WO2010132496A1 - System, method, process and product for cleaning, whitening and therapeutic surface enhancement, using sonic or ultrasonic waves or acoustic streams - Google Patents
System, method, process and product for cleaning, whitening and therapeutic surface enhancement, using sonic or ultrasonic waves or acoustic streams Download PDFInfo
- Publication number
- WO2010132496A1 WO2010132496A1 PCT/US2010/034440 US2010034440W WO2010132496A1 WO 2010132496 A1 WO2010132496 A1 WO 2010132496A1 US 2010034440 W US2010034440 W US 2010034440W WO 2010132496 A1 WO2010132496 A1 WO 2010132496A1
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- Prior art keywords
- omni
- containment chamber
- energy source
- sonic energy
- active ingredient
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- RHJITQJBHCWZLJ-UHFFFAOYSA-N CC(C1)C1NC Chemical compound CC(C1)C1NC RHJITQJBHCWZLJ-UHFFFAOYSA-N 0.000 description 1
Classifications
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- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61C—DENTISTRY; APPARATUS OR METHODS FOR ORAL OR DENTAL HYGIENE
- A61C17/00—Devices for cleaning, polishing, rinsing or drying teeth, teeth cavities or prostheses; Saliva removers; Dental appliances for receiving spittle
- A61C17/16—Power-driven cleaning or polishing devices
- A61C17/20—Power-driven cleaning or polishing devices using ultrasonics
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- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61C—DENTISTRY; APPARATUS OR METHODS FOR ORAL OR DENTAL HYGIENE
- A61C17/00—Devices for cleaning, polishing, rinsing or drying teeth, teeth cavities or prostheses; Saliva removers; Dental appliances for receiving spittle
- A61C17/16—Power-driven cleaning or polishing devices
- A61C17/22—Power-driven cleaning or polishing devices with brushes, cushions, cups, or the like
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- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61C—DENTISTRY; APPARATUS OR METHODS FOR ORAL OR DENTAL HYGIENE
- A61C19/00—Dental auxiliary appliances
- A61C19/06—Implements for therapeutic treatment
- A61C19/063—Medicament applicators for teeth or gums, e.g. treatment with fluorides
Definitions
- the present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces.
- This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth.
- the present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces.
- This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth.
- omni-sonic means the entire range of energy and wavelengths, without limitation, associated with sonic and ultrasonic waves.
- the term enhance, enhancing or any derivations thereof means any and all activity, without limitation, to activate, increase the level and depth of penetration or absorption of, and/or improve the efficacy of, cleaning agents, whitening agents or therapeutic agents into hard or soft surfaces.
- the term active ingredient means cleaning agents, whitening agents or therapeutic agents (or medicaments).
- the term contact surfaces include both hard surfaces and soft surfaces, in particular, oral surfaces such as the teeth, gums, skin and bones. The oral surface can include human oral surfaces as well as other animal oral surfaces.
- Ultrasonic devices have been used over the last decades as cleaning instruments for various items, including mechanical parts, and jewelry. Many ultrasonic cleaning baths are used to hold the cleaning liquid and object needing to be cleaned. This container creates a fixed environment in which the ultrasonic waves can enhance the efficacy of the cleaning agent. Dentists have used ultrasonic waves to remove build-up of tartar from teeth surfaces and remove stains. Ultrasonic teeth cleaning devices have been disclosed in, for example Kruse, et al., US Patent No. 3,375,820 and Robinson, US Patent No. 3,645,256, which are incorporated in their entirety by reference. Ultrasonic sealers incorporate a sonitrode and an ultrasonic source to physically contact the tooth and knock off deposits.
- ultrasonic dental sealer examples include Regere, et al., US Patent Application Publication No. 2008/0293008, and Atkin, et al., US Patent No. 7,217,128, each of which are incorporated herein in their entirety by reference.
- Ultrasonic waves have also been used to enhance the absorption of medicament via phonophoresis.
- ultrasonic shaping devices have been used by dentists as disclosed in Huguenin, et al., US Patent No. 7,172,420, which is incorporated herein in its entirety by reference.
- the present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces.
- This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth.
- the benefits of active ingredients can be enhanced by increasing the level and depth of penetration into hard or soft surfaces.
- a hard surface would be the human tooth.
- the human gum, skin or bone tissue is an example of a soft surface.
- the omni-sonic waves impart omni-sonic energy to the active ingredient, whether it is a cleaning, whitening or therapeutic agent, to enhance its effectiveness by increasing the molecular activity of the agent.
- the increased molecular activity of the active ingredient activates, increases the level and depth of penetration or absorption of, and/or increases the efficacy of the active ingredient into hard or soft surfaces.
- a containment chamber is provided.
- this invention can be applied to enhance the absorption of various medicaments into both the hard and soft tissues of the oro-pharyngeal cavity.
- the present invention includes an omni-sonic energy source, such as a sonitrode tip, and a containment chamber, that encloses the omni-sonic energy source and at least a portion of the active ingredient, and that works to direct the active ingredient to a specified surface area while simultaneously acting as a splatter guard.
- This containment chamber provides an environment where omni-sonic waves can form and enhance the active ingredient.
- the laws of Mass Cleaning Action also state that cleaning agents increase their ability to function when agitation is increased.
- the present invention relates to a system for enhancing contact surfaces comprising: an omni-sonic energy source, wherein the omni-sonic energy source is activated by a power source; an omni-sonic energy source tip having a length and a width and comprising: a working end at a distal end of the length of the omni-sonic energy source tip; and a connecting end at a proximal end of the length of the omni-sonic energy source tip and connected to the omni- sonic energy source; an active ingredient; and a containment chamber in which at least a portion of the omni-sonic energy source tip is located and comprising: a contact end at a distal end of the containment chamber; and a connecting end at a proximal end of the containment chamber and walls physically connected to the connecting end, wherein the containment chamber contains at least a portion of the active ingredient when the omni-sonic energy source is activated, and wherein omni- sonic energy source provides
- the present invention relates to a method of enhancing a contact surface comprising: applying an active ingredient; containing and directing the active ingredient to an area of the contact surface; creating omni- sonic waves, in the active ingredient, having an omni-sonic frequency and an amplitude.
- the present invention relates to a process for removing stains on a contact surface comprising: selecting a stained portion of the contact surface; applying an effective amount of an active ingredient to the stained portion of the contact surface; containing and directing the active ingredient and a working end of an omni-sonic energy source tip to said stained portion of the contact surface; and activating the working end of the omni-sonic energy source tip imparting omni-sonic waves to the active ingredient.
- the present invention relates to a containment chamber attachment comprising: an opening at a contact end; a connecting end opposing the contact end, said connecting end including a passage to permit a working end of an omni-sonic energy source tip be placed into the containment chamber; and walls defining the opening at the contact end and connected to the connecting end.
- the present invention relates to a containment chamber attachment comprising: a top wall having a width and a length; two opposing side walls connected to at least a portion of the top side; a contact end connected to the top wall and the two side walls; an opening opposing the top wall; a connecting end opposing the contact end; and said connecting end including a passage to permit a working end of an omni-sonic energy source tip to be placed into the containment chamber attachment and an attachment to connect the containment chamber attachment to an omni-sonic dental apparatus.
- the present invention relates to a method of enhancing a contact surface comprising: applying an active ingredient to at least one area; containing and directing the active ingredient to an area of the contact surface; covering the at least one area with a film; creating omni-sonic waves, in the active ingredient, having an omni-sonic frequency and an amplitude.
- the invention combines the containment chamber, omni-sonic energy source, and active ingredient. It encompasses these items into a unique environment that allows for increased efficacy and absorption of cleaning and whitening agents and therapeutics. Without the unique environment created by this invention, cleaning, whitening and therapeutic agents would leave the surface target area due to eddies created by the omni-sonic waves, decreasing or eliminating the agents' effectiveness against the surface.
- Figure 1 shows a prior art piezoelectric omni-sonic energy source tip device with handle, power source and foot pedal.
- Figure 2 shows a prior art magnetostrictive omni-sonic energy source tip sonotrode device with handle, power source and foot pedal.
- Figure 3 illustrates a prior art sonotrode used on a tooth.
- Figure 4 illustrates a close-up of a splatter of the active ingredient caused by a prior art sonotrode being used with an active ingredient on a tooth.
- Figure 5A illustrates a working end of an omni-sonic source tip having bristle fibers.
- Figure 5B illustrates a working end of an omni-sonic source tip having perforations.
- Figure 5C illustrates a working end of an omni-sonic source tip having an uneven surface.
- Figure 5D illustrates a working end of an omni-sonic source tip having a detachable sticker.
- Figure 6A shows side view of a containment chamber of the present invention and a separate omni-sonic source tip and handle.
- Figure 6B shows a side view of the omni-sonic source tip and handle structure centered within the containment chamber.
- Figure 6C shows a bottom view of the omni-sonic source tip and handle structure centered within the containment chamber.
- Figure 7A illustrates a side view of the containment chamber in which the contact end is circular in shape and omni-sonic source tip is centered within the containment chamber.
- Figure 7B illustrates a view of a containment chamber which has a three sided shape as shown at the contact end of the containment chamber.
- Figure 7C illustrates another view of a containment chamber which has a four sided shape as shown at the contact end of the containment chamber.
- Figure 8A shows a gasket seal ring for the contact end of the containment chamber.
- Figure 8B shows a slot in the opening of the contact end of the containment chamber to accept the gasket seal ring.
- Figure 8C shows the gasket ring inserted in the slot in the opening of the contact end of the containment chamber to accept the gasket seal ring.
- Figure 8D shows a gasket disk which can be permanently attached to or be attachable to the working end of the omni-sonic energy source tip, not shown.
- Figure 8E shows 465451.01 .123400.0001 the contact end of the containment chamber into which the gasket disk is inserted.
- Figure 8F shows the gasket disk inserted into the contacted end of the containment chamber.
- Figure 9 shows the contact end of a containment chamber with the gasket ring inserted providing an interface between the containment chamber and the surface to be enhanced.
- Figure 10A illustrates the distance between the working end of an omni-sonic energy source tip and the contact end of the containment chamber as shown from the end view of the working end of the omni-sonic source tip in the opening at the contact end of the containment chamber.
- Figure 10B illustrates the distance between the working end of an omni-sonic energy source and the contact end of the containment chamber as shown in a side view of the contact end of the containment chamber.
- Figure 1 1A shows a port in the containment chamber either for importing an active ingredient or other solution into the containment chamber or for extraction of residue from the containment chamber.
- Figure 11 B shows a second port in the containment chamber either for importing an active ingredient or for extraction of residue.
- Figure 1 1 C shows a side view of a containment chamber with two ports, one for delivering an active ingredient or other solution into the containment chamber and one for extraction of residue from the containment chamber and an optional storage container attached by way of a tube to the port for delivering active ingredient or other solution to the containment chamber.
- Figure 1 1 D shows a partial side view of a containment chamber with the port for extraction of residue from the containment chamber and a device for restricting or stopping the residue from being extracted by a vacuum source from the containment chamber through a tube attached to the port.
- Figure 12 shows the contact end of the containment chamber and the working end of the omni-sonic energy source tip with active ingredient contained within the containment chamber.
- Figure 13 shows a side view of two parts, a containment chamber and a handle for an omni-sonic energy source, with the containment chamber part having a connecting lip and the handle part having a connecting extension for easy assembly of the two parts.
- Figure 14A illustrates a side view of another embodiment of two parts of a containment chamber.
- Figure 14B illustrates a side view of a whole containment chamber assembled from the two parts of the containment chamber and assembled around the omni-sonic energy source tip.
