, is employed in the immersion parts cleaning method due to its potent and aggressive cleaning capabilities. It effectively removes contaminants without harming the surface of the parts. However, naphtha has a more intense odor compared to mineral spirits, which can be a significant drawback.

During the parts cleaning process, naphtha is kept in a reservoir beneath the cleaning unit. It is drawn from the tank under low pressure and applied to the parts through a spray nozzle for effective cleaning.

Bromide

Bromide is utilized for cleaning lightweight metals and alloys due to its strong cleaning capabilities and quick evaporation, which facilitates faster cleaning processes. It operates effectively at moderate temperatures, contributing to reduced energy consumption and cost savings. Unlike petroleum-based solvents, bromides are non-flammable and do not possess a flash point, enhancing safety during use.

Oxygenated

Oxygenated solvents, which contain oxygen in their molecular structure, offer high cleaning power while maintaining low toxicity levels. Ensuring the purity of these solvents is crucial, requiring careful purification during processing. Despite their high purity standards, oxygenated solvents are generally cost-effective.

Halogenated

Halogenated solvents contain halogen atoms such as fluorine, bromine, iodine, or chlorine. They are known for their non-flammable nature and rapid evaporation, making them effective cleaners. However, due to their significant environmental impact, their use for parts cleaning has become increasingly discouraged in recent years.

Alkaline

Alkaline cleaners are highly effective when mixed with water. They work best when combined with mechanical action and appropriate temperatures, efficiently removing contaminants and particulate matter. The degree of effectiveness depends on factors such as the type of contaminant, the volume of parts, and the level of automation in the cleaning process.

Alkaline cleaners typically consist of alkaline salts, wetting agents, and sequestrants. They quickly dissolve contaminants from metal surfaces and rinse off easily. Alkaline solutions are effective in dissolving oils and are used across various systems, including immersion tanks, spray cabinets, conveyorized systems, and ultrasonic cleaners.

Fluorinated

Fluorinated solvents, also known as fluorosolvents, are used to clean oils, residues, flux, and contaminants from parts in high-volume operations. These solvents are recognized for their environmental benefits as they do not possess a flash point or contribute to ozone depletion. Additionally, they have a low global warming potential and minimal surface tension effects. Fluorinated solvents effectively penetrate contaminants without causing damage to the underlying materials.

Chapter Six: What are aqueous parts cleaners?

The primary distinction between aqueous and solvent parts cleaners lies in their chemical composition. Solvent-based cleaners typically utilize petroleum-derived chemicals such as alcohols, chlorinated hydrocarbons, and terpenes. These solvents can be flammable and reactive, posing safety risks under certain conditions.

In contrast, aqueous cleaners are water-based solutions containing natural chemicals. They often include additives like surfactants, solvents, acids, alkaline agents, and inhibitors to improve their cleaning efficiency and address specific needs.

Aqueous cleaners are praised for their environmental safety, as they contain no volatile organic compounds (VOCs), hazardous pollutants, or flammable materials, and have minimal global warming potential. They dilute easily in water and rinse thoroughly after use. Various aqueous cleaners are available that work well with different cleaning methods, including spray, immersion, and ultrasonic cleaning.

The aqueous cleaning process is both quick and efficient, allowing parts to be loaded directly into the cleaning system without the need for pre-washing, soaking, or scrubbing. This simplicity makes aqueous cleaners cost-effective and reduces labor requirements.

Aqueous Parts Cleaners

Aqueous cleaners use hot water, a cleaner, and mechanical energy to remove dirt, grime, contaminants, and soil from parts. Their main benefit is their safety since they do not use any form of petroleum or flammable products that can produce harmful odors and be environmentally unsafe.

Benefits of Aqueous Cleaners

Waste Production

One significant concern for society is the volume of industrial waste generated during manufacturing processes. A notable advantage of aqueous cleaners is their ability to produce minimal waste, making them an environmentally friendly option.

