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Amanda Bunch

Amanda Bunch started her career in Advertising working for Dentsu America and Mindshare. She worked on top brands such as Japan Airlines, Bandai Toys, Brandman University, Hass Avocados, Summit Entertainment, Pantelion Films and Lionsgate Entertainment Films. As a Media Planner she was in charge of planning and buying media placement. Her job was to decide the best communication channels and platforms to reach the target demographic. This experience is where she gained her vast knowledge of branding, consumer analysis and market positioning. In January 2014 Amanda moved from the agency side of marketing to the client side. She has been working on improving CleanLogix LLC brand awareness. The marketing focus has been on educating the marketplace on the innovative technology and establishing a strong presence in the Precision Cleaning industry.
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5 Tips For Maximizing Your CO2 Rental

Posted by Amanda Bunch on Jan 24, 2018 1:39:49 PM

CleanLogix offers, through its reseller partner Clean Imagineering, CO2 composite spray cleaning equipment rentals.  Renting provides the opportunity to test-drive our CO2 spray cleaning technology in the lab or on the production floor before you consider moving to the next step.  Develop proprietary cleaning processes for your parts cleaning applications confidentially in your own facility. 

Renting our equipment helps to create internal support and development of a CO2 champion that will insure successful adoption – from lab to production floor.  Invite your production, quality, environmental, and procurement associates to understand the mechanics and benefits of this technology.

The CleanLogix technical team is available to help you successfully develop your proprietary cleaning application and to understand the elements needed for production-scale equipment using the cleaning process you have developed.

Let's look at 5 tips to better maximize a CO2 composite spray equipment rental and ensure a productive and enjoyable testing experience.

 

RENTAL PROGRAM: TRY BEFORE YOU BUY

 

1. Try Before You Buy

Most people test drive a vehicle before they buy. So why not test drive our CO2 technology before you purchase a system? The main benefits of renting are the small initial investment, ability to test various applications in-house, and discounts off the purchase price. 

Companies do not adopt new equipment and processes without testing first.  In this regard, CleanLogix offers two ways to achieve this: 1) In-house sample parts and analysis and 2) Cleaning equipment rentals. 

Renting can be the best way for companies to adopt new technology, allowing the lead process development engineer to demonstrate efficacy and benefits directly to all interested departments and colleagues.  Our team can work with you develop a test plan that provides the best chance of success.  Indeed, we have found that many of our customer success stories started with a rental for on-site R&D tests before making the transition to purchasing a system. Practice makes perfect and renting can determine the perfect product to meet your company's needs.

2. Get Consulted

REQUEST A CO2 CONSULTATION

With over 30 years of experience in the CO2 technology field, our team is ready to provide you with all the guidance you need to be successful in using our CO2 rental equipment. This program works well, particularly if you are new to the technology or have used different CO2 technology in the past.

The CO2 consultation program provides an introduction of CleanLogix, our various CO2 technologies, and commercial products we offer.  The consultation is a platform for us to learn about your cleaning challenges and what we think might help you.  Customers who engage with our team before renting or buying have a higher success rate than those that go into the process blindly and execute solo. All consultations are free, so why not take advantage!

A typical consultation takes between 45-60 minutes. We will cover a brief background of CleanLogix and then focus on your application.  Our discussion will range from your current cleaning application and challenges, to potential CO2 cleaning and contamination control options.  Specialty areas include build-clean and surface preparation for bonding applications. 

To get an idea of how the meeting will go, following are a few of our questions:

“Please tell us about your cleaning application and what you are looking to achieve using our CO2 technology?”

“Please tell us a little about your current cleaning system and process?”

“Do you have an active budget for this project?”

"How soon are you looking to solve your cleaning problem?”

“Now that we have heard about and understand your cleaning application and cleanliness challenge, we will provide a detailed recommendation as a follow-up.”

“Here are what probable next steps should be based on your timing and budget.”

