JPH07500428A - Cleaning and sterilization mechanism - Google Patents

Abstract

(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

[Detailed description of the invention] Cleaning and sterilization mechanism Background of the invention: TECHNICAL FIELD This invention relates generally to the cleaning and sterilization of articles, and more particularly to the use of ozone. related to cleaning and sterilization of articles.

The present invention can be applied to a variety of devices including, but not limited to, dental tools, surgical instruments, implants, etc. has numerous applications for articles to be cleaned, but problems related to cleaning and sterilization For the sake of understanding, the following description focuses on cleaning and sterilizing contact lenses.

Success or disastrous failure with contact lens wear ultimately depends on lens care and neglect. Determined by bacterial treatment. We spend $2 billion procuring contact lenses. For the more than 17 million contact lens wearers in the United States, A one-step cleaning and sterilization method is recommended. Both hard and soft lenses , weekly cleaning and sterilization for daily or long-term contact lenses. Reasoning is necessary.

Due to the very nature of these lenses, which is closely related to long-term wearers. , contact lenses are susceptible to protein and lipid accumulation from the wearer and microbial contamination. It is susceptible to both dyeing and dyeing. All of these accumulations or contaminants can lead to decreased vision and It can have debilitating effects such as injury and eventually blindness.

Soft, primarily water-based hydrophilic contact lenses make cleaning problems even more difficult. making it difficult. Physical pressure on hydrophilic lenses may cause them to fall off. As a result, the strong disinfectant becomes trapped within the body of the hydrophilic lens itself, causing wear and tear. The substance irritates the user's eyes, causing ulcers.

Both hard and soft contact lenses are difficult to clean due to the lack of good cleaning methods. Toamoeba, microorganisms of the genus Pseudomonas, alkaline faecalis, Staphylococcus aureus (s taph, Aureus) and Enterobacter spp. susceptible to contaminating microorganisms.

To fully understand contact lens-related diseases, please consult the American Eye and Ear Clinic. ``Hydrophilic Pseudomonas aeruginosa contamination of contact lenses and solutions ginosa ConLam1nation of Hydrophilic Contact Lenses and 5 solutions'', by Mi lauskas, ≠Tare■≠Nitsujishi■ in Transactions of the American Acad emy of Ophthalmology and Otshield Geshishi■凵A vo l.

76, March-AI) ril 1972. page 511); Ophthalmology "Contact" by Morgan in Science MO 1 Vol. 86, June 1979, p. 1107. "Complications related to ophthalmic lens solutions" mediated with Contact Lens 5 solutions”, 　by　Morgan,　apperin■@in　Opht halmology AAO, vol, 86. June 1979. pag e110? ); Indian Journal of Ophthalmology, Volume X ``Soft plastic contact lenses'' by Dastaur, Volume XI, page 25. "Go he 5ort Plastic Contact Lenses" , by Dastoor, appearing the Indian Jo Urnal of Ophthalmology, vol, XXIA on page 25); Journal of the American Academy of Optometry, Vol. 55, No. 3, p. 205, Halsby et al. [Microbiological evaluation of soft contact lens disinfectant] logica Evaluation of 5oft Contact Le ns　Disinfecting　5solutions″by　Houlsby et al,, ≠Tare■≠Nitsujishi■ in the Journal of the American Optom etric As5ocation, vol, 55. @Number 3 ゜ page 205); and Investigative Ophthalmology and Visual Science, 1986 April 2015, Vol. 27, p. 626, “Soft Contact Lens Disinfectants” 5usceptibility of Acan tamoeba to 5oft Contact Lense Disin f■Mokomanshishi■ Systems”, appearing in the Investiga tive Ophthalmology & Visual@5science.

April 1986. vol, 27. Please refer to page 626) .

In addition, the high water content of hydrophilic contact lenses makes them primarily ``jelly bumps'' consisting of calcium and calcium making it susceptible to formation. These lipid products usually damage the lens Long and medium chain cholesterol, which is particularly difficult to remove from soft lenses without causing role esters and triglycerides. A good overview of this issue includes Hart et al. Ophthalmology, April 1986, Vol. 93, No. 4, p. 495. "Origin and Composition of Lipid Deposits on Contact Lenses" position or Lipid Deposit on Soft C contact Lenses″by 1(art et al,, and a pearing in Ophthalmo Geshishi ■凵A April1 1986, vol, 93. No, 4. page 495).

The typical cleaning method, the saline and distilled water approach, is generally unsatisfactory. It's not something you can do. The contact lens approach actually solves the contamination problem. In fact, some contaminating microorganisms are It flourishes in reality in a clean environment.

For this reason, there are alternative cleaning methods that can be used by the wearer rather than in the laboratory. The approach has been adopted by the industry.

One proposed technique includes 3% hydrogen peroxide to clean and disinfect lenses. A solution may be used. The reason this is so popular is that after disinfection, hydrogen peroxide is , converted into harmless by-products that are compatible with ocular physiology.

The hydrogen peroxide approach is described in the Journal of the American Academy of Optometry, Volume 59, Issue 3, Page 193. [Comparison of new hydrogen peroxide disinfection systems] by Krezanoski et al. arison of New Hydrogen Peroxide Disin fection Systems” by Krezanoski et al A, and appearing in the Journal of the Amer ican Optometric As5ocationA vol, 59゜ No, 3. page 193); CLAO Journal, January 1985, No. 1 1, No. 1, p. 65, Pensey et al. Efficacy of Hydrogen Peroxide for Torrens en Peroxide Disinfection System for 5oft@Contact Lenses Contan+1nated with Fungi'', by Pen1ey et al... CLAO Journal, Jan, 1985. vol, 11. No, l , page 65); American Journal of Ophthalmology, 1 Knobuf, June 1984, p. 796, “In contact lens wearers. “Reaction to HydrogenP” eroxide in a Contact-Lens Nearer”, b y Knoph, appearing the Ame nitsamu≠■ Journal of Ophthalmology, June, 1984 ．． page 796); Optometry and Vision Science, 7 "Hydrogen peroxide in prephysiology" by Chalmers on page 96 drogen Peroxide in Interior Segment [Physiology: A: kife rate Review", by Chalmers, appearance in optometry & Vision 5cie Shimo■B page 796); and Arch, Ophthalmology, Volume 93, June 1975, "Hydrogen peroxide disinfection of hydrophilic contact lenses" by Gusset et al. on page 412 (“Hydrogen Peroxide Sterilization of Hydrophilic Contact Lenses', by Ga55e t et al,,ashiп@appe aring in Arch, Ophthalmology, vol, 93 ．． June 1975. Well explained on page 412)■■ ing.

Unfortunately, even at around 3%, or even around 6%, hydrogen peroxide can cause stronger microorganisms. Some things cannot be sterilized. In addition, hydrogen peroxide causes "jelly-like bumps" ” has no notable effect.

Perhaps the most common treatment is heating. contact lens approach In this case, the contact lens is exposed to a temperature of 80 degrees Celsius for 10 minutes. This app Roach is more effective than chemicals against microorganisms, but this treatment Significantly shortens lens life and is only used for about half of existing contact lenses. I can't do it. This method determines the water content and usage in contact lens construction. Much depends on the plastic being used.

In addition, proteins and other contaminants (accumulation) that remain on contact lenses can be harmful to the user's eyes. often causes irritation.

It is clear from the above that there are no efficient and sufficient cleaning and sterilization techniques. .

Summary of invention: In order to correct the deficiencies of the current state of the art, the present invention provides a wide range of instruments, mechanisms and methods. is being used.

In a preferred embodiment of the invention, contact lenses, surgical instruments, dental tools, and cleaning and sterilization that can be used for other items that require regular cleaning and sterilization. A mechanism is formed. Because ozone is used as a cleaning and sterilization medium, all equipment components are working and the items to be cleaned are exposed to the ozone bath for a specified period of time. By using a feedback mechanism to ensure that It provides a guaranteed guarantee. In addition, the goods may be transferred to the organization through telephone lines. Communicate with a central unit that monitors business and operations.

Basically, the invention consists of a housing having an ozone generator, a pump, and control elements therein. It consists of A container containing the articles to be sterilized and cleaned is inserted into the housing. It is possible. The control element ensures that both the pump and the ozone generator are in operation. It is something to do. Through a valve in the container, ozone is directed around the item to be cleaned; Form an ozone bath. After a suitable length of time, the control element controls the pump and Stop the ozone generator or redirect ozone to another container (if used). (depending on the implementation).

The container containing the sterile flow item can be removed from the 11 housing and the user can The item may not be transported or moved to the area of use (i.e., in the operating room). (can also be moved to the operating table). Items inside the container should be removed from the housing. Sterility is maintained by using a self-sealing valve that closes when removed.

The present invention relates to various articles, but its use for cleaning contact lenses is , one of the main uses. For this reason, the following description does not apply to this field of the invention. It is related to the use of.

An ozone generator produces a bath of ozone and salt water. cage or other suitable configuration The body soaks the contact lens in this bath for a predetermined length of time. Is the timer appropriate? You should either deactivate the ozone generator or remove the contact lenses from the bath. inform the user that it is available.

Ozone was discovered in 1840 by Christian Friedrich Schonbein. was discovered. Ozone is three oxygen atoms bonded to each other. Unfortunately , ozone has a very short lifetime, typically about 20 minutes. When ozone decomposes, Its by-products are pure water and stable oxygen.

Exhaust gas ozone is of greatest concern for health reasons. user protection The standard is 0.000 per million. It ranges from 10 to 0.12 parts.