- Figure 15A shows a side view of a containment chamber having serrations for finger gripping and omni-sonic energy source structure with a O-ring on the omni-sonic energy source tip for connecting the omni-sonic energy source handle to the containment chamber.
- Figure 15B shows a side view of the omni-sonic energy source tip inserted in the containment chamber with the O-ring inserted at the connecting end of the containment chamber for connecting to the handle of the omni-sonic energy source.
- Figure 16A illustrates a top view of the containment chamber as seen from the connecting end of the containment chamber with the gasket disk inserted into the connecting end of the containment chamber and with three slits meeting in the center of the gasket disk to allow the omni-sonic energy source tip to be inserted through the slits in the gasket disk.
- Figure 16B illustrates a side view of the containment chamber with the gasket disk in place at the connecting end of the containment chamber.
- Figure 17 illustrates the top view of the containment chamber having the gasket disk with three slits as positioned in contact with a tooth.
- Figure 18A illustrates a top view of the containment chamber as seen from the connecting end of the containment chamber with the gasket disk inserted into the connecting end of the containment chamber and with a single slit crossing most of the diameter of the gasket disk to allow the omni-sonic energy source tip to be inserted through the slits in the gasket disk.
- Figure 18B illustrates a side view of the containment chamber with the gasket disk in place at the connecting end of the containment chamber and a stop disk attached to the omni-sonic energy source tip.
- Figure 19 illustrates omni-sonic energy source tip with a threading mechanism and an adjustable stop disk.
- Figure 20 shows a method of enhancing a contact surface.
- Figure 21 shows further aspects of a method to enhance a contact surface by using an on omni-sonic energy source tip to impart omni-sonic energy.
- Figure 22 shows further aspects of a method to enhance a contact surface by applying an effective amount of active ingredient to a contact surface.
- Figure 23 shows even further aspects of a method to enhance a contact surface by applying an effective amount of active ingredient to a contact surface.
- Figure 24 shows even further aspects of a method to enhance a contact surface by containing and directing the active ingredient at or on the oral surface within a confined space of a containment chamber.
- Figure 25 shows a process for removing stains on a contact surface.
- Figure 26 shows further aspects of a process for removing stains on a contact surface by applying an effective amount of an active ingredient to the stained portion of the contact surface.
- Figure 27 shows a process for delivery of therapeutic agents.
- the present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces.
- This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth.
- omni-sonic means the entire range of energy and wavelengths, without limitation, associated with sonic and ultrasonic waves.
- the term enhance, enhancing or any derivations thereof means any and all activity, without limitation, to activate, increase the level and depth of penetration or absorption of, and/or improve the efficacy of, cleaning agents, whitening agents or therapeutic agents into hard or soft surfaces.
- the term active ingredient means cleaning agents, whitening agents or therapeutic agents (or medicaments).
- the term contact surfaces include both hard surfaces and soft surfaces, in particular, oral surfaces such as the teeth, gums, skin and bones. The oral surface can include human oral surfaces as well as other animal oral surfaces.
- omni-sonic energy or waves can be used.
- An example of a hard surface includes a human tooth and examples of soft surfaces include human gums, skin or bones.
- Omni-sonic energy or waves can be generated from any suitable source, as known to those skilled in the art.
- the prior art omni-sonic energy source structures are piezoelectric 100 or magnetorestrictive 200, or hybrids thereof, comprising an acoustic amplifier, typically called an acoustic horn or acoustic transducer, or sonotrode.
- the system of the present invention comprises an omni- sonic energy source tip, 101 and 201 , respectively, connected to an omni-sonic energy source 102 or 202, respectively.
- the omni-sonic energy source 102 or 202 is provided a handle 103 for manual manipulation and a power source 105 as a source of power.
- the power may include electrical power, pneumatic power and mechanical power. Electrical power may include a battery and a plug-in type to an electrical outlet, not shown.
- the power source 105 is connected 107 to the omni-sonic energy source 102 or 202. Further, the power source 105 may optionally also include a set of tubes, not shown, for delivery of active ingredient 401 to the omni-sonic energy source tip 101 or 201 , as known to those skilled in the art.
- the power source 105 may also operate as an omni-sonic frequency generator.
- the omni-sonic energy source 102 or 202 further comprises a mechanism to vary the omni-sonic frequency of the omni-sonic waves, to vary the amplitude of the omni- sonic waves, or both.
- a mechanism may include a foot pedal device 104, a switch or dial, not shown, on said mechanism, or a button, switch or a trigger, not shown, on the handle 102.
- Said mechanism can be combined with or connected to the power source 105, for example, in the case of the foot pedal device 106.
- the omni-sonic energy source tip 101 may be detachable from and re- attachable to the omni-sonic energy source 102, through a connecting device 109, or the omni-sonic energy source tip 201 may be part of a unitary body with the omni- sonic energy source 102.
- the system may operate within the entire omni-sonic range, or portions thereof, and is selectable to a specific frequency or range of frequencies and power and delivers a predetermined amplitude at the omni-sonic energy source tip 101 or 201 or, more particularly, the working end of the omni-sonic energy source tip 108 or 208.
- a unique system is created that focuses and directs the omni-sonic energy and re-circulates the active ingredient 401 being supplied, preventing it from washing away or moving away from the desired area of application.
- This containment chamber 601 or 701 can be called a splatter guard, since it simultaneously acts to prevent the active ingredient 401 from being sprayed about within the oral cavity.
- Generally centered within the containment chamber 601 or 701 sits the omni-sonic energy source tip 101 or 201 , as shown in Figures 6B and 6C or Figure 7A.
- Omni-sonic energy source tip 101 or 201 designs can vary, and comprise of different shapes which can improve the cleaning, whitening or therapeutic efficacy or penetration.
- the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 may also take different shapes, non-limiting examples being, a working end having bristles as shown in Fig 5A, having perforations as shown in Figure 5B, having an uneven surface acting as an abrasive as shown in Figure 5C, or having a detachable sticker or attachable sleeve that has a surface that may include abrasives as shown in Figure 5D.
- the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 may be impregnated with active ingredients 401 , when placed in contact with the contact surface 301 .
- the system for enhancing hard or soft surfaces of the present invention comprises an omni-sonic source 102 or 202, a handle 103, an omni-sonic energy source tip 101 or 201 having a length and a width and comprising a working end 108 or 208 at a distal end of the length of the omni-sonic energy source tip 101 or 201 and a connecting end 1 10 or 210 at a proximal end of the length of the omni-sonic energy source tip 101 or 201 and connected to the omni- sonic energy source 102 or 202, an active ingredient 401 , and a containment chamber 601 or 701 , in which the omni-sonic energy source tip 101 or 201 is located, and comprising a contact end 602 or 702 at a distal end
- an Acteon, PMax XS is an example of a piezoelectric omni-sonic energy source and a Dentsply, Cavitron Plus is an example of a magnetorestrictive omni-sonic energy source, both of which are incorporated herein by reference.
- the containment chamber 601 or 701 can range from 2 mm to 10 mm, as measured across an opening of containment chamber 601 or 701 at the contact end 602 or 702.
- the size of the contact end 602 or 702 of the containment chamber 601 or 701 may vary depending on whether the contact end 602 or 702 is submerged into the active ingredient 401 , or contacting the active ingredient 401 with no contact surface 301 contact.
- the containment chamber 601 or 701 can be made up of any material, including but not limited to metals, plastics, alloys, composites, resins, fibers, paper, wax, or other moldable, injectable, carvable, or, in particular, materials that can be formed.
- a gasket ring seal 801 as shown in Figure 8A can be applied to reduce the interface between the contact end 602 or 702 of the containment chamber 601 or 701 and the contact surface 301 as shown in Figure 9.
- a gasket disk 805 can be inserted into the opening at the contact end of the containment chamber, as shown in Figures 8D, 8E and 8F. Rubber, silicone, or other materials used to fabricate gaskets seal rings or gasket disks can be used. Further, material of the same material as the containment chamber may also be used.
- the shape of the gasket seal ring or gasket disk conforms the opening at the contact end of the containment chamber.
- the omni-sonic energy source tips 101 and 210 and containment chambers 601 and 701 are meant to be either disposable or autoclavable depending on the desired method and material being employed. Unit dose or single use parts are preferred.
- Omni-sonic energy source tips 101 or 201 can be designed to fit within the containment chamber 601 or 701 and have a minimum distance of .005 mm, "A" as shown in Figures 10A and 10B, from working end 108 or 208 of the omni-sonic energy source tip 101 or 201 and the edge of contact end 602 or 702 of the containment chamber 601 or 701.
- the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 may be as far as 7 mm from the edge of contact end 602 or 702 of the containment chamber 601 or 701 .
- the omni-sonic energy source tip 101 or 201 material is chosen in order to have the desired omni-sonic properties and also be compatible with the chemistry being used in the particular application. Suitable materials include, but are not limited to, titanium, aluminum and steel, preferably hardened steel. Other materials can be used, including, but no limited to, plastic, carbon composite materials or a combination metal/plastic or metal/carbon composite. Preferably, a material softer that the human tooth structure is attached to the omni-sonic energy source tip, allowing for contact of the tip to the tooth without harmful cutting of the tooth surface.
- the omni-sonic energy source 102 or 202 oscillates at a frequency range, which is translated to the omni-sonic energy source tip 101 or 201 , of from 100 Hz to about 40,000 kHz, more preferably from about 100 Hz to about 30,000 kHz, even more preferably from about 150 Hz to about 20000 kHz, but not limited thereto.
- a port 1 101 can be added to the containment chamber 601 to allow for delivery of active ingredients 401 , and/or a second port 1 102, as shown in Figure 1 1 B, can be added as an extracting port to be attached to a suction unit, not shown, for the extraction of residue.
- port 1 103 for delivery of active ingredients 401 and/or port 1 104 for extracting of residue 1 106 can be added to containment chamber 701 , as shown in Figure 1 1 C.
- a device to restrict or halt extraction 1105 such as a finger spring pinch, can be added to the extracting ports 1 102 or 1 104, as shown in Figure 1 1 D.
- the present invention includes omni-sonically enhanced active ingredients 1201 that are constrained by the containment chamber 601 or 701 .
- the active ingredients 1201 include cleaning or whitening agents which comprise: cleaning or whitening compositions or agents, preferably a liquid or gel, selected from groups consisting of enzymes, bleach or peroxide products, catalyst and or mixtures thereof.
- the active ingredients are present in an effective amount, more preferably from about 0.0001 % to about 90% by weight, even more preferably from about 0.001 % to about 70% by weight, even more preferably still from about 0.005% to about 40% by weight, even more preferably still from about 0.01 % to about 30% by weight by weight.
- the active ingredients 401 or 1201 deliver increased cleaning performance when they are confined within the containment chamber 601 or 701 in conjunction with omni-sonic energy.
- These active ingredients 401 or 1201 can comprise additional additives and these are explained in greater detail hereafter.
- the active ingredients 401 or 1201 also include therapeutic agents.
- therapeutic agents can comprise: therapeutic compositions or agents, preferably a liquid or gel, selected from groups consisting of antibiotics, anticaries, antisensitivity, antihalitosis, antiviral, antiaphthous, analgesic, dentinal tubule sealing or obstructing, remineralization, but not limited to any dental therapeutic or oral- pharyngial therapeutic.
- therapeutic compositions or agents preferably a liquid or gel, selected from groups consisting of antibiotics, anticaries, antisensitivity, antihalitosis, antiviral, antiaphthous, analgesic, dentinal tubule sealing or obstructing, remineralization, but not limited to any dental therapeutic or oral- pharyngial therapeutic.