We are here to help you be successful using CO2 technology. We want your experience with our company to be informative, actionable, and a return on your investment.

3. Plan for Success

To achieve any goal you must have a plan that guides you to the desired result. The main reason customers seek our technology is because they are looking to solve a problem that cannot be solved productivity or economically using an alternative technology, for example aqueous cleaning.  As evidenced by our global partnership with Hitachi High-Tech, we are recognized experts in CO2 precision cleaning and pride ourselves on having the most experience and knowledge as compared to our competitors.  Over the past 30 years, we have solved hundreds of unique cleaning problems for companies representing nearly every precision product manufacturing market and industry.

We collaborate with our partner Clean Imagineering (www.cleanimagineering.com) who specializes in laboratory samples testing, rentals, demos and testing/analysis. We don’t ship you the system and say good luck! Before you begin your trials you will be given a test plan, operation and maintenance manual, and a Quick-Start operations set-up training video. In addition, you have the option to have Clean Imagineering test samples in-house and provide you with a concise test and analysis report.  We want you to be completely informed and confidant that the system you want to rent will resolve your cleaning challenge.  The CleanLogix and Clean Imagineering teams are here to answer your questions and work through any issues step by step.

Below is an example test plan and analytical report:

The sample test plan outlines the procedure - both cleaning and analytical testing - that will be performed for your application. If it is decided during the consultation that the testing should be performed by our in-house laboratory team, we will provide you with a final laboratory report in conjunction with the plan.

4. Apply What You Have Learned

If we achieve success during in-house test trials (yes, it worked!) now what? It would be beneficial to perform a simulated production line or tool test using our rental equipment. Step 1 validates efficacy of our cleaning technology with regards to your application and Step 2 validates that this cleaning technology will perform in production (with proper scale-up and facilities).  If the demo equipment trial meets and/or exceeds expectations then our scaled production systems will do even better.

However, with that said it is important to keep in mind that the rental systems have limited capacity and are used systems. If the qualification gets to the point of production trial, then it would be the time to start looking into purchasing a production capable system.

5. Take Credit

Rentals are loaned out for one to three months at a time. Make the best use of your rental time to decide if this technology works for your application. One of the greatest advantages for renting before buying is that if you rent a unit for a minimum of two months, you will be credited the two month rental fees off the total purchase price.

Renting allows a potential customer to test the technology in a short time period with little investment and provides the qualitative results to procure a purchase approval.

 

Ready for next steps? Try our free CO2 Consultation.

REQUEST A CO2 CONSULTATION

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Topics: Surface Preparation, CO2 Cleaning, CO2 Precision Cleaning, CO2 Composite Spray, CO2 Technology

The CO2 Cleaning Story

Posted by Amanda Bunch on Dec 11, 2017 9:24:01 AM

Ever wonder how precision cleaning using CO2 got started? How did a natural gas like CO2 get turned into a high tech cleaning process for the Aerospace, Medical, Optical, Microelectronic and Hard Disk Drive markets? Several important factors have influenced and ignited the need for cleanliness in manufacturing such as concern for the environment, economic competitiveness and technology.

 

   DOWNLOAD CERAMIC INDUSTRY MAGAZINE PUBLISHED ARTICLE NOV 2016

1990's CFC Phase-Out

Alternative Precision Cleaning

According to Mark Skaer in an article entitled The 1990s: The Decade of Refrigerant Chaos - and Change, "The 1990's was termed decade of refrigerant chaos and change. Cooling was a hot and heavy subject debated throughout the entire world this past decade. The original protocol called for a 50% reduction in chlorofluorocarbon (CFC) chemical production by 1998. The refrigerants used in well over 95% of the world’s systems were to be eventually phased out during the decade of the 90s. Engineers, wholesalers, contractors, and mechanics were all affected. So were system manufacturers, chemical producers, and component manufacturers (theNews, http://bit.ly/2AH8Ygx)."