Due to ozone's ability to control microorganisms such as bacteria and viruses, ozone It has been used to purify drinking water since the 1990s. More recently, ozone has been used as a chemical Used in swimming pools to reduce dependence on cleansing products.

Ozone production involves passing ultraviolet light through air in a sealed chamber. This is typically done more frequently. This is then pumped into a salt water bath Produces ozone-rich air.

Sterilization using ozone eliminates viruses, bacteria, fungi, and most importantly, It is effective against all eye pathogens, including mosquitoes. Expose contact lenses to ozone The actual time required for sterilization is less than or equal to current thermal or chemical sterilization methods. Usually it is 10 minutes.

Ozone is the second most aggressive known oxidizing agent. This means that ozone is: a pollutant. be a strong oxidizing agent of natural and organic contaminants; It means that it is an excellent sterilizing agent for living things. Compared to chlorine, ozone , has 50% greater oxidation capacity and can rapidly eliminate bacteria and bacteria by up to 3000 times. Viruses can be sterilized.

Ozone condenses and precipitates small airborne particles away from contact lenses. It is also a strong oxidizing agent. This means that the removed material can contact quickly and effectively. Since it is removed from the vicinity of the lens, it helps in cleaning contact lenses.

Two different levels of the invention are envisioned: first, a pair of contact lenses; It is a home-use device for cleaning; the second one is used in several contact lens professions. Eye treatment opening for production cleaning This is a device for professional doctors' clinics.

The invention is particularly effective for domestic applications. In this situation, contact The main person who fails to clean the lenses is the user himself/herself. Typically, the user Because he forgot to clean his lenses and ``swore'' to his doctor that he did so diligently. be.

In some countries, especially in Europe, users are discouraged from actually cleaning their contact lenses. The onus is on the doctor to confirm what has been done. For this reason, doctors i) the user is using the device; want to ensure that they return to the person regularly.

In a preferred embodiment, these purposes are based on predetermined targets recorded on a memory chip. This can be achieved by having a number of [cleaning/sterilization J]. The user only needs to use the device Can be used multiple times, after which the doctor will have reconfigured usage data It must be returned to the doctor. In addition, the physician may communicate with the user through the telephone line. can poll the device for the actual number of times the device has been used.

In operation, the preferred embodiment of the present invention is: 2) The built-in computer controls the pump and ozone generator lamp. Check to see if it is off, 3) The computer knows how many counts remain in memory countdown. 4) Based on these checks, a) If the count is zero, the computer will not emit a flash. notify through devices such as light diodes (LEDs), deactivate or b) If the count is below the predetermined warning level (i.e. 10), the light will be emitted. The operator is notified through the diode, the ozone generator and pump are activated, and the C ) count exceeds the warning level, the computer will turn off the light emitting diode. 5) The ozone generator and pump will be activated; The controller waits for a short time (i.e. 300 milliseconds) and turns on the pump and light. 6) The computer performs a check to ensure that it is activated; Wait another short period (i.e. 1 second) and check if gas flow is detected. (Steps 5 and 6 ensure that the equipment is working.) 7) a predetermined length of time. (i.e., 19 minutes), the computer stops the ozone generator while the pump 8) Continue operation to purge the system; 8) After the ozone generator has deactivated, The pump runs for a short time (i.e. 1 minute) before the computer deactivates the pump. .

According to research conducted, an ozone generator that produces 0.02 grams of ozone per hour It was found that immersion in water for 3 minutes was necessary for sufficient cleaning.

In an improved embodiment, the contact lens is ozone-free after a suitable elapsed time. The ozone generator is automatically removed from the bath and the ozone generator is switched "off".

Once removed from the ozone bath, the contact lens is rinsed with salt water and the lens Hydrophilic contact lenses may penetrate ozone, all harmless elements Decompose into.

A preferred embodiment of the invention provides 0.0. Ol gram ~ produces 1 gram of ozone An ozone generator is used. This is the form of exhaust gas ozone floating in the air. This is the preferred level as it reduces any health risks that may arise. Ru.

Those skilled in the art will know how to construct an ozone generator with this capability. Let's easily recognize that.

Those skilled in the art will appreciate that there are two types of generating elements to generate ozone: ultraviolet radiation; Let's allow the use of corona discharge and corona discharge. Currently, most ozone generators emit ultraviolet light. is used. These are typically the lowest cost ozone on a per unit basis. It is a generator. This reduces costs because the air does not go through an initial drying process. This is for the purpose of

Newer units have a component that dries the air before filling it with ozone. It uses Rona discharge technology. This drying is caused by the corona discharge device having higher ozone concentrations. It makes it possible to bring about degree.

To minimize electrical energy consumption, ozone should be used at a concentration of 1-2%. Manufactured from dry air (dew point: -60 degrees Fahrenheit) and dry oxygen at a concentration of 2-4% is normal. More than 80% of the electrical energy applied to the discharge field is converted into heat. If this is not removed from the cell promptly, the heat will cause the ozone to quickly turn into oxygen. causing back decomposition. The rate of this reverse reaction increases rapidly above 35 degrees Celsius. Ru. Proper cooling of the ozone generator cell maintains a constant amount of ozone production. important to maintain.

The second type of equipment, for professional cleaning in the clinics of practitioners treating the eyes; For cleaning several pairs of contact lenses at the same time (and for cleaning several pairs of contact lenses) (for cleaning surgical or dental instruments), multiple containers are used. this In the application, the control element determines when the container is placed in the slot of the housing. It also senses that the system is working, and then operates multiple containers on a first-come, first-serve approach.

If the ozone generator is large enough, multiple containers can be cleaned/sterilized at the same time. Wear.

For both types, airflow is generated by a bellows-type low pressure pump. skilled in the art Those skilled in the art will readily recognize other pumps that perform this function.

Additionally, for all applications, the container automatically seals when removed from the housing. be done. This can be done by any of several mechanisms well known to those skilled in the art. I can do it.

This feature of closing when removed allows contact lenses or other similar devices to This allows for transportation without fear of contamination. In a preferred embodiment, the container When the lid is opened, this opening shifts and becomes a proof, so that the user can later confirm that the container is that it has been opened and that the item is no longer considered sterile. can be determined.

In the occupational cleaning embodiment, the ozone generator can produce between 0.0 ■ grams and 5 grams per hour. Preferably, ozone is produced.

Ozone levels as low as 0.001 grams per hour are effective; 6 grams is an efficient balance between sterilization effectiveness and energy demand for ozone generation. The study measured that the

One important feature of the present invention is its ability to provide various levels of "cleaning". It is power. By varying the amount of ozone and the length of elapsed exposure time, contact Lenses can be disinfected, sterilized, or even sterile.

No current state of the art device can do this without damaging the contact lens or These results cannot be achieved without having harmful effects on the eye.

Additional related inventions are included in the core preferred embodiments. These inventions , developed based on favorable inventive capabilities and functionality.

In many situations there is a need for a "dry" ozone stream. equipment and equipment When exposed to a damp or damp environment, the equipment will rust or corrode. this eye and at a sufficiently high dilution in solution, the 7 gasity of an undissociated solute is its It is important to recognize Henry's law, which becomes proportional to concentration, so temperature Ozone in liquids such as water or in gas streams can be removed by controlling the pressure and Lifespan is extended.

In a preferred embodiment of the dry ozone stream, a pressurized oxygen source is in communication with an ozone generator. I'm passing through. This pressurized oxygen is "dry" due to the absence of water vapor. . An ozone generator produces ozone from a portion of oxygen and passes through an ozone/oxygen gas stream. Let it pass. This flow is used for surgical instruments (dental instruments) that can deteriorate in the presence of water. and medical instruments).

One particularly useful feature of the invention is that ozone is passed from an ozone generator into a hollow tube. This is an adapter used for. In medical equipment, various tubes are used for gastroscopy, colonoscopy, or are used in other similar endoscopy-like applications. These tubes are It is generally hollow and connects to the problem area through which the doctor inserts tools for observation or treatment. It has two or more openings for intertwining. Once used, these tools become contaminated and destroyed. must be sterilized or discarded. Sterilization of these tubes is done by destroying the tubes with intense heat. (excluding autoclaves as a sterilization mechanism), and chemical processing always involves all tubes. fissures do not probe into the eye, leaving a contaminated pocket in the canal; Have difficulty.

In the present invention, ozone is applied directly from the inlet of the container to all but one of the openings of the tube. An adapter is used to communicate.

As an example, assume that there are N openings in the tube, where N is an integer greater than I. . The adapter communicates with all but one of the apertures. Therefore , before the ozone finally exits through the one opening that remains open. It passes through the tube in such a way that it flows over all areas of the tube. Finally, the tube The ozone that passes through easily sterilizes the outside of the tube, eliminating all possible pockets. All parts of the tube are sterile.

This feature of the invention creates a device that can efficiently sterilize tubes. be. Those skilled in the art will understand that the adapter is also effective for sterilizing all hollow articles with openings. Let's easily recognize that. This includes endoscope handles and other non-tubular It may also include shaped articles.

Although the preferred embodiment utilizes a rigid container in its application, a flexible Bags can also be used. The flexible bag is constructed of material impermeable to contamination It has two ports, an inlet and an outlet. In a preferred embodiment, Each day, you can install/remove either the ozone generator or the ozone decomposition mechanism. It has a valve. The answer is further closed upon removal.

Additionally, in a preferred embodiment, the valve is pressure activated. Ozone is generated at the inlet It opens only when the pressure from the vessel exceeds a preselected limit. This means that ozone Keep the contents of the flexible bag sterile until present.