- Omni-sonically enhanced therapeutics agents are present in compositions in an effective amount, more preferably from about 0.0001 % to about 99% by weight, even more preferably from about 0.001 % to about 70% by weight, even more preferably still from about 0.005% to about 40% by weight, even more preferably still from about 0.01 % to about 30% by weight. It has been surprisingly found that these omni-sonically enhanced therapeutic agents can be delivered deeper in conjunction with omni-sonic energy. These therapeutic compositions can comprise additional additives and these are explained in greater detail hereafter.
- the connecting end 703 of containment chamber 701 can include a connecting lip 1301 which can be attached to a connecting extension 1302 of the omni-sonic energy source 102, not shown, or the handle 103, such that the omni-sonic energy source tip 101 , not shown, which is attached to the omni-sonic energy source 102, can be inserted into the containment chamber 701 .
- the containment chamber 701 can be comprised of two containment chamber halves 1401 and 1402, that can be joined together around the omni-sonic energy source tip 101 , as shown in Figure 14B.
- the connecting end 703 of the containment chamber 701 can be connected to the omni-sonic energy source 102, not shown, or handle 103 by means of an O-ring 1501 , as shown in Figure 15A.
- the O-ring is used to connect the omni-sonic energy source 102 or handle 103.
- the connecting mechanisms described herein are non-limiting and any other connecting mechanisms may be used.
- the containment chamber 701 has a slitted disk 1601 with three slits 1602 located at the connecting end 703 of the containment chamber 701 .
- the slitted disk 1602 is used to connect the containment chamber 701 to the omni-sonic energy source tip 101 , not shown.
- the contact end 702 of the containment chamber 701 is placed in contact with contact surface 301 as shown in Figure 17.
- the slitted disk 1801 comprises a single slit 1804 creating two halves 1802 and 1803 of the slitted disk 1801 .
- the slitted disk 1801 is located at the connecting end 703 of the containment chamber 701 .
- the slitted disk 1801 is used to connect the containment chamber 701 to the omni-sonic energy source tip 101 .
- a stop disk 1805 is attached to omni-sonic energy source tip 101 at the appropriate location such that the working end 103 of the omni-sonic energy source tip 101 is in or near the same plane as the contact end 703 of the containment chamber 701.
- another embodiment of the stop disk 1901 can be adjusted along the axis of the omni-sonic energy source tip 101 by a threading mechanism 1902 located on the omni-sonic energy source tip 101.
- the stop disk 1901 is threaded onto the omni-sonic energy source tip 101 by engaging the threading mechanism 1902 on the omni-sonic energy source tip 101 and elevated to a position on the omni-sonic energy source tip 101 which would place, when the containment chamber 701 is then connected to the omni-sonic energy source tip 101 and the connecting end 703 of the containment chamber abuts the stop disk 1901 , the working end 108 of the omni-sonic energy source tip 101 in or near the plane of the contact end 703 of the containment chamber 701 .
- the omni-sonic energy source tip 101 or 201 can touch, or be close to the contact surface 301 being treated.
- the end working 108 or 208 of the omni- sonic energy source tip 101 or 201 is approximately perpendicular to the contact surface 301 .
- the distance between the contact surface 301 and the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 it can be either adjusted within in the containment chamber 601 or 701 , as further described herein, or fixed within the containment chamber 601 or 701 in relation to the plane of the contact end 602 or 702 of the containment chamber 601 or 701 .
- the location of the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 in relation to the plane of the contact end 602 or 702 of the containment chamber 601 or 701 may depend on, for example, the viscosity of the active ingredient 401 . Based on the viscosity, surface tension, and other formulation criteria of the active ingredient 401 , the distance of the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 from contact surface 301 can be adjusted to allow for the optimal efficacy or penetration.
- the active ingredients 401 or 1201 can be stored in a storage container 1106 which, upon a desired titration, can be released into the containment chamber 601 or 701 , or on the contact surface 301 .
- the storage container 1106 can be, as non-limiting examples, either a syringe or unit dose plastic type container.
- the storage container 1 106 can be connected to the containment chamber 601 or 701 or the omni-sonic source 102 or 103 through a port 1 101 or 1 103, and/or with a rubber hose or tubing 1 107.
- the active ingredient 401 or 1201 can then be released onto either the contact surface 301 , or through the omni-sonic source tip or into the containment chamber.
- the storage container holding the agent can also be separate, and release its contents onto the contact surface 301 directly, not shown.
- the storage container or a separate storage container, not shown, can also include aqueous solutions such as water, solvent and thickeners to apply to the contact surface 301 to remove residue 1 106.
- aqueous solutions such as water, solvent and thickeners to apply to the contact surface 301 to remove residue 1 106.
- the omni-sonic energy source tip 101 or 201 , the containment chamber 601 or 701 or the active ingredient can be heated to further enhance the effects of the omni-sonic waves imparted to the active ingredient.
- the containment chamber 601 or 701 , in conjunction with the omni- sonic energy source tip 101 or 201 and the active ingredient 401 or 1201 have the ability to change, enhance, and alter the normal chemical reaction, breakdown, release of free radicals in the active ingredient 401 or 1201 .
- the containment chamber 601 or 701 focuses the energy from the omni-sonic energy source tip 101 or 201 into the molecules of the active ingredient 401 or 1201 , exciting them, reprocessing them, while changing their potency or strength depending on the level of energy applied, while the activate ingredient outside 401 or 1201 of the containment chamber 601 or 701 , residing elsewhere within the oral cavity, remains at the un-excited potency or strength.
- Omni-sonic energy enhances cleaning, whitening or medicating by breaking up organic molecules of the active ingredient 401 or 1201 into smaller pieces, increasing surface area to be enhanced, an allowing more active ingredient 401 or 1201 to contact the contact surface 301 .
- Omni-sonic energy also enhances cleaning by accelerating active ingredient molecules, increasing the action against the surface molecules, for example tooth stain molecules.
- the omni-sonic source tip 101 or 201 , the containment chamber 601 or 701 , and active ingredient 401 or 1201 a unique system is created that allows a practitioner to direct, control, and contain, active ingredient 401 or 1201 for deep penetration, increased action, and increased cleaning, whitening or therapeutic outcomes.
- an active ingredient 401 or 1201 with an omni-sonic energy source 102 or 103 stains can be removed without the use of excessive force, rubbing, pressure or other manipulation which causes wear and tear on contact surfaces 301 , for example tooth surfaces.
- the present invention also comprises, as shown in Figure 20, a method of enhancing an contact surface comprising applying an active ingredient 2001 , containing and directing the active ingredient to an area of the contact surface 2002; using an omni-sonic energy source tip to impart creating omni-sonic waves in the active ingredient, having an omni-sonic frequency and an amplitude 2003, and, optionally rinsing the contact surface with an aqueous solution 2004.
- a type of contact surface is a human tooth, human gums, human cheek skin or human bone.
- the method further comprises varying the omni- sonic frequency, the amplitude or both 2101 .
- Another embodiment of the method further comprises providing an omni-sonic energy source to the omni-sonic energy source tip to create the omni-sonic waves 2102.
- the omni-sonic energy source is selected for having properties compatible with omni-sonic wave creation and with chemistry of the active ingredient 2103.
- the method further comprises providing power to the omni-sonic energy source 2105.
- the power may be electrical power, pneumatic power or mechanical power 2107.
- the method further comprises providing a power source to provide electrical power to the omni- sonic source 2108.
- the method further comprises selecting a power source selected from a group consisting of a battery and a plug-in type to an electrical outlet 2109.
- a further embodiment of the method comprises varying the power provided to the omni-sonic energy source 2106.
- the method further comprises impregnating a working end of the omni- sonic energy source tip with active ingredients 21 11 .
- the working end of the omni- sonic energy source tip is selected from a group consisting of bristle fibers, a surface with perforations, a surface onto which a sticker or variable sleeve can be applied, or an uneven surface 21 12.
- the method further comprises selecting a material softer than a human tooth and attaching said material to the working end of the omni-sonic energy source tip 21 13.
- An embodiment of the method of the present invention further comprises selecting an omni-sonic energy source from a group consisting of a piezoelectric device or magnetostrictive device 2104.
- the method further comprises imparting omni-sonic energy from the working end of the omni-sonic energy source tip directly to the contact surface.
- the method further comprises selecting the active ingredient from one or more of a cleaning agent, a whitening agent or a therapeutic agent 2201.
- the method further comprises dispensing the active ingredient using a device that controls the application amount, application location or both 2202.
- the method further comprises applying an effective amount of the active ingredient based on the contact surface to be enhanced 2203.
- the method further comprising selecting the active ingredient from a group consisting of amylase enzyme, bleach catalyst and mixtures thereof 2204.
- the method further comprises rinsing the contact surfaces to be enhanced with an aqueous solution 2205.
- the method further comprises increasing penetration of the active ingredient into the contact surface 2206.
- the method wherein the active ingredient is a portion of a solution, which portion is from about 0.0001 % to about 100% by weight 2207.
- the method of the present invention further comprises selecting the active ingredient, comprising a cleaning agent, from a group consisting of builders, surfactants, enzymes, bleach activators, bleach boosters, bleaches, peroxides, alkalinity sources, antibacterial agent, anti-microbial agents, antioxidants, electrolytes, pH modifiers, thickeners, abrasives, enzyme stabilizers, solvents, humectants, and foamers 2302.
- a cleaning agent from a group consisting of builders, surfactants, enzymes, bleach activators, bleach boosters, bleaches, peroxides, alkalinity sources, antibacterial agent, anti-microbial agents, antioxidants, electrolytes, pH modifiers, thickeners, abrasives, enzyme stabilizers, solvents, humectants, and foamers 2302.
- the active ingredient may also comprise a therapeutic agent, selected from a group consisting of fluorides, antimicrobials, anti- tartar agents, varnishes, anti-sensitivity products, anticahes agents, halitosis agents, periodontal disease agents, antibiotics, antiviral agents, dry mouth agents, anesthetics, aphthous ulcer medicaments, and wart medicaments 2301.
- the active ingredient may also comprise selecting the active ingredient comprising dental medicaments 2303. Heat may also be applied to the active ingredient 2304. [0109] As shown in Figure 24, the method of the present invention comprising increasing a rate of enhancing the contact surface.
- An embodiment of the method of the present invention further comprising using a containment chamber to contain and direct at least a portion of the active ingredient to remain in contact with the contact surface.
- the method of the present invention wherein the containment chamber comprises a contact end, an opening at the contact end, a connecting end opposing the contact end and walls connected to the connecting end and forming the opening at the contact end 2402.
- the method further comprises selecting a size of the opening of the containment chamber based on whether the contact end of the containment chamber is submerged into the active ingredient or is contacting a surface of the active ingredient 2403.
- the method of the present invention further comprises enclosing at least a portion of a omni-sonic energy source tip within the containment chamber 2401 .
- the method of the present invention further comprises creating a tent, bubble, cup, or other sealed or non-sealed environment with the containment chamber 2404.
- the method further comprises trapping, recycling and directing the active ingredient within the containment chamber 2405.
- the method further comprises moving the omni-sonic waves and active ingredient across the hard surface, the soft surface or both 2406.
- the method of the present invention further comprises containing and directing omni-sonic waves to the active ingredient 2407.
- the method further comprises maintaining contact between the containment chamber and the hard surface, soft surface or both 2408.
- the method of the present invention also comprises containing and directing at least a portion of the active ingredient to remain in contact with the contact surface 2409.