Similarly, in the 1990s manufacturers of industrial and commercial products were also significantly impacted by the chlorofluorocarbon (CFC) phase-out, and in particular the use of CFCs in precision cleaning processes.  During this time, alternative precision cleaning practices (new and old, wet and dry) were widely investigated. Many manufacturing companies were looking for a cleaning replacement that did not affect ozone depletion, maximized energy efficiency and had recycling practices. 

CO2 was considered an alternative method due to many attractive properties enabling its use as a cleaning agent. New dry cleaning alternatives emerged, including centrifugal liquid carbon dioxide (CO2) degreasing, CO2 snow, CO2 composite spray, laser and plasma. However, due to the maturity, widespread availability, and knowledge of aqueous cleaning equipment and processes at the time, industry predominantly changed to wet (aqueous) cleaning practices.

Aqueous cleaning did resolve the immediate cleaning problem however, with it came a vast amount of costs: equipment maintenance, bath monitoring and maintenance, drying processes, deionized water production, wastewater management, rust and corrosion prevention, larger factory space utilization and increased labor burden. Product designs and assembly procedures suitable for CFC cleaning processes required transformation to overcome aqueous cleaning constraints such as water entrapment, drying and potential corrosion. There was also an increased piece part cleaning and drying operations prior to assembly. Therefore, the quick fix proved to be costly and manufacturers were open to looking at other technologies that cleaned as good or better than aqueous processes at lower production costs.

 

New Dry Cleaning

Using CO2 to clean

CO2 performed in many ways similar to dry CFC solvent spray processes and could clean applications such as optical assemblies, wire bonded assemblies, sensors and data storage devices. These markets were some of the first commercial applications CO2 technology could clean with success and could present cost savings to compete with wet processes. CO2 composite sprays are unlike other snow guns in that the sprays are relatively lean and warm with much smaller fractions of microscopic CO2 particles uniformly dispersed in a heated propellant gas, which creates better surface preparation. In these instances, wet processes could not be considered due to material compatibility, cleaning efficacy or assembly procedure constraints.

More recently, companies are concerning themselves with sustainability.  They are under pressure to reduce manufacturing wastes, improve productivity, lower production costs, achieve zero discharge of pollutants into the environment, and maximize water conversion.  As such, there is a need for leaner and greener methods of cleaning during manufacturing.

However, conflicts exist between the "green and lean" manufacturing model with wet cleaning practices.  For example, wet practices use a lot of energy and space.  Also, water resource availability has supplanted upper atmospheric ozone depletion concerns and is a major issue in many manufacturing sectors.

Since the 1990s, precision cleaning with CO2 has demonstrated significant cost-of-ownership, environmental, and performance benefits compared to conventional aqueous and solvent-based alternatives.  CO2 Composite Spray™ technology has evolved and emerged as a mature and bullet-proof precision cleaning technique.  This spray technology offered today provides a significant manufacturing waste reduction strategy and an attractive return-on-investment.  Many manufacturing companies are implementing CO2 composite spray cleaning technology within their production operations, attracted by its many attractive features, benefits, and integration possibilities.

CO2 Composite Spray Evolution Timeline

CO2 composite spray technology was invented and patented by David Jackson, President and CEO of CleanLogix LLC, in the early 1990s.  Since that time, we have steadily evolved and improved the technology.  The latest version of the technology, Vector Pro™, provides the highest performance and best economy to date, and is the foundation for countless precision cleaning and hard machining opportunities in the manufacturing industry.  The spray quality and efficiency of our Vector Pro spray technology has journeyed far from the initial Snow Spray technologies of the 90’s.  CO2 composite sprays are highly stable and provide adjustable cleaning capacity.  


 


Ready for next steps? Try our free CO2 Consultation.

REQUEST A CO2 CONSULTATION

Read More

Topics: Manufacturing Wastes, CO2 Cleaning, CO2 Precision Cleaning, CO2 Immersion, CO2 Composite Spray, CO2 Technology

3 Ways To Use CO2 Composite Spray

Posted by Amanda Bunch on Nov 6, 2017 12:31:50 PM

Looking for a new way to precision clean your application?