Similarly, the outlet opens when the pressure within the bag exceeds a preselected level.

This allows the bag to inflate to a certain point and then release the gas.

The pressure induced within the bag extends the lifetime of gaseous ozone or ozone suspended in a liquid. Keep the ozone gas under pressure so that it spreads.

In another flexible bag, the bag has a single opening into which the item to be sterilized is placed.

A "lid" arrangement is secured to the single opening by threaded action. "Lid" is selective It has two openings for opening/closing the sterilization unit. these two openings act as inlets and outlets.

A flexible bag can be used to store either ozone-laden gases or ozone-laden liquids. Note that it can be used as a sterilizing agent. whether gas or liquid In some cases, the sterilant passes through the outlet after passing through the bag.

Once the sterilization process is complete, the operator should remove the bag from the ozone generator and ozone decomposition mechanism. After removing the bag, apply manual pressure to the bag. The "squeezing" of this bag removes excess ozone. It is forced out of the bag through a valve activated by pressure at the outlet. In this way, the bag The bag is shrunk for storage, and the sterile condition inside the bag is maintained.

An adapter like the one mentioned above can also be used by connecting it inside the inlet. can. This makes hollow tubes and articles (i.e. endoscope handles) flexible. This enables effective sterilization within the bag.

In some situations dry ozone gas is preferred, while in others liquid ozone gas is preferable. You can also use a bath. The invention is designed to optimize the lifespan and effectiveness of ozone. The present invention provides an efficient method and apparatus for producing this ozonized bath. It is.

A liquid such as distilled water is contained in a pressurized storage tank and, as previously described, is Zong gas is pumped into a storage tank. Pre-selected pressure level for storage tank Excess gas is vented to maintain the Ozone gas can be directly or diffused into the liquid by a diffuser well known to those skilled in the art. suspended in ozone liquid It is also optional to cool the storage tank to optimize conditions.

Once the ozonated liquid is created, this liquid can be used for any of the applications already mentioned. can. The ozonated liquid is pumped or released into a container containing the material to be sterilized. The excess liquid, along with any decay materials, is transported to ozone decomposition mechanisms such as activated carbon. It will be revealed.

Effluent and disintegrate are sterile, so traditional waste systems such as sewer systems It can be disposed of safely through the system.

This embodiment may be added for physical contaminant removal or for the inherent cleaning action of water. It is particularly useful for sterilizing materials where liquid bath action is preferred by contacting and stirring.

Agitation of the liquid medium is advantageous and can be carried out in a variety of ways well known to those skilled in the art. mechanical Agitation moves the water against the item, thereby removing debris and creating a sound wave. Agitation by Put it in a progressive "fizz type" state.

This embodiment of the invention is particularly useful for cleaning and sterilizing endoscopes loaded with biological debris. It is useful for As an example, cleaning material from the laparoscope is greatly facilitated by the agitation action. will be advanced.

In this regard, one feature of the invention is that flexible, typically It concerns the processing of woven materials. One such use is generally associated with surgery. Occurs in the medical field. Those skilled in the art will be aware of various other uses in which similar waste products can be produced. Let's recognize it easily.

For surgical applications, there are numerous sponges, bandages, wipes, etc. these biologically Contaminated waste is disposed of in containers called "red bags." red Bags are typically collected from various locations within a hospital and incinerated. .

The process between the operating room and final incineration requires manual handling. , which increases the chance of infection for those handling them. In addition, many Hospitals are not licensed to have incinerators.

The invention can be "wheeled" into the operating room (or other suitable location) following the surgeon. It is a self-contained mechanism. As with the Red Bag, surgeons can store waste in self-contained mechanisms. Dispose of waste by dumping into the top opening of the drum. After the surgery is completed, The top of the ram is sealed and the mechanism is "wheeled" into the other chamber. The mechanism is electric power, liquid source, and connected to the wastewater disposal port. The preferred liquid for this application is distilled water However, those skilled in the art will readily recognize a variety of other liquids that perform this function.

Once such a connection is made, the mechanism is started. by anyone other than a surgeon, Note that the waste is not handled.

In operation, the mechanism generates an ozonation bath as described above and combines it with a driver. mix with the detergent pumped into the system. The stirring mechanism removes the contents of waste, The ozone solution and detergent are mixed so that an initial bath/sterilization procedure is performed. good In a preferred embodiment, the drum is both pressurized and cooled to extend ozone life. Do this.

0 In this embodiment, water is used to fill the bath. Distilled or filtered for maximum longevity. A person skilled in the art We will readily recognize other media, if any, that could be used in this situation.

Although the above embodiments speak of using the detergent with an ozone bath, the ozone is also useful for breaking down detergents. As such, one embodiment of the present invention In some cases, detergent is used as an initial cleaning treatment with water (without ozone) and then Add zon bath. This configuration not only provides cleaning and sterilization, but also detergent degradation. , making detergents less harmful to the environment.

Once the initial bath has finished, the residue and liquid can be removed by simple pumping or by rotating the drum. removed from the drum either in combination with motion. The residue is sterilized Note that it can be discharged without fear of biological contamination. Furthermore , ozone helps to break down detergents, so detergents are no longer a threat to the environment. It brings no power.

Before the waste fabric can be disposed of or, in some circumstances, made suitable for reuse, it must be treated with an ozonized solution. Other baths are applied to the waste.

This configuration puts workers at risk by requiring additional handling of waste. This method completely sterilizes waste without sacrificing it. The following drawings and them The invention, together with its various embodiments, is explained in more detail in the accompanying description of do.

Drawing abstract: FIG. 1 is a perspective view of a personal use embodiment of the invention.

FIG. 2 is a perspective view of an embodiment of the invention for professional use.

FIG. 3 is a block diagram illustrating the operation of a personal use embodiment of the invention.

FIG. 4 is a block diagram of a preferred embodiment of an ozone generator.

FIG. 5 shows the components of a preferred embodiment of a contact lens cleaning element/sterilization element. FIG. 2 is a block diagram illustrating interactions.

FIG. 6 is a perspective view of an embodiment of the invention that utilizes multiple container capacity.

FIG. 7 is a block diagram of the dry ozone phase of the present invention.

FIG. 8 is a cutaway view of an embodiment of a flexible bag of the present invention incorporating an adapter.

FIG. 9 is a detailed cutaway of a preferred pressure relief valve as used in the flexible bag embodiment. It is a diagram.

10A-IOE are side views of the flexible bag in use.

FIG. 11 is a block diagram of the production of ozonated liquid and its use in sterilization.

FIG. 12 shows a self-contained mechanism in its surgical application. FIG.

FIG. 13 is a cutaway view of a preferred self-contained mechanism showing its contents.

Drawing details: FIG. 1 is a perspective view of a personal use embodiment of the invention. This implementation Contact lens wearers regularly clean their own contact lenses at home It is intended to be used for disinfection.

The contact lens cleaner IO, which uses household electric current, connects through the electrical cord 18. Receive that power. This current powers the clock 11 and an ozone generator (not shown). It is used for the purpose of Watch 11 is essential for properly cleaning contact lenses. It is a countdown type clock that shows the remaining time.

Place the contact lens into the cage 13. Easily insert the lens into the cage 13 A removable lid 14 provides access to and from the interior of the cage 13. We are making it possible to do this. Cage 13 has contact lenses in it. Raba, Arrow! As shown by 5, (with salt water (, aline) inside) ) into the basin 12, as shown by the arrow 16. Lid 17 is closed.

When the lid I7 is closed, the latch 19A locks the contact lens into the water tank 12. It enters the socket 19B which transmits the received information to the watch 11. Then, Clock II Activate a gas generator (not shown) to generate both ozone and salt water in the water tank 12. .

Once the selected length of time has elapsed, the clock 11 deactivates the ozone generator and closes the lid 1. 7 from the latch 19A. Lifting the lid means the contact lenses are clean. This is to signal to the user that it is ready to be used after rinsing. be.

In one embodiment of the invention, the cage 13 is removable and can be attached to the aquarium. It has a protrusion that supports it above 2. This is true if you are wearing contact lenses. It allows the user to drip dry and All absorbed ozone must be removed before the contact lens is placed on their eyes again. The time gap (time 1 apse) that converts into a benign by-product of ).

Cleaning contact lenses through control of the amount of ozone and length of exposure Not only can it be disinfected, sterilized, or even sterilized. I understand. These factors, i.e. the amount and time of ozone to obtain the desired result The control between them is up to the creator and the user.

Figure 2 shows an embodiment of the invention for professional cleaning. This embodiment includes Industrial current is wired and activated by a simple on/off switch 24.

When activated, a bath of ozone and salt water contained within the unit 20 is formed and Ozone is continuously supplied until the shift is completed or when the job is finished.

Multiple holding elements (21A, 21B) for cleaning contact lenses in parallel.

21C121D, 21E, and 21F) are used. Each holding element, e.g. The holding element 21A holds the cage containing the contact lens within the bath. suitable After a certain amount of time has elapsed, the holding element pulls the cage out of the bath.

In this example, holding elements 21A, 21C121D, 21E, and 21F are It also has a cage (such as cage 23 of retaining element 21A) immersed in a bath. . The holding element 21B allows the operator to remove the cage 26 from the existing contact lens. and is raised to indicate that another set must be stored inside it. Ru.

When an uncleaned contact lens is stored in the cage 26, the cage will move in the direction indicated by the arrow 27. as shown in the orifice 25 of the retaining element 21B. Keeper 28 secures the cage 26 in place and then the handle of the retaining element 21B is pushed down, forcing the fixed cage 26 into the tank 22.