- the present invention also comprises a process for removing stains from, removing a deposit from a contact surface comprising: (i) selecting stained portion contact surface 2501 , (ii) applying an effective amount of an active ingredient to a contact surface 2502, (iii) containing and directing the active ingredient and a working end of a omin-sonic energy source tip at or on stained portion of the contact surface 2503 within the confined space of a containment chamber 2503, (iv) activating the omni-sonic energy source tip to impart omni-sonic waves to the active ingredient and/or the contact surface 2504 so as to enhance the contact surface, and (v) optionally, rinsing said contact surface with an aqueous solution 2505.
- the process for removing stains from a contact surface also including activators or chemicals that will interact with the active ingredient to increase stain removal 2601.
- the process for removing stains from a contact surface also including activators or chemicals that will interact with the omni-sonic waves to increase stain removal 2602.
- cleaning agents include amylase enzyme, bleach catalyst peroxides, solvents, and mixtures thereof 2603.
- aqueous solutions include but are not limited to water, solvents and thickeners 2604.
- Typical treatment times range from about 1 second to about 5 minutes depending on if the contact surface to be enhanced is having a therapeutic applied. Total treatment times can be broken into segments, allowing for the addition of different active ingredients and to allow the oral to rest and/or re-hydrate.
- Non-limiting active ingredients include any FDA approved oral care ingredient, or combinations thereof, used in cleaning of teeth and bleaching of teeth or any other ingredient considered safe for use in the field of oral care, or combinations thereof, including enzyme systems, solvents, thickeners, surfactants, cleaners, flavors 2605.
- Active ingredients can also include: anesthetics for hard or soft tissues, fluorides used as anti-caries agents, or tooth surface hardening chemistry, desensitizing agents, remineralization agents, or antimicrobial agents, aphthous ulcer medicaments, antiviral medicaments, halitosis agents, salivary flow agents, other remineralization agents such as Calcium phosphate, Recaldent, or ACP, NovaminTM, antibiotics and antimicrobial agents 2606.
- anesthetics for hard or soft tissues fluorides used as anti-caries agents, or tooth surface hardening chemistry, desensitizing agents, remineralization agents, or antimicrobial agents, aphthous ulcer medicaments, antiviral medicaments, halitosis agents, salivary flow agents, other remineralization agents such as Calcium phosphate, Recaldent, or ACP, NovaminTM, antibiotics and antimicrobial agents 2606.
- the invention includes a process for delivery of therapeutic agents comprising selecting a portion of a contact surface for delivery of therapeutic agents 2701 ; applying an effective amount of therapeutic agent to the selected portion of the contact surface 2702; containing and directing the active ingredient and omni-sonic waves to said portion of the contact surface 2703; activating a working end of an omni-sonic energy source tip to impart omni-sonic energy to the therapeutic agent 2704; and optionally, rinsing said contact surface with an aqueous solution 2705.
- the process further comprising selecting the contact surface from a group consisting of teeth, gums, lips, bone, periodontal ligaments or teeth sulci.
- An embodiment of present invention further comprises, as shown in
- a containment chamber attachment 701 comprising an opening at a contact end 702; a connecting end opposing the contact end 703, said connecting end including a passage to permit a working end of an omni-sonic energy source tip 201 be placed into the containment chamber attachment 701 ; and walls defining the opening at the contact end 702 and connected to the connecting end 703.
- the containment chamber attachment wherein the walls are cylindrically shaped as shown in Figure 7a.
- a further embodiment of the containment chamber attachment wherein the walls are tapered with a portion of the side walls at the contact end being wider than a portion of the side walls at the connecting end as shown in Figure 15A.
- the walls of the containment chamber consist of three walls as shown in Figure 7B.
- the walls of the containment chamber attachment consist of four walls as shown in Figure 15C.
- the containment chamber attachment of the present invention as shown in Figure 14A, further comprising two parts, a first part 1401 that includes a first portion of the connecting end 703, a first portion of the walls physically connected to the first portion of the connecting end 703 and a first portion of the contact end 702 comprising a first portion of an edge defining the opening, a second part 1402 that includes a second portion of the connecting end 703, a second portion of the walls physically connected to the second portion of the connecting end 703 and a second portion of the contact end 702 comprising a second portion of the edge defining the opening, and a joining mechanism to connect the first part 1401 and the second part 1402.
- the containment chamber attachment wherein the joining mechanism is a snap mechanism or latch mechanism.
- the containment chamber attachment as shown in Figure 8B, further comprising a molded slot in the opening of the contact end 702; and a seal 801 , as shown in Figure 8A, shaped to tightly fit the molded slot as shown in Figure 8C.
- the containment chamber attachment wherein the seal provides an interface between the contact end and a contact surface as shown in Figure 9.
- the connecting end of the containment chamber attachment is configured for attachment to an omni-sonic energy source tip, an omni-sonic energy source or a handle for the omni-sonic energy source as shown in Figures 15A, 15B, 16A and 18A.
- the containment chamber attachment further comprising a working end of the omni-sonic energy source tip is located inside the containment chamber attachment, as shown in Figure 16B, and is located in a plane defined by the opening as shown in Figure 18B.
- the containment chamber attachment further comprises a working end of the omni-sonic energy source tip is located inside the containment chamber attachment and is located at a distance from the plane defined by the opening of the containment chamber.
- the containment chamber attachment further comprises at least one port, said at least one port configured for extraction of residue from inside the containment chamber attachment.
- the containment chamber attachment further comprising a tube 1 106 attached to the at least one port, a device 1 105 located on the tube to restrict or halt the extraction of residue.
- the containment chamber attachment wherein the device located on the tube to restrict or halt the extraction residue further comprising a finger spring pinch switch located on the tube.
- the containment chamber attachment further comprising at least one port, said at least one port configured for delivery of an active ingredient into the containment chamber attachment.
- the containment chamber attachment further comprising finger grip serrations 1502 on the walls near the connecting end, as shown in Figures 15A and 15B.
- the containment chamber attachment further containing an O-ring 1501 , inserted at the connecting end and configured to accept and connect the handle to the connecting end.
- the containment chamber attachment further comprising a gasket disk 1601 inserted into the connecting end, said gasket disk including at least one slit, to allow a working end of an omni-sonic energy source tip to be placed through the gasket disk and into the containment chamber attachment, as shown in Figures 16A, 16B, 18A and 18B.
- the containment chamber attachment wherein the at least one slit is three slits radiating at equal distances from the center of the gasket disk.
- a containment chamber attachment 601 comprising a top wall having a width and a length, two opposing side walls connected to at least a portion of the top side, a contact end 602, as shown in Figure 6C, connected to the top wall and the two side walls, an opening opposing the top wall, a connecting end 601 opposing the contact end, and said connecting end including a passage to permit a working end of an omni-sonic energy source tip to be placed into the containment chamber attachment 601 and an attachment, not shown, to connect the containment chamber attachment to an omni-sonic dental apparatus.
- the containment chamber attachment 601 further comprises a first port 1 101 in the containment chamber attachment 601 either for delivery of an active ingredient or other solution into the containment chamber attachment 601 or for extraction of residue from the containment chamber attachment 601 .
- the containment chamber attachment 601 as shown in Figure 1 1 B, further comprises a second port 1 102 in the containment chamber attachment, either for importing an active ingredient or other solution into the containment chamber attachment 601 or for extraction of residue from the containment chamber attachment 601 .
- the present invention relates to a method of enhancing (e.g., whitening, cleaning, enhancing, etc.) a contact surface comprising: applying an active ingredient (e.g., cleaning agent, medicament, etc.) to at least one area; containing and directing the active ingredient to an area of the contact surface; covering the at least one area with a film; creating omni-sonic waves, in the active ingredient, having an omni-sonic frequency and an amplitude.
- suitable films include, but are not limited to, polymer films (e.g., flexible polymer based sandwich wraps), flexible metal foils (e.g., aluminum foil), wax films, cotton paper films, cellulose-based films, etc.
- this method is accomplished by a unitary piece that includes all of an active ingredient, a film and a guard for guarding against unwanted dispersal of the active ingredient when the method is being enacted via the application of omni-sonic waves.
- the active ingredient can be any suitable active ingredient within the scope of the present invention.
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Abstract
The present disclosure describes systems, product kits, methods, processes and devices for using omni-sonic waves to clean, whiten, or enhance cleaning agent, whitening agent and medicament uptake, delivery, and efficacy on hard and soft tissues. In a first embodiment, a system for enhancing contact surfaces is disclosed including an omni-sonic energy source activated by a power source and an omni-sonic energy source tip having a length and a width.
Description
SYSTEM, METHOD, PROCESS AND PRODUCT
FOR CLEANING, WHITENING AND THERAPEUTIC
SURFACE ENHANCEMENT, USING SONIC OR
ULTRASONIC WAVES OR ACOUSTIC STREAMS
FIELD OF THE INVENTION
[0001] The present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces. This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth.
BACKGROUND OF THE INVENTION
[0002] The present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces. This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth. For the purposes of this application the term omni-sonic means the entire range of energy and wavelengths, without limitation, associated with sonic and ultrasonic waves. Also for the purposes of this application, the term enhance, enhancing or any derivations thereof means any and all activity, without limitation, to activate, increase the level and depth of penetration or absorption of, and/or improve the efficacy of, cleaning agents, whitening agents or therapeutic agents into hard or soft surfaces. Further, for the purposes of this application, the term active ingredient means cleaning agents, whitening agents or therapeutic agents (or medicaments). Moreover, for the purposes of this application, the term contact surfaces include both hard surfaces and soft surfaces, in particular, oral surfaces such as the teeth, gums, skin and bones. The oral surface can include human oral surfaces as well as other animal oral surfaces.
[0003] Ultrasonic devices have been used over the last decades as cleaning instruments for various items, including mechanical parts, and jewelry. Many ultrasonic cleaning baths are used to hold the cleaning liquid and object needing to
be cleaned. This container creates a fixed environment in which the ultrasonic waves can enhance the efficacy of the cleaning agent. Dentists have used ultrasonic waves to remove build-up of tartar from teeth surfaces and remove stains. Ultrasonic teeth cleaning devices have been disclosed in, for example Kruse, et al., US Patent No. 3,375,820 and Robinson, US Patent No. 3,645,256, which are incorporated in their entirety by reference. Ultrasonic sealers incorporate a sonitrode and an ultrasonic source to physically contact the tooth and knock off deposits. Examples of an ultrasonic dental sealer are disclosed in Regere, et al., US Patent Application Publication No. 2008/0293008, and Atkin, et al., US Patent No. 7,217,128, each of which are incorporated herein in their entirety by reference. Ultrasonic waves have also been used to enhance the absorption of medicament via phonophoresis. Further, ultrasonic shaping devices have been used by dentists as disclosed in Huguenin, et al., US Patent No. 7,172,420, which is incorporated herein in its entirety by reference.
[0004] Use of ultrasonic energy as a method to clean and whiten teeth has been disclosed in Ostler et al.. US App. No. 1 1/961 ,557. However, the method in Ostler is limited to the use of trays or cups to retain and hold the cleaning or whitening agents. Moreover, the Ostler method still has the likelihood of the cleaning or whitening agents coming into contact with the soft tissue of the patient's mouth. [0005] In Robinson, discussed above, discloses a ultrasonic hand piece with a mechanism which supplies water to the cleaning tip. An example of supplying fluids, including medicaments, to the tip of ultrasonic device is disclosed in Nusstein, US Patent No. 6,948,935, which is incorporated herein in its entirety by reference. An example of using cleaning agents with ultra-sonic waves is disclosed in McKensie et al., US Patent No. 6,624,133.