Precision cleaning with CO2 provides significant cost-of-ownership, environmental and performance benefits. Precision cleaning is an important component of a contamination control program that includes product handling and packaging, controlled environments, ESD control, and proper operator practices.

 

   DOWNLOAD CERAMIC INDUSTRY MAGAZINE PUBLISHED ARTICLE NOV 2016

CO2 Spray Cleaning

Alternative Precision Cleaning

First generation CO2 spray cleaning alternatives were introduced in the 1990s and found early adoption in applications involving specialized devices such as optical assemblies, wire bonded assemblies, sensors, and data storage devices. Companies are always trying to reduce manufacturing waste, improve productivity, lower production costs, achieve zero discharge of pollutants into the environment and maximize water conservation. The current industry "green" need was in conflict with wet cleaning practices and thus the need for dry cleaning technology emerged.

CO2 composite spray is neither a snow gun nor spray nozzle, but rather a system of several integrated components and processes for forming and applying a spray cleaning composition. CO2 composite spray provides a stable and consistent surface cleaning performance. This technology aides in elmination of water usage and wastewater, a lower carbon footprint, and improved worker safety.

 

Application and Performance

Versatile Technology

A CO2 composite spray process is similar to conventional CO2 pellet or ice blasting used in industrial cleaning applications, but on a smaller and more precise scale. CO2 composite sprays are relatively lean and warm with much smaller fractions of microscopic CO2 particles uniformly dispersed in a heated propellant gas. The heated propellant gas mixes with the cold CO2 particles to produce an increase in thrust. The result is a highly energetic cleaning spray that does not cause surfaces to become wet during application. COcomposite spray may also be also be used with other cleaning process additives such as atmospheric plasma, laser, and trace organic compounds to provide a robust surface treatment platform.

Applications using this technology are automotive, aircraft, aerospace, computer hard disk drive and medical device markets. The adoption of CO2 composite spray has been proven for applications where both cleanliness and production objectives must be achieved.

CO2 Composite Spray can be applied three ways:

1. Precision Clean - combines the cleaning (or cooling) power of microscopic crystals of solid carbon dioxide with patented coaxial jet spray cleaning processes to effectively remove contaminants (i.e., particles, thin films, heat) from the exterior or exposed surfaces of a product (or tool).

2. Cool Lubrication - utilize various combinations ionized fluids, oxygenated machining lubricants (Triox™) and CO2 – formulated and applied in-situ and as-needed to improve the productivity and economics of challenging machining applications.

3. Surface Preparation - appropriate surface preparation is the essential first step to provide consistent and reliable adhesive or cohesive bond strength. Major bonding elements comprise substrate, adhesive, bondline surface area and (for adhesive joining) joint design.

New Generation Technology

Back To The Future

In the latest evolution of the CO2 composite spray technology, CO2 is converted into a supersaturated fluid and crystallized using a patented micronizing process to form energetic and microscopic CO2 particles having 2x higher density when compared to the 1990s spray. Precision cleaning with CO2 provides significant cost-ownership, environmental, and performance benefits compared to conventional aqueous and solvent-based alternatives.

Many manufacturing companies are implementing CO2 composite spray cleaning technology within their production operations due to the technology's featues, benefits and integration possibilities.


Ready for next steps? Try our free CO2 Consultation.

REQUEST A CO2 CONSULTATION

Read More

Topics: CO2 Cleaning, CO2 Precision Cleaning, CO2 Composite Spray, CO2 Technology

Contamination Control: Let CO2 Do The Work For You

Posted by Amanda Bunch on Sep 20, 2017 1:49:05 PM

Looking for a new innovative way to control your manufacturing contamination challenge?

Particles and other residues that accumulate on precision assemblies and support equipment during manufacturing processes must be removed to prevent yield loss. Precision cleaning is needed at various stages to control particle and other residue burden.