The keeper 28 in this embodiment serves to secure the cage 26 to the retaining element 21B. It is used for In other embodiments of the invention, the keeper 28 includes a contact cage before the allotted amount of time has elapsed to allow the lenses to dry properly. 26 is time controlled to prevent it from being removed.

A person skilled in the art will appreciate that the holding element 2, such as an electronic clock, a spring timing mechanism, etc., connected to the holding element. Let us readily recognize the various mechanisms that serve as timing devices for 1A, 21B, etc.

This embodiment of the invention also illustrates a mechanism that can be used in a personal cleaning device. It is something that Mechanisms with a single retaining element are suitable for use by individual users. There is.

FIG. 3 is a block diagram of the operation of one embodiment of the present invention. is connected through plug 31. power switch 32 and timer 30.

The start switch 35 indicates that the cage containing the contact lens is correctly positioned. The timer 30 is notified of the time. The start switch 35 is the latch first shown in FIG. books containing manual switches, manual switches, or any other switches known to those skilled in the art; It may be any of a variety of switches known in the art.

When the start switch 35 is activated, the timer 30 is activated through the power switch 32. Activate the ozone generator 33. The ozone generator has a timer 30, a power switch The ozone generator 33 is deactivated by not applying power through the ozone generator 32. Ozone is supplied to the water tank 34 until the time when

From the above, in this embodiment of the invention, the timer 30 controls the entire operating process of the mechanism. It is clear that it is acting as a control element.

FIG. 4 is a block diagram of a preferred ozone generator for use in the present invention. Ozone generator 4 1 receives standard electrical energy 41 of 115 volts at 60 Hz. This electric The air energy passes through circuit board 42 and is determined by operator control knob 44. The transformer is modified to operate at a predetermined rate. Operator adjustment knob The operator uses the ozone generator 40 to remove the ozone generated by the ozone generator 40. Concentration can be changed.

A conductor from transformer 43 connects cathode 46A and electrode located within ozone reaction chamber 45. Power is supplied to node 46B. The ozone reaction chamber 45 shall be made of stainless steel. is preferable and has a glass dielectric inside.

An air pump 47 sucks outside air 48 into the system and passes it through the ozone reaction chamber 45. A stream of water 49 is generated.

Those skilled in the art will be able to utilize this embodiment for different ozone needs in different environments. You can easily recognize the changes that can be made to this layout to enable Let's understand.

FIG. 5 shows the components for a preferred embodiment of a contact lens washer/sterilizer. FIG. 2 is a block diagram showing elementary interactions.

The main unit 50 is connected through a typical 110 volt indoor outleft (as shown). without). By activating relay l, the microcomputer 52 By activating the pump 55 and activating the relay 54, the micro The computer is a ballast that energizes the ultraviolet ozone generator 58. 56 can be activated.

Airflow from pump 55 passes through ozone generator 58 and ozone is generated. ozo The converted airflow enters container 51 via valve 59. Ozone bubbles in the air stream , is subdivided into small bubbles by a diffuser 60. The diffusion of ozone causes ozone , thereby increasing its overall effectiveness.

The diffused ozone stream passes through a chamber 61 containing the articles to be cleaned.

Finally, the ozone stream is exhausted via valve 62.

Valve 59 and valve 62 are configured such that when container 5I is removed from housing 50, All are closed. Container 51 holds contact lenses or other articles; Sterilize until opened.

Microcomputer 52 connects to a remote computer via telecommunications link 57. may be in remote communication with a computer (not shown). In a preferred embodiment, this remote The communication link will be understood by those skilled in the art, as the person skilled in the art will readily recognize various other mechanisms that may serve this purpose. However, it is a modem type device.

The storage device located within the microcomputer 52 is non-volatile and stores operating data. Furthermore, the time parameters and usage of the equipment can be constantly upgraded. Ru. This information is easily communicated via telecommunications link 57.

In addition, telecommunications 57 may include a remote computer, such as one located at a doctor's office. allows the operator to reset the equipment and Once completed, the device is ready for use. This method allows the user to actually Assure your doctor that you are using contact lenses and that contact lenses do not cause any accidental damage to your eyes. Users are not required to undergo periodic re-inspection to ensure that they do not cause damage. There are also things that are done without ceremony.

The microcomputer 52 controls the pump 55 and the valve through a sensor (not shown). Last 56, the operation of the ozone generator 58 is monitored, and the container 51 is inside the l\Using 50. It can be monitored to see if it is securely placed. everything within specifications As long as it is in operation, the microcomputer will Activate the assembly.

If one of the components does not function properly, the microcomputer Stops the operation and notifies the operator that the operation has been terminated.

If action is necessary, a filter can be installed on valve 62 to capture excess ozone. to prevent it from entering the atmosphere.

FIG. 6 is a perspective view of one embodiment of the present invention that utilizes multiple container capabilities.

Housing 70 has a plurality of slots 71A, 71B, and 71C.

Although this embodiment illustrates three slots, one skilled in the art will appreciate how many slots there are. Let's easily recognize that it is possible even in lots.

Containers 72A and 72B are inserted into these slots. Slot 71B is Note that , is currently empty. In this embodiment, the container has a When the contents are sterilized, a valve (not shown) automatically seals and the lid 79 is also sealed, so that The container can be removed and stored without contaminating the contents.

As an additional contamination protection element, indicator elements 73A and 73B are provided with sterile contents. It is used to indicate whether a person is present or not. Microcomputer (show one) However, the indicator element 73B is set to “+” to indicate that the sterilization process is complete, and the lid is opened. If it is, the indicator element becomes "-" (as shown at 73A). In this way, sterilize Containers can be easily identified. Microcomputer communicates with worker Therefore, the status display element 75 is used. Switch 76 allows the operator to Can be activated/deactivated.

Communication with the remote computer is via modular jack 77 and telephone line 78. It has become easier to

FIG. 7 is a block diagram of the dry ozone embodiment of the present invention.

Oxygen gas is supplied from a pressure vessel, illustrated in this embodiment as a pressurized cylinder 63. The ozone generator 40 is supplied with the ozone. The ozone generator 4o converts a part of the oxygen gas into ozone. The oxygen/ozone mixture is then pumped into the flexible bag 64. Ru.

A flexible bag 64 contains therein an instrument 67 that is exposed to an oxygen/ozone mixture 68. After circulating in the flexible bag 64, the oxygen/ozone mixture is released into the atmosphere 66. The 69° ozone depletion mechanism 65 exits to the ozone depletion mechanism 65 before being discharged to the , many devices known to those skilled in the art, including, but not limited to, activated carbon filters. Which of the structures is later?

In this embodiment, the dry ozone gas thus generated is applied to metal utensils or It is also particularly useful for sharp instruments where heat dulls the blade.

FIG. 8 is a cutaway view of an embodiment of a flexible bag of the present invention incorporating an adapter. .

The flexible bag 64, in this embodiment, is comprised of two sheets of impermeable material well known to those skilled in the art. These sheets are sealed around their periphery.

The inlet 80A and the outlet 80B can introduce and discharge ozone gas, respectively. I'm used to it. A connector such as connector 86 is press-fitted into the doorway and serves as the doorway. It is airtight and allows ozone to vent, as shown by arrow 84B. .

Ozone flow passes through valve 85A and enters adapter 81 in this embodiment. . The adapter 81 is attached to the inside of the input port 80A. In this illustration, the adapter -81 has three connectors 82A, 82B, and 82C, and these The connector connects to three openings in tube 83. Ozone gas is thus into the mouth, passing through the entire tube 83 and ending up as shown by arrow 84A. exits from the end 87. In this way, the ozone sufficiently sterilizes the inside of the tube 83, After exiting the end, begin sterilizing the exterior of tube 83.

When the pressure within flexible bag 64 reaches a selected height, valve 85B at outlet 80B opens to allow gas to escape, as shown by arrow 84C.

Valve 85B maintains pressure within flexible bag 64 to increase ozone longevity and effectiveness. It is important to ensure that the flow flows inward through the outlet 80B. I try not to. This latter characteristic prevents contamination inside the bag 64. be.

As one of ordinary skill in the art would appreciate, a device having an inlet and an outlet with associated valves The shaped flexible bag has applications in a variety of situations where sterilization agents other than ozone are used. be able to.

In another flexible bag, the bag has a single opening into which the item to be sterilized is placed.

A "lid" device is secured to the single opening by threaded action. The "lid" is It has two openings that selectively open and close the bacteria unit. These two openings are , acting as an inlet and an outlet.

In this embodiment, the valve is not pressure activated, but instead removes the bag from the ozone generator. Closes when removed.

A flexible bag can be used to store either ozone-laden gases or ozone-laden liquids. Can be used as a sterilizing agent. The sterilant, whether gaseous or After passing through the bag, it passes through the outlet.

FIG. 9 is a detailed cutaway of a preferred pressure relief valve as used in the flexible bag embodiment. It is a diagram. Those skilled in the art will understand this, including isolation valves found in a variety of applications. We will readily recognize a variety of other valves useful in the application.

Although Figure 9 shows the outlet, a person skilled in the art would be able to view the valve in other directions. It will be readily appreciated that the same valve can be used as the inlet valve.

The inlet 80B is configured to have a shoulder 90 disposed therein. . A sphere 91 seals the opening between the shoulders and is held by a post 92 and a spring 93. ing. Inside the chamber 94 comes from a flexible bag not shown in this figure. As the pressure increases, the force on sphere 9I increases until the pressure overcomes the force from the spring. The force increases and reduces the pressure to the point where the spring 93 can seal the valve again. Allow some of the internal gas to escape.