[0006] In dentistry, however, use of sonic and ultrasonic waves to enhance the effects of cleaning, whitening or therapeutic agents by applying ultrasonic energy to solutions directly to an oral surface, is limited due to the inability of the current method to contain the solutions in system that would restrict the agents to the surface being treated. Thus, when an system for omni-sonic wave generation 100 or 200, as shown in Figures 1 and 2, have been used to clean teeth as shown in Figure 3, the cleaning, whitening or therapeutic agents have spewed throughout the oral cavity, as shown in Figure 4, reducing the desired cleaning, whitening or therapeutic
effects to the oral surface. In addition, they have not been used to enhance efficacy of therapeutics in hard or soft tissues.
[0007] Thus, a need exists for a method of cleaning, whitening or medicating teeth or other contact surfaces, which will allow for a much lower percentage level of cleaning or whitening agents and therapeutics and the resultant lowering of the level risk of harm to the patient's inner cheeks and gums.
List of Cited Literature References
[0008] The following references are hereby incorporated by reference as though fully included herein. The references are cited in the application by referring to the associated number.
(1 ) Robinson, US Patent No. 3,645,256;
(2) Kuris, et al., US Patent No. 3,785,820;
(3) Regere, et al., US Patent Application Publication No. 2008/0293008;
(4) Nusstein, US Patent No. 6,948,935;
(5) Atkin, et al., US Patent No. 7,217,128;
(6) Huguenin, et al., US Patent No. 7,172,420;
(7) Ostler et al.. US App. No. 1 1 /961 ,557;; AND
(8) Mckensie et al., US Patent No. 8,624,133.
SUMMARY OF THE INVENTION
[0009] The present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces. This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth.
[0010] It has been found that, by using omni-sonic waves, the benefits of active ingredients can be enhanced by increasing the level and depth of penetration into hard or soft surfaces. As an example of a hard surface would be the human tooth. The human gum, skin or bone tissue is an example of a soft surface. The omni-sonic waves impart omni-sonic energy to the active ingredient, whether it is a cleaning, whitening or therapeutic agent, to enhance its effectiveness by increasing the molecular activity of the agent. The increased molecular activity of the active
ingredient activates, increases the level and depth of penetration or absorption of, and/or increases the efficacy of the active ingredient into hard or soft surfaces. The increased molecular activity, in specific cases, also increases the levels of free radicals in the active ingredient which further enhances the efficacy of the active ingredient. To direct and contain the energy imparted to the active ingredient, a containment chamber is provided. Thus, in a particular case, this invention can be applied to enhance the absorption of various medicaments into both the hard and soft tissues of the oro-pharyngeal cavity.
[0011] The present invention includes an omni-sonic energy source, such as a sonitrode tip, and a containment chamber, that encloses the omni-sonic energy source and at least a portion of the active ingredient, and that works to direct the active ingredient to a specified surface area while simultaneously acting as a splatter guard. This containment chamber provides an environment where omni-sonic waves can form and enhance the active ingredient. The laws of Mass Cleaning Action also state that cleaning agents increase their ability to function when agitation is increased.
[0012] In one embodiment, the present invention relates to a system for enhancing contact surfaces comprising: an omni-sonic energy source, wherein the omni-sonic energy source is activated by a power source; an omni-sonic energy source tip having a length and a width and comprising: a working end at a distal end of the length of the omni-sonic energy source tip; and a connecting end at a proximal end of the length of the omni-sonic energy source tip and connected to the omni- sonic energy source; an active ingredient; and a containment chamber in which at least a portion of the omni-sonic energy source tip is located and comprising: a contact end at a distal end of the containment chamber; and a connecting end at a proximal end of the containment chamber and walls physically connected to the connecting end, wherein the containment chamber contains at least a portion of the active ingredient when the omni-sonic energy source is activated, and wherein omni- sonic energy source provides omni-sonic energy to the working end of the omni- sonic energy source tip and the working end of the omni-sonic energy tip imparts omni-sonic energy to the at least a portion of the active ingredient at an omni-sonic frequency and at an amplitude.
[0013] In another embodiment, the present invention relates to a method of enhancing a contact surface comprising: applying an active ingredient; containing
and directing the active ingredient to an area of the contact surface; creating omni- sonic waves, in the active ingredient, having an omni-sonic frequency and an amplitude.
[0014] In still another embodiment, the present invention relates to a process for removing stains on a contact surface comprising: selecting a stained portion of the contact surface; applying an effective amount of an active ingredient to the stained portion of the contact surface; containing and directing the active ingredient and a working end of an omni-sonic energy source tip to said stained portion of the contact surface; and activating the working end of the omni-sonic energy source tip imparting omni-sonic waves to the active ingredient.
[0015] In still another embodiment, the present invention relates to a containment chamber attachment comprising: an opening at a contact end; a connecting end opposing the contact end, said connecting end including a passage to permit a working end of an omni-sonic energy source tip be placed into the containment chamber; and walls defining the opening at the contact end and connected to the connecting end.
[0016] In still another embodiment, the present invention relates to a containment chamber attachment comprising: a top wall having a width and a length; two opposing side walls connected to at least a portion of the top side; a contact end connected to the top wall and the two side walls; an opening opposing the top wall; a connecting end opposing the contact end; and said connecting end including a passage to permit a working end of an omni-sonic energy source tip to be placed into the containment chamber attachment and an attachment to connect the containment chamber attachment to an omni-sonic dental apparatus. [0017] In still another embodiment, the present invention relates to a method of enhancing a contact surface comprising: applying an active ingredient to at least one area; containing and directing the active ingredient to an area of the contact surface; covering the at least one area with a film; creating omni-sonic waves, in the active ingredient, having an omni-sonic frequency and an amplitude. [0018] The invention combines the containment chamber, omni-sonic energy source, and active ingredient. It encompasses these items into a unique environment that allows for increased efficacy and absorption of cleaning and whitening agents and therapeutics. Without the unique environment created by this invention, cleaning, whitening and therapeutic agents would leave the surface target
area due to eddies created by the omni-sonic waves, decreasing or eliminating the agents' effectiveness against the surface.
BRIEF DESCRIPTION OF THE DRAWINGS
[0019] The objects, features and advantages of the invention will be apparent from the following detailed description of the preferred embodiment of the invention in conjunction with reference to the following drawings where: [0020] Figure 1 shows a prior art piezoelectric omni-sonic energy source tip device with handle, power source and foot pedal.
[0021] Figure 2 shows a prior art magnetostrictive omni-sonic energy source tip sonotrode device with handle, power source and foot pedal. [0022] Figure 3 illustrates a prior art sonotrode used on a tooth.
[0023] Figure 4 illustrates a close-up of a splatter of the active ingredient caused by a prior art sonotrode being used with an active ingredient on a tooth. [0024] Figure 5A illustrates a working end of an omni-sonic source tip having bristle fibers.
[0025] Figure 5B illustrates a working end of an omni-sonic source tip having perforations.
[0026] Figure 5C illustrates a working end of an omni-sonic source tip having an uneven surface.
[0027] Figure 5D illustrates a working end of an omni-sonic source tip having a detachable sticker.
[0028] Figure 6A shows side view of a containment chamber of the present invention and a separate omni-sonic source tip and handle.
[0029] Figure 6B shows a side view of the omni-sonic source tip and handle structure centered within the containment chamber.
[0030] Figure 6C shows a bottom view of the omni-sonic source tip and handle structure centered within the containment chamber.
[0031] Figure 7A illustrates a side view of the containment chamber in which the contact end is circular in shape and omni-sonic source tip is centered within the containment chamber.
[0032] Figure 7B illustrates a view of a containment chamber which has a three sided shape as shown at the contact end of the containment chamber.
[0033] Figure 7C illustrates another view of a containment chamber which has a four sided shape as shown at the contact end of the containment chamber.
[0034] Figure 8A shows a gasket seal ring for the contact end of the containment chamber.
[0035] Figure 8B shows a slot in the opening of the contact end of the containment chamber to accept the gasket seal ring.
[0036] Figure 8C shows the gasket ring inserted in the slot in the opening of the contact end of the containment chamber to accept the gasket seal ring.
[0037] Figure 8D shows a gasket disk which can be permanently attached to or be attachable to the working end of the omni-sonic energy source tip, not shown.
[0038] Figure 8E shows 465451.01 .123400.0001 the contact end of the containment chamber into which the gasket disk is inserted.
[0039] Figure 8F shows the gasket disk inserted into the contacted end of the containment chamber.
[0040] Figure 9 shows the contact end of a containment chamber with the gasket ring inserted providing an interface between the containment chamber and the surface to be enhanced.
[0041] Figure 10A illustrates the distance between the working end of an omni-sonic energy source tip and the contact end of the containment chamber as shown from the end view of the working end of the omni-sonic source tip in the opening at the contact end of the containment chamber.
[0042] Figure 10B illustrates the distance between the working end of an omni-sonic energy source and the contact end of the containment chamber as shown in a side view of the contact end of the containment chamber.
[0043] Figure 1 1A shows a port in the containment chamber either for importing an active ingredient or other solution into the containment chamber or for extraction of residue from the containment chamber.
[0044] Figure 11 B shows a second port in the containment chamber either for importing an active ingredient or for extraction of residue.
[0045] Figure 1 1 C shows a side view of a containment chamber with two ports, one for delivering an active ingredient or other solution into the containment chamber and one for extraction of residue from the containment chamber and an optional storage container attached by way of a tube to the port for delivering active ingredient or other solution to the containment chamber.
[0046] Figure 1 1 D shows a partial side view of a containment chamber with the port for extraction of residue from the containment chamber and a device for restricting or stopping the residue from being extracted by a vacuum source from the containment chamber through a tube attached to the port.
[0047] Figure 12 shows the contact end of the containment chamber and the working end of the omni-sonic energy source tip with active ingredient contained within the containment chamber.
[0048] Figure 13 shows a side view of two parts, a containment chamber and a handle for an omni-sonic energy source, with the containment chamber part having a connecting lip and the handle part having a connecting extension for easy assembly of the two parts.
[0049] Figure 14A illustrates a side view of another embodiment of two parts of a containment chamber.
[0050] Figure 14B illustrates a side view of a whole containment chamber assembled from the two parts of the containment chamber and assembled around the omni-sonic energy source tip.
[0051] Figure 15A shows a side view of a containment chamber having serrations for finger gripping and omni-sonic energy source structure with a O-ring on the omni-sonic energy source tip for connecting the omni-sonic energy source handle to the containment chamber.
[0052] Figure 15B shows a side view of the omni-sonic energy source tip inserted in the containment chamber with the O-ring inserted at the connecting end of the containment chamber for connecting to the handle of the omni-sonic energy source.
[0053] Figure 16A illustrates a top view of the containment chamber as seen from the connecting end of the containment chamber with the gasket disk inserted into the connecting end of the containment chamber and with three slits meeting in the center of the gasket disk to allow the omni-sonic energy source tip to be inserted through the slits in the gasket disk.
[0054] Figure 16B illustrates a side view of the containment chamber with the gasket disk in place at the connecting end of the containment chamber.
[0055] Figure 17 illustrates the top view of the containment chamber having the gasket disk with three slits as positioned in contact with a tooth.
[0056] Figure 18A illustrates a top view of the containment chamber as seen from the connecting end of the containment chamber with the gasket disk inserted into the connecting end of the containment chamber and with a single slit crossing most of the diameter of the gasket disk to allow the omni-sonic energy source tip to be inserted through the slits in the gasket disk.
[0057] Figure 18B illustrates a side view of the containment chamber with the gasket disk in place at the connecting end of the containment chamber and a stop disk attached to the omni-sonic energy source tip.