 

    DOWNLOAD CONTROLLED ENVIRONMENTS MAGAZINE PUBLISHED ARTICLE SEP 2012

 

The Importance of Contamination Control

Manufacturing Environment

According to Jeffrey Becker in an article entitled Implementing A Contamination Control Program, "As science progresses, the demand for cleanrooms in bio-tech, pharmaceutical, medical device, semiconductor, and nanotechnology continue to grow. As the demand for these controlled environments increases, it becomes more and more critical to develop and implement effective contamination control programs. The purpose of these programs is to ensure that any material, substance, or energy that adversely affects the product or process is eliminated, or at least, minimize to safe levels (CE Magazine, http://bit.ly/2eNspay)."

There are many factors to consider for precision cleaning and inspection operations within a cleanroom-based manufacturing process flow. Particles and residues generated during assembly and test processes accumulate on the support equipment and can transfer to subassemblies during handling, which can lead to product quality problems.  There is a need for a new way of cleaning high reliability products during manufacturing that reduces or eliminates this type of surface contamination.

 

CO2  for Precision Manufacturing

An Integrated Workflow

For an automated dry cleaning system to be acceptable, it must demonstrate high reliability, high throughput, and excellent cleaning performance at a reasonable cost. CO2 Composite Spray™ is a proven strategy for improving particle and residue cleanliness and reducing particle and residue burden.

Cleaning complex support equipment or precision assemblies can require multiple off-line operations including disassembly, removal from the cleanroom, return to the cleanroom, reassembly and calibration. In addition, some operations require processes that are batched, precision cleaned, dried and returned to the manufacturing line. Cleanroom atmospheres contain water vapor, organics, salts, and particles. These airborne contaminants can be deposited onto surfaces of critical support fixtures and assemblies being cleaned. All of these procedures are disruptive to product flow and create an additional contamination burden.

Hence, properly designed carbon dioxide cleaning systems with inert atmospheres in clean cabinets can be very effective for cleaning precision parts without having to disrupt operation flow. Carbon dioxide cleaning has unique capabilities such as CO2 conservation and control, spray impact energy control, elimination of local surface condensation and easier adaptability to automation equipment. All these factors make this technology ideal for controlling contamination in a manufacturing setting. These CO2 systems and methods adapt to cleanroom manufacturing assembly lines, production equipment, processes and can decrease maintenance burden without damage to support hardware.

 

Ready for next steps? Try our free CO2 Consultation.

REQUEST A CO2 CONSULTATION

 

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Topics: CO2 Cleaning, CO2 Precision Cleaning, contamination control, CO2 Technology

CO2 Reduces or Eliminates Manufacturing Waste

Posted by Amanda Bunch on Aug 10, 2017 2:23:04 PM

In an era of complex business challenges; intense global competitiveness, burdensome environmental regulation and resource constraints, companies need both lean and green (clean) manufacturing technology to eliminate multifaceted manufacturing wastes in production operations.

All forms of manufacturing waste significantly impact profitability. So why let these preventable wastes steal your company's hard-earned profits?

 

    DOWNLOAD IMAPS WHITE PAPER SEP 2012

Conventional Manufacturing

What is Manufacturing Waste?

Manufacturing waste is any resource used in a production process that does not go out as part of the product or is unnecessarily used (or misused) to produce a product. Manufacturing waste is defined differently for every business, however, it has the same underlining message. If the process is non-value adding and costs you money but earns nothing for your business then it is a waste.

 

 

 Eight Deadly Wastes of Manufacturing

There are eight major forms of manufacturing waste that impact manufacturing profitability.  Manufacturing wastes include for example lost time, high energy usage, excessive labor, poor product quality, low productivity, too much factory space, scrap, and stock levels.  These wastes steal company profits. To stay competitive, companies must implement programs that reduce or eliminate these wastes.