Adjusting the engineering of the spring 93 and the length of the strut. determines the level of pressure required to open the sphere 91/shoulder 90 combination. It will be arranged.

This valve allows controlled flow without any backflow causing contamination within the flexible bag. This allows gas to be discharged.

An alternative port configuration does not use a pressure valve, but instead allows ozone to start flowing. by a valve that is automatically opened by the ozone generator and closed before stopping the ozone sterilant. It is something that Those skilled in the art will readily recognize various mechanisms to accomplish this goal. Good morning.

10A-10E are side views of embodiments of flexible bags in actual use. Ru.

As mentioned earlier, the ozone generator 40 supplies ozone to the flexible tube through the inlet 80A. 100A to enter the bag and inflate the flexible bag, one end of the flexible bag is sealed. 10IA, the bag is sealed by securing the bead on one edge to the bead locking mechanism. This includes, but is not limited to, forming a resealing mechanism that can be This can be done by various well-known methods. In this embodiment, both sides of the flexible bag are Sealing is achieved by thermally fusing them together.

The flexible bag 100B is removed from the ozone generator 40 and removed by hand pressure 103. Remove gas. Hand pressure 103 forces gas 102C through the outlet of bag 100c. Because the bag is squeezed out, it becomes smaller (100D), making it easier to store and move. Ru. The flexible bag 100D can be stored without losing its sterile state, easily handled.

When the operator intends to use the contents of the bag 100D, the operator uses the end 1 of the bag 100E. When 01E is cut, end 101E becomes opening 104 for removing sterile instruments.

In this way, the instruments are kept sterile until the time they are used.

If the user wishes to reuse the bag 100E, Simply insert the bag through the opening 104 and reseal the opening using a heat sealing operation. Can be reused several times.

FIG. 11 is a block diagram of the production of ozonated liquid and its use in sterilization.

In many situations there is a need for liquid sterilants. The embodiment of FIG. 11 thus It provides an ozone source. Apply ozone gas 110A under pressure to the vibrator 113. By appropriating, ozone is pumped into the bath 114 in the storage tank 113. . In this embodiment, the storage tank 113 is sealed to pressurize and floats in the water. The free ozone is cooled to extend its life (leopard shown). In embodiments, distilled water is used as the liquid medium; Let us easily recognize various other liquids that may be useful in this process.

Gaseous ozone enters the water through the diffuser 112 where it becomes suspended. Ru. Excess gas is removed so that the pressure in the storage tank is maintained within the tolerance range of the container. is degassed.

When the water is sufficiently filled with ozone, the ozonated water is used to sterilize its contents. Pass through connect valve 115A and proceed to container l16. go Connection valve 115B allows container 116 to be removed from ozone depletion mechanism 117 That's what I do.

The used liquid from ozone depletion mechanism 117 is discharged to sewer pipe 118.

FIG. 12 is a perspective view of the self-contained mechanism illustrating its application in surgical applications.

This embodiment has application in operating rooms, locker rooms, delivery rooms, and delivery rooms. large amount of raw This embodiment is useful wherever physically contaminated materials are encountered.

In the operating room, there is a large amount of biological material that must be erased or sanitized. Contaminated waste is produced. This self-contained mechanism allows the practitioner 120 to remove such contaminated materials. , if possible, directly into the drum in the mechanism 121 through the upper opening 122. It's tight.

The self-contained mechanism will later be transported to the processing chamber on wheels.

FIG. 13 is a cutaway view of a preferred self-contained mechanism showing its contents.

Container 121 has a drum 133 sealed by a lid 131. Lid 131 helps maintain the pressurized state of the drum 131. Contaminated materials for humans Note that there is no need to deal with The mechanism 121 can be moved from the operating room to other locations. It is easily transferred by wheels 132.

Once thus sealed, mechanism 121 provides access to water source 130A, waste treatment source 130B, and Connected to a power source (not shown). When the mechanism is activated, the water storage tank 113 becomes ozone. It is filled with ozone from a generator 40. In a preferred embodiment, the water storage tank 1 13 is pressurized and cooled to a selected temperature.

The operator fills the detergent storage tank 137 through the filling hole 130C.

In a preferred embodiment, the water source 130A is relatively pure by removing airborne particles. It flows through a filter 140 which provides a clean water source to the mechanism 121. filter 140 is silver treated with cation and anion exchange resins for maximum filtration performance. It is composed of coconut shell charcoal containing carbon impregnated with It is preferable that

A computer 135 controls the timing and operation of the entire mechanism. Valve block 136 , and Vibrator 138AS 138B and 138c, the computer , manages the following sequential operations.

l) The drum 133 contains ozonized water (water tank 113) and detergent (detergent The storage tank 137) is filled with a mixture base. (Note: This step is based on the implementation In some cases, there are two components: a detergent bath and subsequent sterilization and detergent decomposition. It is divided into ozone bath for break-down. )2) Motor 1 34 causes the agitator 139 to agitate the liquid mixture in the drum 133 and the contaminated fabric material. Ru.

3) The bath with residue from drum 133 is transferred from drum 133 to the waste disposal area. It is pumped through pipe 130B to a waste disposal section (not shown).

・4) The drum 133 is filled with a bath of ozonized water from the water storage tank 113. will be satisfied.

5) The motor 134 is driven by the agitator +39, and the drum! Stir the contents of step 33. .

6) Empty drum 133 of all liquids and residue.

In one embodiment of the invention, the drum 133 extends the life of the ozone therein and It is cooled for enhanced sterilization. In addition, in other embodiments , rotates the drum 133 to help remove liquid from the fabric within the drum 133. let

In this way, the contaminated cloth is cleaned and sterilized, and the now sterile cloth is It can be disposed of by traditional means or even reused.

Mechanism operators must handle contaminated material, except when loading contaminated material into drums. There is no need to touch, handle or physically move it. I want to be noticed. The risk of workers becoming ill from such actions is minimized. It is declining.

From the above, the present invention provides a new and improved cleaning and sterilization mechanism. , it is clear that it encompasses the uses of the invention.

Fxr,,5 Fxr,,1DI) Continuation of front page (31) Priority claim number: 954.968 (32) Priority date: September 30, 1992 Japan (33) Priority claim country United States (US) (31) Priority claim number: 954,978 (32) Priority date: September 30, 1992 Japan (33) Priority claim country United States (US) (31) Priority claim number: 954,979 (32) Priority date: September 30, 1992 Japan (33) Priority claim country United States (US) (81) Designated countries EP (AT, BE, CH, DE.

DK, ES, FR, GB, GR, IE, IT, LU, MC, NL, SE), AU , C.A., J.P., K.R.

Claims (1)