[0058] Figure 19 illustrates omni-sonic energy source tip with a threading mechanism and an adjustable stop disk.
[0059] Figure 20 shows a method of enhancing a contact surface.
[0060] Figure 21 shows further aspects of a method to enhance a contact surface by using an on omni-sonic energy source tip to impart omni-sonic energy.
[0061] Figure 22 shows further aspects of a method to enhance a contact surface by applying an effective amount of active ingredient to a contact surface.
[0062] Figure 23 shows even further aspects of a method to enhance a contact surface by applying an effective amount of active ingredient to a contact surface.
[0063] Figure 24 shows even further aspects of a method to enhance a contact surface by containing and directing the active ingredient at or on the oral surface within a confined space of a containment chamber.
[0064] Figure 25 shows a process for removing stains on a contact surface.
[0065] Figure 26 shows further aspects of a process for removing stains on a contact surface by applying an effective amount of an active ingredient to the stained portion of the contact surface.
[0066] Figure 27 shows a process for delivery of therapeutic agents.
DETAILED DESCRIPTION OF THE INVENTION
[0067] As stated above, the present invention generally relates to devices, processes product kits, and compositions for using sonic or ultrasonic waves to activate and improve the uptake, delivery, and efficacy of cleaning agents, whitening agents or therapeutic agents (or medicaments) on hard and soft surfaces. This invention describes a system, a method, and process for cleaning and whitening teeth and for therapeutic enhancement of teeth. For the purposes of this application
the term omni-sonic means the entire range of energy and wavelengths, without limitation, associated with sonic and ultrasonic waves. Also for the purposes of this application, the term enhance, enhancing or any derivations thereof means any and all activity, without limitation, to activate, increase the level and depth of penetration or absorption of, and/or improve the efficacy of, cleaning agents, whitening agents or therapeutic agents into hard or soft surfaces. Further, for the purposes of this application, the term active ingredient means cleaning agents, whitening agents or therapeutic agents (or medicaments). Moreover, for the purposes of this application, the term contact surfaces include both hard surfaces and soft surfaces, in particular, oral surfaces such as the teeth, gums, skin and bones. The oral surface can include human oral surfaces as well as other animal oral surfaces.
[0068] The following description is presented to enable one of ordinary skill in the art to make and use the invention and to incorporate it in the context of particular applications. Various modifications, as well as a variety of uses in different applications will be readily apparent to those skilled in the art, and general principles defined herein may be applied to a wide range of embodiments. Thus the invention is not intended to be limited to the embodiments presented, but is to be accorded the widest scope consistent with the principles and novel features disclosed herein. [0069] In the following detailed description, numerous specific details are set forth in order to provide a more thorough understanding of the invention. However, it will be apparent to one skilled in the art that the invention may be practiced without necessarily being limited to specific details. In other instances, well-known structures and devices are shown in block diagram form, rather than in detail, in order to avoid obscuring the present invention.
[0070] The reader's attention is directed to all papers and documents which are filed concurrently with this specification and which are open to public inspection with this specification, and the contents of all such papers and documents are incorporated herein by reference. All features disclosed in this specification, (including any accompanying claims, abstract, and drawings) may be replaced by alternative features serving the same, equivalent or similar purpose, unless expressly stated otherwise. Unless expressly stated otherwise, each feature disclosed is one example only of a generic series of equivalents or similar features. [0071] Any element in a claim that does not explicitly state "means for" performing a specified function, or "step for" performing a specific function, is not to
be interpreted as a "means" or "step" clause as specified in 35 U. S. C. Section 1 12, Paragraph 6. In particular, the use of step of or act of in the claims herein is not intended to invoke the provisions of 35 U.S. C. Section 1 12 Paragraph 6. [0072] The invention will be described with reference to the accompanying drawings. This invention may be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Further, the dimensions, materials and other elements shown in the accompanying drawings may be exaggerated to show details. The invention should not be construed as being limited to the dimensional or spatial relations or symmetry shown in the drawings, nor should the individual elements shown in the drawings be construed to be limited to the dimensions shown.
[0073] The drawings and accompanying descriptions are meant to provide the structure for the function performed by the components described in the drawings and accompanying descriptions.
[0074] In a system to enhance hard or soft surfaces, omni-sonic energy or waves can be used. An example of a hard surface includes a human tooth and examples of soft surfaces include human gums, skin or bones. Omni-sonic energy or waves can be generated from any suitable source, as known to those skilled in the art. Most typically, as shown in Figures 1 and 2, the prior art omni-sonic energy source structures are piezoelectric 100 or magnetorestrictive 200, or hybrids thereof, comprising an acoustic amplifier, typically called an acoustic horn or acoustic transducer, or sonotrode. The system of the present invention comprises an omni- sonic energy source tip, 101 and 201 , respectively, connected to an omni-sonic energy source 102 or 202, respectively.
[0075] The omni-sonic energy source 102 or 202 is provided a handle 103 for manual manipulation and a power source 105 as a source of power. The power may include electrical power, pneumatic power and mechanical power. Electrical power may include a battery and a plug-in type to an electrical outlet, not shown. The power source 105 is connected 107 to the omni-sonic energy source 102 or 202. Further, the power source 105 may optionally also include a set of tubes, not shown, for delivery of active ingredient 401 to the omni-sonic energy source tip 101 or 201 , as known to those skilled in the art. The power source 105 may also operate as an omni-sonic frequency generator.
[0076] Depending on the active ingredient 401 , variations in the amplitudes of the omni-sonic energy need to be used, to prevent destruction of the active ingredient molecule. This tuning is unique for different active ingredients and varies. The omni-sonic energy source 102 or 202 further comprises a mechanism to vary the omni-sonic frequency of the omni-sonic waves, to vary the amplitude of the omni- sonic waves, or both. Non-limiting examples of said mechanism may include a foot pedal device 104, a switch or dial, not shown, on said mechanism, or a button, switch or a trigger, not shown, on the handle 102. Said mechanism can be combined with or connected to the power source 105, for example, in the case of the foot pedal device 106.
[0077] The omni-sonic energy source tip 101 may be detachable from and re- attachable to the omni-sonic energy source 102, through a connecting device 109, or the omni-sonic energy source tip 201 may be part of a unitary body with the omni- sonic energy source 102. The system may operate within the entire omni-sonic range, or portions thereof, and is selectable to a specific frequency or range of frequencies and power and delivers a predetermined amplitude at the omni-sonic energy source tip 101 or 201 or, more particularly, the working end of the omni-sonic energy source tip 108 or 208.
[0078] Currently when using a omni-sonic energy source tip 201 against a contact surface 301 , as shown in Figure 3, to either clean, whiten or enhance therapeutic penetration or efficacy, the active ingredient 401 , that comes into contact with the oscillating working end 208 of a omni-sonic energy source tip 201 , is carried away rapidly due to the violent eddies that ensue as shown in Figure 4. When the omni-sonic energy source tip 201 is contained within a direction limiting containment chamber 601 or 701 , as shown in Figure 6A or Figure 7A, a unique system is created that focuses and directs the omni-sonic energy and re-circulates the active ingredient 401 being supplied, preventing it from washing away or moving away from the desired area of application. This containment chamber 601 or 701 can be called a splatter guard, since it simultaneously acts to prevent the active ingredient 401 from being sprayed about within the oral cavity. Generally centered within the containment chamber 601 or 701 , sits the omni-sonic energy source tip 101 or 201 , as shown in Figures 6B and 6C or Figure 7A.
[0079] Omni-sonic energy source tip 101 or 201 designs can vary, and comprise of different shapes which can improve the cleaning, whitening or
therapeutic efficacy or penetration. The working end 108 or 208 of the omni-sonic energy source tip 101 or 201 may also take different shapes, non-limiting examples being, a working end having bristles as shown in Fig 5A, having perforations as shown in Figure 5B, having an uneven surface acting as an abrasive as shown in Figure 5C, or having a detachable sticker or attachable sleeve that has a surface that may include abrasives as shown in Figure 5D. The working end 108 or 208 of the omni-sonic energy source tip 101 or 201 , may be impregnated with active ingredients 401 , when placed in contact with the contact surface 301 . [0080] In an embodiment of the system for enhancing hard or soft surfaces of the present invention comprises an omni-sonic source 102 or 202, a handle 103, an omni-sonic energy source tip 101 or 201 having a length and a width and comprising a working end 108 or 208 at a distal end of the length of the omni-sonic energy source tip 101 or 201 and a connecting end 1 10 or 210 at a proximal end of the length of the omni-sonic energy source tip 101 or 201 and connected to the omni- sonic energy source 102 or 202, an active ingredient 401 , and a containment chamber 601 or 701 , in which the omni-sonic energy source tip 101 or 201 is located, and comprising a contact end 602 or 702 at a distal end of the containment chamber 601 or 701 and a connecting end 603 or 703 at a proximal end of the containment chamber 601 or 701 connected to omni-sonic energy source tip 101 or 201 , wherein the containment chamber contains at least a portion of the active ingredient 401 when the omni-sonic energy source 102 or 202 is in activated, and wherein the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 creates waves in an active ingredient 401 at an omni-sonic frequency and at an amplitude.
[0081] In a preferred embodiment, an Acteon, PMax XS, is an example of a piezoelectric omni-sonic energy source and a Dentsply, Cavitron Plus is an example of a magnetorestrictive omni-sonic energy source, both of which are incorporated herein by reference.
[0082] Sizes of the contact end 602 or 702 of the containment chamber 601 or
701 can range from 2 mm to 10 mm, as measured across an opening of containment chamber 601 or 701 at the contact end 602 or 702. The size of the contact end 602 or 702 of the containment chamber 601 or 701 may vary depending on whether the contact end 602 or 702 is submerged into the active ingredient 401 , or contacting the active ingredient 401 with no contact surface 301 contact. The containment
chamber 601 or 701 can be made up of any material, including but not limited to metals, plastics, alloys, composites, resins, fibers, paper, wax, or other moldable, injectable, carvable, or, in particular, materials that can be formed. [0083] At the interface between the contact end 602 or 702 of the containment chamber 601 or 701 and the contact surface 301 , a gasket ring seal 801 as shown in Figure 8A can be applied to reduce the interface between the contact end 602 or 702 of the containment chamber 601 or 701 and the contact surface 301 as shown in Figure 9. In lieu of a gasket seal ring 801 , a gasket disk 805 can be inserted into the opening at the contact end of the containment chamber, as shown in Figures 8D, 8E and 8F. Rubber, silicone, or other materials used to fabricate gaskets seal rings or gasket disks can be used. Further, material of the same material as the containment chamber may also be used. The shape of the gasket seal ring or gasket disk conforms the opening at the contact end of the containment chamber. [0084] The omni-sonic energy source tips 101 and 210 and containment chambers 601 and 701 are meant to be either disposable or autoclavable depending on the desired method and material being employed. Unit dose or single use parts are preferred.
[0085] Omni-sonic energy source tips 101 or 201 can be designed to fit within the containment chamber 601 or 701 and have a minimum distance of .005 mm, "A" as shown in Figures 10A and 10B, from working end 108 or 208 of the omni-sonic energy source tip 101 or 201 and the edge of contact end 602 or 702 of the containment chamber 601 or 701. In some instances, the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 may be as far as 7 mm from the edge of contact end 602 or 702 of the containment chamber 601 or 701 . [0086] The omni-sonic energy source tip 101 or 201 material is chosen in order to have the desired omni-sonic properties and also be compatible with the chemistry being used in the particular application. Suitable materials include, but are not limited to, titanium, aluminum and steel, preferably hardened steel. Other materials can be used, including, but no limited to, plastic, carbon composite materials or a combination metal/plastic or metal/carbon composite. Preferably, a material softer that the human tooth structure is attached to the omni-sonic energy source tip, allowing for contact of the tip to the tooth without harmful cutting of the tooth surface.