 

Overproduction waste is costly to a manufacturing operation because it prohibits the smooth flow of materials and degrades quality and productivity. Motion waste processing time and is a health and safety concern. Defect wastes have a direct impact on the bottom line, resulting in rework or scrap which are a tremendous cost burden to an organization. Transport waste is excessive movement and handling which causes damage and defects and can cause product quality to deteriorate. Environmental waste such as energy or water use, solid or hazardous waste, air pollution, or chemical hazards are typically overlooked when in fact they impact the bottom line and surrounding communities. Inventory waste tends to hide other waste generation activities on the plant floor, which must be identified and resolved in order to improve operating performance (and cash flows). Waiting waste is whenever goods are not moving or being processed and a product lead-time is tied up – time is money. Processing waste is using expensive high-precision equipment or processes where smaller footprint, more flexible, and less precision equipment and processes can combine steps which would be more efficient – the enemy of good enough is better than.

 

Lean and Green Manufacturing

CO2 Technology is the New Manufacturing Model

“The most dangerous kind of waste is the waste we do not recognize.” – Shigeo Shingo (source: Newcastle Systems Blog)

The manufacturing waste radar chart (shown right) illustrates an exemplary manufacturing waste generation transformation (Old versus New state) using our CO2-based clean manufacturing technology.  Notice that the area bounded by the various waste generation activities becomes smaller with the implementation of clean manufacturing methods and processes.  Smaller waste generation activity represents a cost reduction or profit improvement for the transformed production process, tool, or line.

Our CO2-based clean manufacturing technology provides the following benefits:

  • Simultaneously eliminates or reduces composite forms of manufacturing waste: time, labor, space, transport, defect, inventory, processing, equipment, raw materials, air pollution, water pollution, wastewater, solid waste, and energy waste.
  • Improves quality and reliability requirements imposed by advanced materials, manufacturing methods and processes, and applications.
  • Uses flexible automation, modular and clustered assembly operations (cells) to eliminate repetitive operational task errors and reduce skilled labor wastes.
  • Adaptable to production tools, lines, and processes to improve efficiency and productivity in variable-volume, high-mix, and high-value production operations.
  • Flexible and scalable to changes in production needs over time.
  • Intelligent, autonomous, and capable of communicating key information in real time that enhances manufacturing quality, timeliness, and productivity.
  • Produces a low cost-of-operation and good return-on-investment.

The lean and green clean manufacturing model using CO2 technology combines advanced surface cleaning, surface cooling, and surface modification technologies and robotics technology to provide multi-tasking manufacturing processes for a production line, in a manufacturing tool, or within a reconfigurable cell.

As shown in the exemplary comparison on the right, the clean manufacturing model provides the basis for huge returns in the form of less labor inputs, less space, less energy usage, less time waste, less water usage, among many other waste reductions.


 

 

 

 

Ready for next steps? Try our free CO2 Consultation.

REQUEST A CO2 CONSULTATION

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Topics: Manufacturing Wastes, CO2 Cleaning, CO2 Technology

Why Is Surface Preparation Something To Care About?

Posted by Amanda Bunch on Jun 22, 2017 9:54:13 PM

You may be asking yourself what does surface preparation have to do with CO2?

Appropriate surface preparation is the essential first step in providing consistent and reliable adhesive or cohesive bond strength.  In preparation of bonding surfaces, precision cleaning is required to achieve a high degree of surface cleanliness. Surface cleanliness is the absence of foreign materials deposited on bonding surfaces.

Conventional surface treatment options for joining substrates pose different constraints in terms cost of ownership, environmental compliance, and performance. Carbon dioxide (CO2) based processing alternatives offer an effective, eco-friendly and robust platform for preparing many types of substrates surfaces for numerous medical, aerospace, automobile, ophthalmic and microelectronic bonding applications.

 

   DOWNLOAD SAMPE JOURNAL PUBLISHED ARTICLE NOV/DEC 2015

Conventional Surface Preparation

How Clean is Clean?