[Claims] 1. a) a housing; b) an ozone generator for generating ozone located within the housing; c) a contact lens container insertable into the housing; and d) from the ozone generator to the contact lens container. a pump located in the housing for transferring ozone; e) a switch installed in the housing for activation by an operator; f) detecting operation of the ozone generator and detecting at least a trick state g) means for detecting operation of said pump and generating a pump actuation signal having at least a trick condition; h) a control means comprising: 1) activating the pump and the ozone generator in response to activation of the switch; 2) A contact lens cleaning system comprising: a control means for deactivating the pump and the ozone generator in response to states of the ozone generation signal and the pump generation signal. 2. The control means includes: a) clock means for measuring the elapsed time since activation of the pump and the ozone generator; and b) when the elapsed time is equal to a predetermined length, the pump and the ozone generator are activated. The contact lens cleaning system of claim 1, further comprising means for deactivating the contact lens. 3. further comprising means for receiving electrical power to the lens cleaning system; The control means may include: a) means for detecting a power failure (power outage) to the contact lens cleaning system; and b) initializing the clock means when power to the contact lens cleaning system is restored. 3. The contact lens cleaning system of claim 2, further comprising: means for. 4. further comprising non-volatile storage means, and the control means is configured to 4. The contact lens cleaning system according to claim 3, further comprising means for recording usage data indicative of operation of the contact lens cleaning system in the storage means. 5. The control means further includes communication means for receiving command data and transmitting usage data through a telephone line, and the control means includes means for transmitting the usage data from the storage means in response to the command data. The contact lens according to claim 4, characterized in that it contains cleaning system. 6. The storage means further includes usage counter data, and the control means further comprises: a) storing the usage counter data prior to activation of the pump and the ozone generator; b) means for comparing said usage data with said usage data; 6. The contact lens cleaning system according to claim 5, further comprising means for terminating the operation when the counter data is equal to or exceeds the counter data. stem. 7. The contact lens container includes: a) a first valve that automatically seals upon removal of the contact lens container from the housing, the first valve for receiving ozone from the pump; and b) When the contact lens container is removed from the housing, it is automatically sealed. a second valve configured to allow excess ozone in said container to enter the environment; 2. The contact lens cleaning system of claim 1, further comprising: a second valve for controlling the contact lens cleaning system. 8. The contact lens container stores a contact lens in the contact lens container. 8. The contact lens cleaning system of claim 7, further comprising a sealable opening for entry into a container. 9. a) a solution contained in the contact lens container, and b a solution containing the ointment in the solution. 2. The contact lens cleaning system of claim 1, further comprising: a diffuser disposed within the contact lens container for diffusing the contact lens. Mu. 10. 10. The contact lens cleaning system of claim 9, wherein the diffuser includes at least one flat plate diffuser. 11. The contact lens cleaning system according to claim 1, wherein the ozone generator includes an ultraviolet lamp for generating the ozone. 12. The ultraviolet lamp is U-shaped and includes a chamber surrounding the ultraviolet lamp. further comprising a chanovar, the chanovar having a first end open to receive ambient air from the pump and communicating with the first valve of the contact lens container. 12. The contactor according to claim 11, wherein the contactor has a second end that extends through the contactor. Torrens cleaning system. 13. 8. The contact lens cleaning system of claim 7, further comprising an ozone scavenging element interposed between the second valve of the contact lens container and the environment. stem. 14. a) a housing; b) an ozone generator for generating ozone located within the housing; c) a contact lens container insertable into the housing; and d) a supply line from the ozone generator to the contact lens container. a pump located within the housing for transporting ozone. 15. a) a switch installed in the housing for activation by an operator; b) means for detecting operation of the ozone generator and generating an ozone activation signal having at least two states; c) d) means for detecting operation of said pump and generating a pump activation signal having at least two states; d) means for controlling said pump and said ozone generation in response to activation of said switch; Revitalize the vessel 14. Claim 14, further comprising: 2) control means for deactivating the pump and the ozone generator in response to states of the ozone generation signal and the pump generation signal. Contact lens cleaning system as described. 16. The control means includes: a) clock means for measuring the elapsed time since activation of the pump and the ozone generator; and b) when the elapsed time is equal to a predetermined length, the pump and the ozone generator are activated. 16. The contact lens cleaning system of claim 15, further comprising means for deactivating the contact lens. Mu. 17. The control means further includes means for receiving power to the contact lens cleaning system, and the control means includes: a) means for detecting an abnormality in the power supply to the contact lens cleaning system; and b) a means for detecting an abnormality in the power to the contact lens cleaning system. 17. The contact lens cleaning system of claim 16, further comprising: means for initializing the clock means upon restoration of power to the system. Mu. 18. further comprising non-volatile storage means, and the control means is configured to control the controller. Usage data indicating the operation of the tact lens cleaning system is recorded in the storage means. 18. The contact lens cleaning system of claim 17, further comprising means for cleaning the contact lens. 19. further comprising communication means for receiving command data and transmitting usage data through a telephone line, and further comprising means for transmitting the usage data from the storage means in response to the command data. The contact lens according to claim 18, characterized in that the contact lens comprises: cleaning system. 20. The storage means further includes usage counter data, and further includes usage counter data. The control means includes: a) collecting the usage counter data prior to activation of the pump and the ozone generator; b) means for comparing said usage data with said usage data; 20. The contact lens cleaning system of claim 19, further comprising means for terminating the operation if the counter data is equal to or exceeds the counter data. 21. The contact lens container includes: a) a first valve that automatically seals upon removal of the contact lens container from the housing, the first valve for receiving ozone from the pump; and b) When the contact lens container is removed from the housing, it is automatically sealed. a second valve configured to allow excess ozone in said container to enter the environment; 15. The contact lens cleaning system of claim 14, further comprising: a second valve for controlling the contact lens cleaning system. 22. 22. The contact lens container includes a sealable opening for placing a contact lens into the contact lens container. Contact lens cleaning system. 23. a) a solution contained in the contact lens container; and b) a solution contained in the solution. 15. The contact lens cleaning system of claim 14, further comprising: a diffuser disposed within the contact lens container for diffusing the ozone. 24. 24. The diffuser according to claim 23, wherein the diffuser is a flat plate diffuser. Contact lens cleaning system. 25. The contact lens cleaning system according to claim 14, wherein the ozone generator includes an ultraviolet lamp for generating the ozone. 26. The ultraviolet lamp is U-shaped and includes a chamber surrounding the ultraviolet lamp. Claim further comprising a chamber having a first end open to receive ambient air and a second end communicating with the pump. 26. The contact lens cleaning system according to item 25. 27. 22. The contact lens cleaning system of claim 21, further comprising an ozone scavenging element interposed between the second valve of the contact lens container and the environment. 28. a) a housing having at least two slots; and b) said housing. c) at least two containers insertable into slots in said housing; and d) an ozone generator for generating ozone located within said housing. e) a pump located within said housing for transferring ozone to a selected group of at least two containers; and e) said housing for operator activation. f) sensing means for identifying which of said slots has a container therein and generating slot occupancy data indicative thereof; g) control means, comprising: 1) activating the pump and the ozone generator in response to activation of the switch; 2) a control means for delivering ozone to a selected group of said at least two containers in response to said slot occupancy data. 29. a) detecting the operation of the ozone generator and detecting the ozone generator having at least two states; b) means for detecting actuation of said pump; and means for generating a pump activation signal having at least two states, the control means being responsive to states of the ozone generation signal and the pump generation signal to generate a pump activation signal having at least two states. 29. The cleaning and sterilization system of claim 28, further comprising means for deactivating the ozone generator. 30. The control means includes: a) a clock hand for measuring the elapsed time of ozone being delivered to each of the slots; b) when the elapsed time of said slot is equal to a predetermined length, an operation to the slot is performed; and means for stopping the delivery of the zon. 30. The cleaning and sterilization mechanism according to claim 29. 31. The control means further includes means for receiving power to the contact lens cleaning system, and the control means includes: a) means for detecting an abnormality in the power supply to the contact lens cleaning system; and b) a means for detecting an abnormality in the power to the contact lens cleaning system. 31. The cleaning and sterilization system of claim 30, further comprising: means for initializing said clock means upon restoration of power to the system. 32. further comprising non-volatile storage means, and the control means is configured to control the controller. Usage data indicating the operation of the tact lens cleaning system is recorded in the storage means. 32. A cleaning and sterilization system as claimed in claim 31, including means for cleaning. 33. further comprising communication means for receiving command data and transmitting usage data through a telephone line, and further comprising means for transmitting the usage data from the storage means in response to the command data. 33. The cleaning and sterilization system of claim 32, further comprising: 34. The storage means further includes usage counter data, and further includes usage counter data. The control means includes: a) collecting the usage counter data prior to activation of the pump and the ozone generator; b) means for comparing said usage data with said usage data; 34. The cleaning and sterilization system of claim 33, further comprising: means for terminating the operation if the counter data is equal to or exceeds the counter data. 35. Each of the at least hang containers has a) a resealable door for placing articles to be cleaned into the container, and b) at least a hang condition that is visible to the operator. , wherein at least one of said states is 29. The cleaning and sterilization system of claim 28, further comprising status indicating means responsive to opening the resealable door. 36. 36. The cleaning and sterilization system of claim 35, wherein said control means includes means for changing the state of said state indicating means. 37. Each of the containers includes: a) a first valve that automatically seals upon removal of the contact lens container from the housing for receiving ozone from the pump; and b) a first valve that receives ozone from the pump. When the contact lens container is removed from the housing, it will automatically seal. a second valve configured to allow excess ozone in said container to enter the environment; 37. The cleaning and sterilization mechanism of claim 36, further comprising: a second valve adapted to allow the cleaning and sterilization system to be cleaned and sterilized. 38. a) a liquid agent contained in the container; and b) the ozone is diffused into the liquid agent. 