[0087] The omni-sonic energy source 102 or 202 oscillates at a frequency range, which is translated to the omni-sonic energy source tip 101 or 201 , of from 100 Hz to about 40,000 kHz, more preferably from about 100 Hz to about 30,000 kHz, even more preferably from about 150 Hz to about 20000 kHz, but not limited thereto.
[0088] As shown in Figure 1 1A, a port 1 101 can be added to the containment chamber 601 to allow for delivery of active ingredients 401 , and/or a second port 1 102, as shown in Figure 1 1 B, can be added as an extracting port to be attached to a suction unit, not shown, for the extraction of residue. Alternatively, port 1 103 for delivery of active ingredients 401 and/or port 1 104 for extracting of residue 1 106 can be added to containment chamber 701 , as shown in Figure 1 1 C. A device to restrict or halt extraction 1105, such as a finger spring pinch, can be added to the extracting ports 1 102 or 1 104, as shown in Figure 1 1 D. Alternatively as known to those skilled in the art, ports, not shown, can be included to supply active ingredient 401 to the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 . [0089] As shown in Figure 12, the present invention includes omni-sonically enhanced active ingredients 1201 that are constrained by the containment chamber 601 or 701 . The active ingredients 1201 include cleaning or whitening agents which comprise: cleaning or whitening compositions or agents, preferably a liquid or gel, selected from groups consisting of enzymes, bleach or peroxide products, catalyst and or mixtures thereof. Preferably the active ingredients are present in an effective amount, more preferably from about 0.0001 % to about 90% by weight, even more preferably from about 0.001 % to about 70% by weight, even more preferably still from about 0.005% to about 40% by weight, even more preferably still from about 0.01 % to about 30% by weight by weight.
[0090] It has been surprisingly found that the active ingredients 401 or 1201 deliver increased cleaning performance when they are confined within the containment chamber 601 or 701 in conjunction with omni-sonic energy. These active ingredients 401 or 1201 can comprise additional additives and these are explained in greater detail hereafter.
[0091] The active ingredients 401 or 1201 also include therapeutic agents.
These therapeutic agents can comprise: therapeutic compositions or agents, preferably a liquid or gel, selected from groups consisting of antibiotics, anticaries, antisensitivity, antihalitosis, antiviral, antiaphthous, analgesic, dentinal tubule sealing
or obstructing, remineralization, but not limited to any dental therapeutic or oral- pharyngial therapeutic.
[0092] Omni-sonically enhanced therapeutics agents are present in compositions in an effective amount, more preferably from about 0.0001 % to about 99% by weight, even more preferably from about 0.001 % to about 70% by weight, even more preferably still from about 0.005% to about 40% by weight, even more preferably still from about 0.01 % to about 30% by weight. It has been surprisingly found that these omni-sonically enhanced therapeutic agents can be delivered deeper in conjunction with omni-sonic energy. These therapeutic compositions can comprise additional additives and these are explained in greater detail hereafter. [0093] As shown in Figure 13, the connecting end 703 of containment chamber 701 can include a connecting lip 1301 which can be attached to a connecting extension 1302 of the omni-sonic energy source 102, not shown, or the handle 103, such that the omni-sonic energy source tip 101 , not shown, which is attached to the omni-sonic energy source 102, can be inserted into the containment chamber 701 . Similarly, as shown in Figure 14A, the containment chamber 701 , can be comprised of two containment chamber halves 1401 and 1402, that can be joined together around the omni-sonic energy source tip 101 , as shown in Figure 14B. Alternatively or in addition to the joining of the two containment chamber halves 1401 and 1402 shown in Figures 14A and 14B, the connecting end 703 of the containment chamber 701 can be connected to the omni-sonic energy source 102, not shown, or handle 103 by means of an O-ring 1501 , as shown in Figure 15A. Once the omni- sonic energy source tip 101 is located within containment chamber 701 , the O-ring is used to connect the omni-sonic energy source 102 or handle 103. The connecting mechanisms described herein are non-limiting and any other connecting mechanisms may be used.
[0094] The containment chamber 701 , as shown in Figures 16A and 16B has a slitted disk 1601 with three slits 1602 located at the connecting end 703 of the containment chamber 701 . The slitted disk 1602 is used to connect the containment chamber 701 to the omni-sonic energy source tip 101 , not shown. When in use, the contact end 702 of the containment chamber 701 is placed in contact with contact surface 301 as shown in Figure 17. In another embodiment of the containment chamber, as shown in Figures 18A and 18B, the slitted disk 1801 comprises a single slit 1804 creating two halves 1802 and 1803 of the slitted disk 1801 . The slitted disk
1801 is located at the connecting end 703 of the containment chamber 701 . The slitted disk 1801 is used to connect the containment chamber 701 to the omni-sonic energy source tip 101 .
[0095] In order to limit the movement of the containment chamber 701 along the axis of the omni-sonic energy source tip 101 , a stop disk 1805, as shown in Figure 18B, is attached to omni-sonic energy source tip 101 at the appropriate location such that the working end 103 of the omni-sonic energy source tip 101 is in or near the same plane as the contact end 703 of the containment chamber 701. Alternatively, as shown in Figure 19, another embodiment of the stop disk 1901 can be adjusted along the axis of the omni-sonic energy source tip 101 by a threading mechanism 1902 located on the omni-sonic energy source tip 101. The stop disk 1901 is threaded onto the omni-sonic energy source tip 101 by engaging the threading mechanism 1902 on the omni-sonic energy source tip 101 and elevated to a position on the omni-sonic energy source tip 101 which would place, when the containment chamber 701 is then connected to the omni-sonic energy source tip 101 and the connecting end 703 of the containment chamber abuts the stop disk 1901 , the working end 108 of the omni-sonic energy source tip 101 in or near the plane of the contact end 703 of the containment chamber 701 .
[0096] The omni-sonic energy source tip 101 or 201 can touch, or be close to the contact surface 301 being treated. The end working 108 or 208 of the omni- sonic energy source tip 101 or 201 is approximately perpendicular to the contact surface 301 . The distance between the contact surface 301 and the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 , it can be either adjusted within in the containment chamber 601 or 701 , as further described herein, or fixed within the containment chamber 601 or 701 in relation to the plane of the contact end 602 or 702 of the containment chamber 601 or 701 . The location of the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 in relation to the plane of the contact end 602 or 702 of the containment chamber 601 or 701 , may depend on, for example, the viscosity of the active ingredient 401 . Based on the viscosity, surface tension, and other formulation criteria of the active ingredient 401 , the distance of the working end 108 or 208 of the omni-sonic energy source tip 101 or 201 from contact surface 301 can be adjusted to allow for the optimal efficacy or penetration.
[0097] As shown in Figure 1 1 C, the active ingredients 401 or 1201 can be stored in a storage container 1106 which, upon a desired titration, can be released into the containment chamber 601 or 701 , or on the contact surface 301 . The storage container 1106 can be, as non-limiting examples, either a syringe or unit dose plastic type container. The storage container 1 106 can be connected to the containment chamber 601 or 701 or the omni-sonic source 102 or 103 through a port 1 101 or 1 103, and/or with a rubber hose or tubing 1 107. The active ingredient 401 or 1201 can then be released onto either the contact surface 301 , or through the omni-sonic source tip or into the containment chamber. The storage container holding the agent can also be separate, and release its contents onto the contact surface 301 directly, not shown. These are some possible examples of storage containers and not intended to be limiting.
[0098] The storage container or a separate storage container, not shown, can also include aqueous solutions such as water, solvent and thickeners to apply to the contact surface 301 to remove residue 1 106.
[0099] The omni-sonic energy source tip 101 or 201 , the containment chamber 601 or 701 or the active ingredient can be heated to further enhance the effects of the omni-sonic waves imparted to the active ingredient. [0100] The containment chamber 601 or 701 , in conjunction with the omni- sonic energy source tip 101 or 201 and the active ingredient 401 or 1201 have the ability to change, enhance, and alter the normal chemical reaction, breakdown, release of free radicals in the active ingredient 401 or 1201 . The containment chamber 601 or 701 focuses the energy from the omni-sonic energy source tip 101 or 201 into the molecules of the active ingredient 401 or 1201 , exciting them, reprocessing them, while changing their potency or strength depending on the level of energy applied, while the activate ingredient outside 401 or 1201 of the containment chamber 601 or 701 , residing elsewhere within the oral cavity, remains at the un-excited potency or strength. Omni-sonic energy enhances cleaning, whitening or medicating by breaking up organic molecules of the active ingredient 401 or 1201 into smaller pieces, increasing surface area to be enhanced, an allowing more active ingredient 401 or 1201 to contact the contact surface 301 . Omni-sonic energy also enhances cleaning by accelerating active ingredient molecules, increasing the action against the surface molecules, for example tooth stain molecules.
[0101] When all are combined, the omni-sonic source tip 101 or 201 , the containment chamber 601 or 701 , and active ingredient 401 or 1201 , a unique system is created that allows a practitioner to direct, control, and contain, active ingredient 401 or 1201 for deep penetration, increased action, and increased cleaning, whitening or therapeutic outcomes. By using an active ingredient 401 or 1201 with an omni-sonic energy source 102 or 103, stains can be removed without the use of excessive force, rubbing, pressure or other manipulation which causes wear and tear on contact surfaces 301 , for example tooth surfaces. [0102] The present invention also comprises, as shown in Figure 20, a method of enhancing an contact surface comprising applying an active ingredient 2001 , containing and directing the active ingredient to an area of the contact surface 2002; using an omni-sonic energy source tip to impart creating omni-sonic waves in the active ingredient, having an omni-sonic frequency and an amplitude 2003, and, optionally rinsing the contact surface with an aqueous solution 2004. A type of contact surface is a human tooth, human gums, human cheek skin or human bone. [0103] As shown in Figure 21 , the method further comprises varying the omni- sonic frequency, the amplitude or both 2101 . Another embodiment of the method further comprises providing an omni-sonic energy source to the omni-sonic energy source tip to create the omni-sonic waves 2102. The omni-sonic energy source is selected for having properties compatible with omni-sonic wave creation and with chemistry of the active ingredient 2103.
[0104] The method further comprises providing power to the omni-sonic energy source 2105. The power may be electrical power, pneumatic power or mechanical power 2107. In an embodiment of the present invention, the method further comprises providing a power source to provide electrical power to the omni- sonic source 2108. The method further comprises selecting a power source selected from a group consisting of a battery and a plug-in type to an electrical outlet 2109. A further embodiment of the method comprises varying the power provided to the omni-sonic energy source 2106.
[0105] The method further comprises impregnating a working end of the omni- sonic energy source tip with active ingredients 21 11 . The working end of the omni- sonic energy source tip is selected from a group consisting of bristle fibers, a surface with perforations, a surface onto which a sticker or variable sleeve can be applied, or an uneven surface 21 12. The method further comprises selecting a material softer
than a human tooth and attaching said material to the working end of the omni-sonic energy source tip 21 13.
[0106] An embodiment of the method of the present invention further comprises selecting an omni-sonic energy source from a group consisting of a piezoelectric device or magnetostrictive device 2104. The method further comprises imparting omni-sonic energy from the working end of the omni-sonic energy source tip directly to the contact surface.