Removing contaminants such as fingerprints, particles, manufacturing process residues, vapors, machining oils, loosely adhering oxides and other surface contaminant layers are crucial for creating a surface for bonding.

Conventional industrial cleaning techniques pose various constraints that allow for product damage, contamination, materials wastes and not many are adaptable to automated manufacturing tools. Bonding technologies are numerous and include: adhesive bonding, mechanical fastening, laser welding, soldering, brazing, acoustic bonding, diffusion bonding, isothermal solidification bonding, transient liquid phase bonding, exothermic bonding, dip coating and thermal spray coating.

Hence, there is a need to have a more comprehensive surface treatment process that can address contamination challenges using one method as opposed to secondary treatments.

 

The CO2 Factor

Why is bonding essential?

There are various industries that require strong joints or durable surface adherents such as paints and coatings that can survive challenging environments such as pressure, strain, heat, cold, UV, ozone, steam, moisture and the human body. CO2 surface treatment technology provides robust bond line surface preparation using numerous singular and hybridized treatments which are completely dry, selective, safe for the environment and easily adapted or integrated with new and existing manufacturing processes, tools, lines and automation.

 

    DOWNLOAD IMAPS RAMP PRESENTATION APR 2014

 

Manufacturing a strong bond

Manufacturing a strong bonding surface requires three aspects:

1. Maximize mechanical interlocking - increase the surface roughness in order to physically anchor bond between adhesive and surface.

2. Matching cohesion energy - degree of cohesion energy matches the adhesive with surface to create a highly wettable bond.

3. Increasing surface absorption and reactivity - surfaces should have sites that are polar or contain chemistries for the adhesive reaction.

CO2 Surface Treatment Technology

Carbon Dioxide (CO2) based surface treatment technology can manufacture a consistent and reliable bond surface and address the various limitations of conventional cleaning and modification processes for bonding.

 Precision CO2 cleans surfaces to remove hydrocarbon and silicone oil films, particles, and loose oxide layers, provides selective spray or bulk immersion treatments and pre-cleans surfaces for more uniform and effective atmospheric plasma surface activation.

 

 

   DOWNLOAD ADHESIVES MAGAZINE PUBLISHED ARTICLE JAN 2017

 

There are three CO2 processes that precision clean surfaces for bonding:

  1. CO2 Composite Spray Treatments - CO2 composite sprays provide precise control of spray cleaning energy both mechanical scouring and chemical cleaning power. CO2 composite sprays are very useful for delicate substrate surfaces such as thin metallic or polymeric coatings, or surfaces containing fragile mechanical features. 
  2. Centrifugal CO2 Immersion-Extraction Treatments - Centrifugal CO2 immersion treatment techniques utilize liquid or supercritical CO2 to remove both external surface and internal subsurface contaminants and are also used in cooperation with other dry techniques such as UV/Ozone, vacuum plasma and eco-friendly additive chemistries.
  3. CO2 Hybrid Treatments - the surface scouring and solvent cleaning actions of a CO2 composite spray are used in cooperation with atmospheric plasma CO2 to form a process called CO2 particle-plasma cleaning. The CO2 composite spray controls surface temperature and cleanliness working with plasma to simultaneously remove debris and excess heat from the treated surface.

 

Ready for next steps? Try our free CO2 Consultation.

REQUEST A CO2 CONSULTATION

Read More

Topics: Surface Preparation, CO2 Cleaning, CO2 Technology

CO2 Tech Pioneers

We set the bar

For over the past 30 years, CleanLogix LLC has been the forerunner of CO2 technology exploring all facets and propelling technological evolutions. Our technology portfolio is the only of its kind, offering a breath and depth of CO2 spray, immersion and particle-plasma patents that has in turn created multiple product platforms.

Remember:

  • Over 30 years experience
  • CO2 eliminates manufacturing wastes
  • CO2 is the solution for your contamination challenges

REQUEST A CO2 CONSULTATION

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