29. The cleaning and sterilization arrangement of claim 28, further comprising: a diffuser disposed within each of said at least one container for disposing of said at least one container. 39. A diffuser within each of the at least one container includes at least one flat diffuser. 39. The cleaning and sterilization system of claim 38, further comprising a plate diffuser. 40. 29. The cleaning and sterilization system of claim 28, wherein the ozone generator includes an ultraviolet lamp for generating the ozone. 41. The ultraviolet lamp is U-shaped and includes a chamber surrounding the ultraviolet lamp. further comprising a chamber having a first end open to receive ambient air from the pump and communicating with a first valve of each of the at least one container. 41. The cleaning and sterilizing mechanism of claim 40, further comprising a second end extending therethrough. 42. a) means for supplying oxygen gas under pressure; b) a container having an article to be exposed to ozone therein, the container having an inlet and an outlet; c) for supplying said oxygen gas. an ozone generating element receiving oxygen gas from the means of the container and passing the ozone-laced oxygen gas stream to the inlet of said container. generation system. 43. The inlet is capable of disengaging the container from the ozone generating element. 43. The ozone generation system according to claim 42, further comprising a valve that can be closed. 44. The article to be exposed to ozone includes a hollow tube having N openings, and further includes an adapter mounted inside the inlet, the adapter being one of the N openings of the hollow tube. 44. The ozone generation system of claim 43, wherein the gas stream is passed through N-1. 45. A valve in the inlet is preselected between the container and the ozone generating element. 45. The ozone generation system of claim 44, further comprising pressure sensing means for opening the valve in the inlet when there is a pressure difference between the ozone and the inlets. 46. 45. The ozone decomposition means of claim 44, further comprising ozone decomposition means for destroying ozone, said ozone decomposition means communicating with said outlet of said container. Zon generation system. 47. 47. The ozone generation system of claim 46, wherein the outlet includes a valve that closes when the container disengages from the ozone destruction means. 48. 48. The ozone generation system of claim 47, wherein the valve includes means for releasing gas from the container when the pressure within the container reaches a predetermined height. 49. 46. The ozone generation system of claim 45, wherein the means for supplying oxygen includes a pressure vessel containing a source of substantially pure oxygen under pressure. Mu. 50. 46. The ozone according to claim 45, wherein the container is a rigid structure. generation system. 51. 46. The ozone generation system according to claim 45, wherein the container is a flexible bag. 52. 46. The ozone generation system of claim 45, further comprising means for cooling the container to a selected temperature. 53. a) means for supplying oxygen gas under pressure; and b) an ozone generating element for receiving oxygen gas from said means for supplying oxygen gas and generating a gas flow of oxygen and ozone. Ozone generation system. 54. The method further includes a container having an article therein for exposure to ozone, the container having an inlet and an outlet, the inlet receiving the gas flow from the ozone generating element. 54. The ozone generation system according to claim 53. 55. 55. The ozone generation system of claim 54, further comprising means for cooling the container to a predetermined temperature. 56. 56. The ozone generation system of claim 55, wherein the inlet includes a valve that closes when the container disengages from the ozone generation element. 57. The article to be exposed to ozone includes a hollow article having N openings, and further includes an adapter mounted inside the inlet, the adapter comprising N of the N openings of the hollow article. 57. The ozone generation system of claim 56, wherein the gas stream is passed through one ozone generator. 58. A valve in the inlet is preselected between the interior of the container and the ozone generating element. 58. The ozone generation system of claim 57, including pressure sensing means for opening said valve in said inlet when a selected pressure difference exists. 59. 58. The ozone generator of claim 57, further comprising ozone decomposition means for destroying ozone, said ozone decomposition means communicating with said outlet of said container. Zon generation system. 60. The outlet is configured to disengage the container from the ozone decomposition means. 60. The ozone generation system according to claim 59, further comprising a valve that can be closed. 61. 61. The ozone generation system of claim 60, wherein the valve includes means for releasing gas from the container when the pressure within the container reaches a predetermined height. 62. 59. The ozone generation system of claim 58, wherein the means for supplying oxygen comprises a pressure vessel containing a source of substantially pure oxygen under pressure. Mu. 63. 59. The ozone according to claim 58, wherein the container is a rigid structure. generation system. 64. 59. The ozone generation system according to claim 58, wherein the container is a flexible bag. 65. a) a container for supplying oxygen gas under pressure; and b) an article to be exposed to ozone. c) a container for receiving enzyme gas from said means for supplying oxygen gas; d) means for maintaining said container at a preselected temperature. 66. The specified article to be exposed to ozone includes a hollow tube having N openings, and further includes an adapter attached to the inside of the inlet, and the adapter includes a hollow tube having N openings of the specified hollow tube. 66. The dry gas sterilization mechanism according to claim 65, wherein the gas flow is passed through N-1. 67. The inlet is capable of disengaging the container from the ozone generating element. claim 1, further comprising pressure sensing means for opening the inlet when a preselected pressure difference exists between the interior of the container and the ozone generating element. 66. The dry gas sterilization mechanism described in 66. 68. 70. The dry gas sterilization system of claim 67, further comprising ozone decomposition means for destroying ozone, said ozone decomposition means receiving excess gas from said outlet of said container. 69. The outlet is configured to disengage the container from the ozone decomposition means. a valve that allows the gas to be discharged from the container when the pressure within the container reaches a predetermined height; 68. The ozone generator according to claim 67, further comprising means for emitting ozone from the ozone generator. raw system. 70. 70. The dry gas sterilization system of claim 69, wherein the means for supplying oxygen includes a pressure vessel containing a source of substantially pure oxygen under pressure. 71. 71. The dry gas sterilization mechanism according to claim 70, wherein the container is a rigid structure. Completed 2. 71. The dry gas according to claim 70, wherein the container is a flexible bag. Sterilization mechanism. 73. a) a pressure vessel having a selected liquid therein; b) means for blowing pressurized ozone gas into the liquid in said pressure vessel; c) a container having an article therein; d) a liquid and ozone gas. a) means for passing the mixture from the pressure vessel to the vessel such that the mixture contacts the article; e) passing excess mixture from the vessel to the vessel; an ozonation system comprising means for removing 74. 74. The ozonation system of claim 73, further comprising means for cooling the vessel and the pressure vessel. 75. The means for removing the excess mixture includes ozonating the excess mixture. 75. The ozonation system of claim 74, wherein the ozonation system is in communication with a decomposition mechanism. 76. 75. The ozonation system of claim 74, wherein the means for removing excess mixture is in communication with a waste treatment system. 77. for diffusing the ozone gas into the selected liquid within the pressure vessel. 75. The ozonation system of claim 74, further comprising means for: 78. 78. The ozonation system according to claim 77, wherein the liquid is distilled water. stem. 79. a) a first valve for disengaging said vessel from said pressure vessel; and b) a first valve for disengaging said vessel from said pressure vessel; and a second valve for disengaging the container from the disassembly means. The ozonization system according to claim 78, characterized in that: 80. 80. The ozonation system of claim 79, wherein the first and second valve means close upon disengagement. 81. 81. The ozonation system of claim 80, wherein the first valve means is opened by a selected amount of pressure from the pressure vessel. 82. 81. The ozonation system of claim 80, wherein said second valve means includes means for regulating the flow rate to maintain a selected intensity of pressure from said container. 83. The article in the container includes a hollow tube having at least N openings, and the article is injected from the pressure vessel through a first valve into N-1 of the N openings of the hollow tube. 81. The ozone according to claim 80, further comprising an adapter for passing the compound. conversion system. 84. a) a pressure vessel having a selected legal body material therein; b) means for blowing pressurized ozone gas into a liquid within said pressure vessel; and c) a means for cooling said pressure vessel. An ozone bath generation system comprising: 85. a) a container having an article therein; b) means for communicating a mixture of liquid material and ozone from said pressure vessel to said container; and e) means for removing excess mixture from said container. , have special 85. The ozone bath generation system according to claim 84. 86. 86. The ozone bath generation system of claim 85, further comprising means for destroying ozone in the excess mixture. 87. 87. The ozone bath generation system of claim 86, wherein the means for removing excess mixture is in communication with a waste treatment system. 88. 86. The ozone bath generation system of claim 85, further comprising means for diffusing the ozone gas into the liquid material within the pressure vessel. 89. 89. The ozone bath generation system according to claim 88, wherein the liquid material is distilled water. 90. a) a first valve for disengaging said vessel from said pressure vessel; and b) a first valve for disengaging said vessel from said pressure vessel; 90. The ozone bath generation system of claim 89, further comprising a second valve for disengaging the container from the ozone destruction means. 91. 91. The ozone bath generation system of claim 90, wherein the first and second valve means close upon disengagement. 92. 92. The ozone bath generation system of claim 91, wherein said first valve means is opened by a selected amount of pressure from said pressure vessel. 93. 92. The ozone bath generation system of claim 91, wherein said second valve means is opened by a selected amount of pressure from said container. 94. The article in the vessel includes a hollow article having at least N openings, the mixture being passed from the pressure vessel through a first valve to N-1 of the N openings of the hollow article tube. 92. The option of claim 91, further comprising an adapter. Zon bath generation system. 95. a) a pressure vessel having a selected liquid material therein; b) means for blowing pressurized ozone gas into the liquid material within said pressure vessel; c) a container having an article therein; and d) a liquid. A mixture of material and ozone gas is passed from the pressure vessel to the vessel. e) means for removing excess mixture from said container; and f) means for cooling said container and said pressure container. 96. 96. The sterilization system of claim 95, further comprising means for destroying ozone in the excess mixture from the container. 97. 96. The sterilization system of claim 95, wherein the means for removing excess mixture is in communication with a waste disposal system. 98. 96. The sterilization system of claim 95, further comprising means for diffusing the ozone gas into the liquid material within the pressure vessel. 99. 99. The sterilization system of claim 98, wherein the liquid material is distilled water. stem. 100. further comprising: a) a first valve for disengaging the vessel from the pressure vessel; and b) a second valve for disengaging the vessel from the disassembly means. 100. The sterilization system of claim 99. 101. The first and second valve means are characterized in that they close upon disengagement. A sterilization system according to claim 100. 102. Said first valve means is opened by a selected amount of pressure from said pressure vessel. 102. The sterilization system of claim 101. 103. The second valve means is operable to close by a selected amount of pressure from the container. 102. The sterilization system of claim 101. 104. The article in the container includes a hollow tube having at least N openings, and the mixture is delivered from the pressure vessel through a first valve to N-1 of the N openings of the hollow tube. 102. The sterilization system of claim 101, further comprising a communicating adapter. 