Additionally, aqueous cleaners help reduce scrap and material waste. Their gentle cleaning action prevents damage to the parts being cleaned, which means fewer parts are discarded due to scratches or blemishes. This not only lowers waste but also contributes to overall material conservation.

Vapors

One major issue with mineral and other petroleum-based solvents is the significant air pollution they generate, which poses risks to both workers and the surrounding community. Aqueous parts cleaners address this problem by providing a cleaner alternative that does not contribute to air pollution.

Cleaning Solution

In the parts cleaning process, it's crucial to filter and clean the water to remove any residual cleaning agents, addressing both safety and environmental concerns. For aqueous cleaners, the cleaning solution can often be recovered and reused, minimizing contamination risks and enhancing sustainability.

Cost

Cost is a significant consideration in manufacturing, and aqueous cleaners often present a more economical option due to their reduced pollution potential. Their setup and operational footprint are generally less expensive and more efficient compared to other systems.

By eliminating petroleum-based cleaners, you also reduce the risk of damage to parts cleaning equipment. Petroleum solvents can degrade equipment surfaces over time, leading to increased maintenance and reduced equipment lifespan.

Aqueous Ultrasonic Parts Cleaners

Ultrasonic parts cleaners utilize high-frequency sound waves to generate cavitation bubbles that break down contaminants at a molecular level. This process, enhanced by the use of aqueous cleaning solutions, accelerates and amplifies the cleaning action.

In response to environmental concerns, parts cleaner manufacturers are increasingly adopting aqueous cleaners as a safer alternative to traditional solvents. As a result, there has been a significant increase in the integration of aqueous solutions with ultrasonic cleaning, as well as with spray and immersion methods.

Chapter Seven: What are the benefits of using parts cleaners?

In today's manufacturing landscape, technology plays a crucial role in producing products and components quickly and efficiently. As demands for speed and precision rise, every stage of the process must be executed flawlessly, minimizing the need for reprocessing and reducing waste. Essential to this efficiency are parts cleaners, which prepare components for integration into final products.

The performance of parts cleaners is pivotal in ensuring that components meet the required quality standards and customer expectations. Dirty or defective parts can lead to production delays and increased costs.

The Benefits of Parts Cleaners

Reduced Labor

Cleaning parts by hand is both time-consuming and inefficient, especially in a fast-paced production environment. As the demand for quicker turnaround times increases, relying on manual cleaning becomes impractical. It lacks the efficiency and capacity of modern parts cleaners. Utilizing pressure washing and agitation-based parts washers not only enhances cleaning effectiveness but also allows labor to be redirected towards more critical tasks.

Increased Cleanliness

Removing various types of lubricants, oils, grease, and other contaminants from part surfaces can be highly challenging. Parts cleaners are designed to tackle these tough residues, ensuring that grime is removed efficiently and safely.

Safety

Cleaning agents and solvents used to remove contaminants from parts can be aggressive and potentially hazardous. Parts cleaners mitigate these risks, promoting a safer working environment by handling the cleaning process efficiently and effectively.

Productivity

Parts cleaners swiftly and effectively clean parts, ensuring they are ready for use. In the competitive landscape of today’s market, the speed of processing enhances productivity and optimizes the use of time and resources.

Cost Reduction

In addition to lowering labor costs, modern parts cleaning equipment is designed to use less power and water, thanks to its advanced technology. These machines also offer a longer operational lifespan, which helps to minimize equipment costs. Parts cleaners are durable and require infrequent repairs, allowing them to operate continuously with high efficiency.

Space Saving

Parts cleaners are available to suit every type of manufacturing operation. Whether it's a compact unit for automotive repair or an extensive conveyor system for large-scale assembly lines, parts cleaners can be customized and engineered to fit any specific space or configuration.

Efficiency

Efficiency and time management are crucial in manufacturing operations. Producing high-quality products quickly is essential to staying competitive in the market. Parts cleaners meet these demands by effectively preparing parts without escalating costs or utilizing additional resources.

Eco-Friendly

Growing environmental concerns have heightened awareness among producers, particularly those working with solvents and chemicals. Today’s parts cleaner manufacturers are increasingly focused on creating equipment that cleans parts effectively while minimizing environmental impact. This shift has led to the development of parts cleaners designed to leave a minimal ecological footprint, utilizing recyclable and reusable materials.

Chapter Eight: Which industries use parts cleaners?

Efficiency is crucial for every industrial operation, forming the foundation of effective production and customer satisfaction. As a result, parts cleaners have become indispensable across various industries, from small-scale toy manufacturers to major automobile producers.

In today’s competitive market, the quality of the final product sets companies apart. Consumers are increasingly demanding higher value from their purchases, prompting producers to refine their processes to ensure superior product quality. Consequently, parts cleaners have emerged as a vital component in maintaining high standards throughout production.

Industries That Use Parts Cleaners

Medical Devices

Medical instruments require flawless cleanliness and precision. In the production of medical equipment, a closed-loop cleaning system is employed, which integrates washing, rinsing, and drying into a single streamlined process. For enhanced cleanliness, a multi-step process is used, including cleaning, rinsing, passivation, additional rinsing, and drying, often utilizing ultrasonic technology. Parts cleaning equipment in the medical instrument industry is designed with precision engineering to meet these stringent requirements.

Aerospace

The aerospace industry demands exceptional cleaning for sensitive parts and aircraft sensors, which require precision engineering and machining. Ensuring the highest quality of parts is critical due to the need for accuracy and safety in aircraft operations. This heightened requirement places significant demands on parts cleaners to deliver superior cleaning performance, effectively removing all contaminants and particulate matter.

Automotive

The cleaning process for automobile parts falls into two main categories: manufacturing and repair. In the repair category, individuals and repair shops use parts cleaners to remove accumulated materials from used parts to assess their reusability. In manufacturing, the focus is on ensuring the precision and quality of parts to meet the demanding conditions of vehicle use, thus guaranteeing the final product's reliability and performance.

Pharmaceutical

Parts cleaners for the pharmaceutical industry must adhere to stringent cleanroom standards. The production of labware, instruments, and tools is meticulously monitored to ensure the highest levels of cleanliness and hygiene. Consequently, the processes for manufacturing pharmaceutical parts require precision-engineered cleaning equipment to meet these rigorous standards.

Food Processing

While the standards for food processing may not be as stringent as those for medical and pharmaceutical industries, producers must still comply with the Food and Drug Administration (FDA) regulations. The FDA provides comprehensive guidelines for the equipment, parts, and machines used in food production. These requirements necessitate the use of parts cleaning tools that integrate seamlessly into production processes and deliver thorough cleaning.

Energy

The energy industry shares similar concerns with the aerospace sector due to the harsh and hazardous conditions involved in energy production. The volatile nature of energy production requires that components and parts be free from residues or potential contaminants that could pose risks. Parts cleaners play a crucial role in ensuring that components are thoroughly cleansed of any potential hazards, meeting the stringent requirements of the industry.

Optics

The optics industry demands meticulous pre-sanitization of its components, such as fiber optic glass, microscope lenses, telescope lenses, and lighting instruments. Parts cleaners are essential for removing oil, burrs, fine metal particles, and soil from glass and quartz surfaces. A critical aspect of this process is the thorough rinsing, which ensures that no residue or product buildup remains, maintaining the high standards required for optical clarity and performance.

Conclusion

• A parts cleaner is a cleaning device that uses various types of solvents, cleaning agents, and processes to remove grease, grime, and contaminating materials from manufactured parts prior to being shipped or moved on for further processing.
• The parts washing process is capable of cleaning and decontaminating any number of parts quickly and efficiently.
• The first consideration when looking at the parts cleaning process is to determine the number of parts to be cleaned. Though the numbers do not affect the steps of the process, they do affect the type of process to be chosen.
• During the process of choosing parts washers, a main consideration is how effective the cleaning process is. One of the factors that determines the quality of the cleaning is the power density.
• There is a specific type of parts cleaner for any operation, regardless of size or volume.

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