105. a) For loading water-sealed and flexible items. a cleaning and sterilization mechanism comprising: a drum having a main inlet for said drum; b) means for creating an ozone bath within said drum; and c) agitation means for agitating said ozone bath and said articles. . 106. 107. A cleaning and sterilization system according to claim 105, wherein the stirring means includes means for generating acoustic vibrations within the ozone bath. 106. The ozone bath is a gas mixture of oxygen and ozone. Built-in cleaning and sterilization mechanism. 108. 106. The cleaning and sterilization mechanism according to claim 105, wherein the ozone bath is a liquid in which gaseous ozone is suspended. 109. 109. The cleaning and sterilizing method according to claim 108, wherein the liquid is water. Bacteria mechanism. 110. further comprising filter means for filtering the water prior to preparation of said ozone bath. 110. The cleaning and sterilization system of claim 109, further comprising: 111. 109. The cleaning and sterilization mechanism of claim 108, wherein the drum further includes means for sealing the main inlet. 112. The claim further comprises means for pressurizing the drum. The cleaning and sterilization mechanism according to claim 111. 113. 113. The cleaning and sterilization mechanism of claim 112, further comprising means for draining liquid from the drum. 114. 114. The cleaning and sterilization mechanism of claim 113, further comprising means for rotating the drum. 115. Further comprising cooling means for cooling the drum. 115. The cleaning and sterilization mechanism of claim 114. 116. a) detergent addition means for charging detergent into the drum; and b) control means, comprising: 1) causing the means for preparing an ozone bath to prepare a first ozone bath; 3) causing the detergent adding means to introduce the detergent into the drum; and 3) causing the stirring means to add the detergent and 4) discharging the detergent and the ozone bath into the discharge means; 5) causing the means for preparing an ozone bath to prepare a second ozone bath; 7) causing the stirring means to stir the second ozone bath; and 7) simultaneously A) causing the evacuation means to evacuate liquid from the drum; and B) causing the rotating means to The claim further comprises: control means for rotating the drum. The cleaning and sterilization mechanism according to claim 115. 117. further comprising a liquid storage tank for accommodating the ozone bath; The means for preparing a water bath comprises drawing the bath mixture from the storage tank. 109. The cleaning and sterilization mechanism of claim 108. 118. 118. The cleaning and sterilization mechanism of claim 117, wherein the liquid storage tank is sealed and pressurized. l19. The cooling means may include means for cooling the liquid storage tank. 120. The cleaning and sterilization mechanism of claim 118. 120. a) Selected liquids with suspended ozone gas and biologically contaminated materials and b) stirring means for mechanically stirring said ozone bath and said biologically contaminated material. waste disposal mechanism. 121. 121. The biologically harmful waste treatment machine according to claim 120, wherein the stirring means includes means for generating acoustic vibrations within the ozone bath. Structure. 122. 121. The liquid of claim 120, wherein the selected liquid is water. Mechanism for processing physically hazardous waste. 123. further comprising filter means for filtering the water prior to preparation of said ozone bath. 121. A biologically harmful waste treatment mechanism according to claim 120. 124. further comprising a drum for containing the ozone bath and the biologically contaminated material, the drum having a) a main inlet for inputting the material; and b) an operator accessing the main inlet. and means for sealing the inlet. Harmful waste disposal mechanism. 125. The claim further comprises means for pressurizing the drum. 125. A biologically harmful waste treatment mechanism according to claim 124. 126. 126. A biologically hazardous waste disposal mechanism as claimed in claim 125, further comprising means for discharging liquid from the drum. 127. 127. A biologically hazardous waste treatment mechanism as claimed in claim 126, further comprising means for rotating said drum. 128. 128. The cleaning and sterilization system of claim 127, further comprising cooling means for cooling the drum to a selected temperature. 129. a) detergent addition means for introducing detergent into said drum; and b) control means, the means for preparing an ozone bath comprising: a) a means for preparing a first ozone bath in said drum; 2) causing the detergent addition means to introduce detergent into the drum; 3) causing the agitation means to agitate all the contents of the drum; and 4) causing the discharge means to add the detergent and ozone. 5) means for preparing an ozone bath, a second ozone bath is prepared in the drum; 6) causing the stirring means to stir the ozone bath; 7) simultaneously: A) causing the evacuation means to evacuate liquid from the drum; and B) causing the rotating means to evacuate the liquid from the drum. The claim further comprises: control means for rotating the drum. 129. A biologically harmful waste treatment mechanism according to claim 128. 130. A storage tank containing a bath mixture of liquid material and ozone gas dispersed therein. further comprising a tank, wherein the means for preparing the ozone bath removes the bath mixture from the storage tank. 130. A biologically harmful waste treatment mechanism according to claim 129, characterized in that: 131. 131. The biologically hazardous waste treatment mechanism of claim 130, wherein the liquid storage tank is sealed and pressurized. 132. The cooling means may include means for cooling the liquid storage tank. 132. The biologically harmful waste treatment mechanism according to claim 131. 133. a) A liquid containing suspended ozone gas surrounding materials contaminated with biological substances b) stirring means for mechanically stirring said ozone bath and said material; and c) a drum for containing said ozone bath and said material. , a drum having: 1) a main inlet for inputting said material; 2) means for sealing said main inlet; d) means for pressurizing said drum; and e) means for introducing said detergent into said drum. f) control means for adding detergent to the drum; 1) prepare a mixture in the drum, and 2) prepare a mixture in the drum; 3) discharging the first mixture from the drum; and 4) discharging the ozone bath by the means for preparing an ozone bath in the drum. 5) stirring the second mixture in the drum by the stirring means; 6) stirring the second mixture in the drum; and control means for emptying the drum from said drum. 134. 134. The biologically harmful waste treatment machine of claim 133, wherein the stirring means includes means for generating acoustic vibrations within the ozone bath. Structure. 135. further comprising means for rotating said drum, and said means for emptying said second mixture simultaneously comprising: a) discharging liquid from said drum; and b) causing said drum to rotate by means of said rotating means. including means for rotating the 134. The biologically harmful waste treatment mechanism according to claim 133. 136. The claim further includes means for cooling the drum. 136. A biologically harmful waste treatment mechanism according to claim 135. 137. Contains a bath mixture of the selected liquid material and ozone gas dispersed therein. further comprising a liquid storage tank, wherein the means for preparing the ozone bath removes the bath mixture from the liquid storage tank. 135. The biologically harmful waste treatment mechanism according to claim 134, wherein: 138. 138. The biologically hazardous waste treatment mechanism of claim 137, wherein the liquid storage tank is sealed and pressurized. 139. a) preparing a first mixture of a first selected liquid and a detergent having ozone gas suspended therein in a drum having biologically contaminated material therein; and b) in said drum. c) discharging the first mixture and residue from the drum; and d) stirring a second selected liquid and the residue suspended therein. preparing a second mixture with free ozone gas in the drum; e) stirring the second mixture in the drum; and f) introducing the second mixture into the drum. A method for disposing of biologically hazardous waste including emptying the ram. 140. The step of stirring the first mixture includes the step of generating acoustic vibrations in the first mixture, and the step of stirring the second mixture includes the step of generating acoustic vibrations in the second mixture. 140. The biologically active compound according to claim 139, comprising: How to dispose of harmful waste. 141. During the step of emptying the drum of a second mixture, the drum is rotated. 140. The method of claim 139, further comprising the step of: 142. further comprising cooling the drum when the mixture is in the drum. 140. The method for treating biologically harmful waste according to claim 139. 143. A flexible bag for sterilization by exposure to ozone, having an inlet for receiving ozone from an ozone-generating element and an outlet for passing ozone from the flexible bag to an ozone decomposition mechanism. A flexible bag having a 144. The inflow port and the outflow port are characterized in that they close when disengaged. The flexible bag according to claim 143. 145. 144. The flexible bag of claim 143, wherein the inlet includes an inlet valve capable of disengaging the flexible bag from an ozone generating element. 146. The inlet valve is located between the interior of the flexible bag and the ozone generating element. 146. The flexible bag of claim 145, including pressure sensing means for opening said inlet valve when a selected pressure differential exists. 147. 147. The flexible bag of claim 146, wherein the outlet includes an outlet valve capable of disengaging the flexible bag from the ozonolysis means. 148. The outlet valve is characterized in that the outlet valve includes means for releasing gas from the flexible bag when the pressure within the flexible bag reaches a predetermined level. The flexible bag according to claim 147. 149. 149. The flexible bag of claim 148, wherein the first end of the bag is open for placing items into the flexible bag. 150. 150. The flexible bag of claim 149, wherein the first end is sealable. 151. The first end is sealed by heat melting the sides of the flexible bag. 151. The flexible bag of claim 150. 152. 151. The flexible tube of claim 150, wherein a first side of the first end includes a bead and a second side of the first end includes a bead locking mechanism. bag. 153. A sterile bag comprising: a) a side member with a hanger sealed around the periphery and forming an internal envelope; b) an inlet; and c) an outlet. 154. The inflow port and the outflow port are characterized in that they close when disengaged. The sterilization bag according to claim 153. 155. The inlet has an inlet capable of simultaneously disengaging and sealing the inlet. 154. The sterilization bag of claim 153, including a mouth valve mechanism. 156. A valve in the inlet provides a preselected pressure between the interior and exterior of the sterile bag. 156. The sterilization bag of claim 155, further comprising pressure sensing means for opening the inlet valve mechanism in the presence of a force differential. 157. The outlet has an outlet capable of simultaneously disengaging and sealing the outlet. 157. The sterilization bag of claim 156, including a mouth valve mechanism. 158. 158. The sterilization bag of claim 157, wherein the outlet valve mechanism includes means for releasing gas from the sterilization bag when pressure within the sterilization bag reaches a predetermined level. 159. 159. The sterile bag of claim 158, wherein the first end of the bag is open for receiving an article. 160. 160. The sterilization bag of claim 159, wherein the first dawn is sealable. 161. 161. The sterilization bag of claim 160, wherein the first end is sealed by heat fusing a side of the sterilization bag. 162. a first side of the first end includes a bead; 161. The sterilization bag of claim 160, wherein the side includes a bead locking feature. 163. a) two flexible side members whose rims are sealed all the way around and form an internal envelope; and b) an inlet, which simultaneously disengages and seals the inlet. If there is a preselected pressure difference across the inlet valve mechanism and the inlet valve mechanism that can be c) an inlet having a pressure sensing means for opening the mouth valve mechanism; c) an outlet, the outlet valve mechanism being capable of disengaging and sealing the outlet at the same time; A sterilization bag comprising: means for releasing gas from the package when the pressure of the package reaches a predetermined level; and an outlet having: 164. 164. The sterile bag of claim 163, wherein the first end of the bag is open for receiving an article. 165. 165. The sterilization bag of claim 164, wherein the first end is sealable. 166. The first end may be sealed by heat fusing the flexible side. 166. The sterilization bag according to claim 165. 167. A first flexible side of the first end includes a bead, and a second flexible side of the first end includes a bead locking mechanism. 166. The sterilization bag according to claim 165.