[0107] As shown in Figure 22, the method further comprises selecting the active ingredient from one or more of a cleaning agent, a whitening agent or a therapeutic agent 2201. The method further comprises dispensing the active ingredient using a device that controls the application amount, application location or both 2202. The method further comprises applying an effective amount of the active ingredient based on the contact surface to be enhanced 2203. The method further comprising selecting the active ingredient from a group consisting of amylase enzyme, bleach catalyst and mixtures thereof 2204. The method further comprises rinsing the contact surfaces to be enhanced with an aqueous solution 2205. The method further comprises increasing penetration of the active ingredient into the contact surface 2206. The method wherein the active ingredient is a portion of a solution, which portion is from about 0.0001 % to about 100% by weight 2207. [0108] The method of the present invention further comprises selecting the active ingredient, comprising a cleaning agent, from a group consisting of builders, surfactants, enzymes, bleach activators, bleach boosters, bleaches, peroxides, alkalinity sources, antibacterial agent, anti-microbial agents, antioxidants, electrolytes, pH modifiers, thickeners, abrasives, enzyme stabilizers, solvents, humectants, and foamers 2302. The active ingredient may also comprise a therapeutic agent, selected from a group consisting of fluorides, antimicrobials, anti- tartar agents, varnishes, anti-sensitivity products, anticahes agents, halitosis agents, periodontal disease agents, antibiotics, antiviral agents, dry mouth agents, anesthetics, aphthous ulcer medicaments, and wart medicaments 2301. The active ingredient may also comprise selecting the active ingredient comprising dental medicaments 2303. Heat may also be applied to the active ingredient 2304. [0109] As shown in Figure 24, the method of the present invention comprising increasing a rate of enhancing the contact surface. An embodiment of the method of the present invention further comprising using a containment chamber to contain and
direct at least a portion of the active ingredient to remain in contact with the contact surface. The method of the present invention wherein the containment chamber comprises a contact end, an opening at the contact end, a connecting end opposing the contact end and walls connected to the connecting end and forming the opening at the contact end 2402. The method further comprises selecting a size of the opening of the containment chamber based on whether the contact end of the containment chamber is submerged into the active ingredient or is contacting a surface of the active ingredient 2403. In another embodiment the method of the present invention further comprises enclosing at least a portion of a omni-sonic energy source tip within the containment chamber 2401 .
[0110] The method of the present invention further comprises creating a tent, bubble, cup, or other sealed or non-sealed environment with the containment chamber 2404. The method further comprises trapping, recycling and directing the active ingredient within the containment chamber 2405. The method further comprises moving the omni-sonic waves and active ingredient across the hard surface, the soft surface or both 2406. The method of the present invention further comprises containing and directing omni-sonic waves to the active ingredient 2407. In another embodiment, the method further comprises maintaining contact between the containment chamber and the hard surface, soft surface or both 2408. The method of the present invention also comprises containing and directing at least a portion of the active ingredient to remain in contact with the contact surface 2409. [0111] As shown in Figure 25, the present invention also comprises a process for removing stains from, removing a deposit from a contact surface comprising: (i) selecting stained portion contact surface 2501 , (ii) applying an effective amount of an active ingredient to a contact surface 2502, (iii) containing and directing the active ingredient and a working end of a omin-sonic energy source tip at or on stained portion of the contact surface 2503 within the confined space of a containment chamber 2503, (iv) activating the omni-sonic energy source tip to impart omni-sonic waves to the active ingredient and/or the contact surface 2504 so as to enhance the contact surface, and (v) optionally, rinsing said contact surface with an aqueous solution 2505. The process for removing stains from a contact surface also including activators or chemicals that will interact with the active ingredient to increase stain removal 2601. The process for removing stains from a contact surface also
including activators or chemicals that will interact with the omni-sonic waves to increase stain removal 2602.
[0112] Examples of cleaning agents include are amylase enzyme, bleach catalyst peroxides, solvents, and mixtures thereof 2603. Examples of aqueous solutions include but are not limited to water, solvents and thickeners 2604. [0113] In one aspect of this process, not shown, it is preferred that steps (i) -
(iii) are conducted simultaneously using a device that permits controlled dispensing of said active ingredient 401 to the surface 301 while concurrently imparting omni- sonic waves thereto.
[0114] Typical treatment times range from about 1 second to about 5 minutes depending on if the contact surface to be enhanced is having a therapeutic applied. Total treatment times can be broken into segments, allowing for the addition of different active ingredients and to allow the oral to rest and/or re-hydrate. [0115] Non-limiting active ingredients include any FDA approved oral care ingredient, or combinations thereof, used in cleaning of teeth and bleaching of teeth or any other ingredient considered safe for use in the field of oral care, or combinations thereof, including enzyme systems, solvents, thickeners, surfactants, cleaners, flavors 2605.
[0116] Active ingredients can also include: anesthetics for hard or soft tissues, fluorides used as anti-caries agents, or tooth surface hardening chemistry, desensitizing agents, remineralization agents, or antimicrobial agents, aphthous ulcer medicaments, antiviral medicaments, halitosis agents, salivary flow agents, other remineralization agents such as Calcium phosphate, Recaldent, or ACP, Novamin™, antibiotics and antimicrobial agents 2606.
[0117] As shown in Figure 27, the invention includes a process for delivery of therapeutic agents comprising selecting a portion of a contact surface for delivery of therapeutic agents 2701 ; applying an effective amount of therapeutic agent to the selected portion of the contact surface 2702; containing and directing the active ingredient and omni-sonic waves to said portion of the contact surface 2703; activating a working end of an omni-sonic energy source tip to impart omni-sonic energy to the therapeutic agent 2704; and optionally, rinsing said contact surface with an aqueous solution 2705. The process further comprising selecting the contact surface from a group consisting of teeth, gums, lips, bone, periodontal ligaments or teeth sulci. The process further comprising including activators or chemicals that will
interact with the therapeutic agent to its increase effectiveness. The process further comprising including activators or chemicals that will interact with the omni-sonic waves to increase the effectiveness of the therapeutic agent. [0118] An embodiment of present invention further comprises, as shown in
Figure 7A, a containment chamber attachment 701 comprising an opening at a contact end 702; a connecting end opposing the contact end 703, said connecting end including a passage to permit a working end of an omni-sonic energy source tip 201 be placed into the containment chamber attachment 701 ; and walls defining the opening at the contact end 702 and connected to the connecting end 703. [0119] The containment chamber attachment wherein the walls are cylindrically shaped as shown in Figure 7a. A further embodiment of the containment chamber attachment wherein the walls are tapered with a portion of the side walls at the contact end being wider than a portion of the side walls at the connecting end as shown in Figure 15A. In another embodiment, the walls of the containment chamber consist of three walls as shown in Figure 7B. In yet another embodiment, the walls of the containment chamber attachment consist of four walls as shown in Figure 15C.
[0120] The containment chamber attachment of the present invention, as shown in Figure 14A, further comprising two parts, a first part 1401 that includes a first portion of the connecting end 703, a first portion of the walls physically connected to the first portion of the connecting end 703 and a first portion of the contact end 702 comprising a first portion of an edge defining the opening, a second part 1402 that includes a second portion of the connecting end 703, a second portion of the walls physically connected to the second portion of the connecting end 703 and a second portion of the contact end 702 comprising a second portion of the edge defining the opening, and a joining mechanism to connect the first part 1401 and the second part 1402. The containment chamber attachment wherein the joining mechanism is a snap mechanism or latch mechanism.
[0121] The containment chamber attachment, as shown in Figure 8B, further comprising a molded slot in the opening of the contact end 702; and a seal 801 , as shown in Figure 8A, shaped to tightly fit the molded slot as shown in Figure 8C. The containment chamber attachment wherein the seal provides an interface between the contact end and a contact surface as shown in Figure 9.
[0122] In another embodiment, the connecting end of the containment chamber attachment is configured for attachment to an omni-sonic energy source tip, an omni-sonic energy source or a handle for the omni-sonic energy source as shown in Figures 15A, 15B, 16A and 18A. The containment chamber attachment further comprising a working end of the omni-sonic energy source tip is located inside the containment chamber attachment, as shown in Figure 16B, and is located in a plane defined by the opening as shown in Figure 18B.
[0123] In yet another embodiment, not shown, the containment chamber attachment further comprises a working end of the omni-sonic energy source tip is located inside the containment chamber attachment and is located at a distance from the plane defined by the opening of the containment chamber. [0124] In still another embodiment, as shown in Figure 1 1 D, the containment chamber attachment further comprises at least one port, said at least one port configured for extraction of residue from inside the containment chamber attachment. The containment chamber attachment further comprising a tube 1 106 attached to the at least one port, a device 1 105 located on the tube to restrict or halt the extraction of residue. The containment chamber attachment wherein the device located on the tube to restrict or halt the extraction residue further comprising a finger spring pinch switch located on the tube.
[0125] In another embodiment, as shown in Figure 11 C, the containment chamber attachment further comprising at least one port, said at least one port configured for delivery of an active ingredient into the containment chamber attachment.
[0126] The containment chamber attachment further comprising finger grip serrations 1502 on the walls near the connecting end, as shown in Figures 15A and 15B. The containment chamber attachment further containing an O-ring 1501 , inserted at the connecting end and configured to accept and connect the handle to the connecting end.
[0127] In another embodiment, the containment chamber attachment further comprising a gasket disk 1601 inserted into the connecting end, said gasket disk including at least one slit, to allow a working end of an omni-sonic energy source tip to be placed through the gasket disk and into the containment chamber attachment, as shown in Figures 16A, 16B, 18A and 18B. The containment chamber attachment
wherein the at least one slit is three slits radiating at equal distances from the center of the gasket disk.
[0128] Another embodiment of the present invention, as shown in Figure 6A, a containment chamber attachment 601 comprising a top wall having a width and a length, two opposing side walls connected to at least a portion of the top side, a contact end 602, as shown in Figure 6C, connected to the top wall and the two side walls, an opening opposing the top wall, a connecting end 601 opposing the contact end, and said connecting end including a passage to permit a working end of an omni-sonic energy source tip to be placed into the containment chamber attachment 601 and an attachment, not shown, to connect the containment chamber attachment to an omni-sonic dental apparatus.
[0129] In another embodiment, the containment chamber attachment 601 , as shown in Figure 1 1A, further comprises a first port 1 101 in the containment chamber attachment 601 either for delivery of an active ingredient or other solution into the containment chamber attachment 601 or for extraction of residue from the containment chamber attachment 601 . The containment chamber attachment 601 , as shown in Figure 1 1 B, further comprises a second port 1 102 in the containment chamber attachment, either for importing an active ingredient or other solution into the containment chamber attachment 601 or for extraction of residue from the containment chamber attachment 601 .
[0130] In still another embodiment, the present invention relates to a method of enhancing (e.g., whitening, cleaning, enhancing, etc.) a contact surface comprising: applying an active ingredient (e.g., cleaning agent, medicament, etc.) to at least one area; containing and directing the active ingredient to an area of the contact surface; covering the at least one area with a film; creating omni-sonic waves, in the active ingredient, having an omni-sonic frequency and an amplitude. In this embodiment, suitable films include, but are not limited to, polymer films (e.g., flexible polymer based sandwich wraps), flexible metal foils (e.g., aluminum foil), wax films, cotton paper films, cellulose-based films, etc. In another embodiment, this method is accomplished by a unitary piece that includes all of an active ingredient, a film and a guard for guarding against unwanted dispersal of the active ingredient when the method is being enacted via the application of omni-sonic waves. As with the other embodiments of the present invention, the active ingredient can be any suitable active ingredient within the scope of the present invention.
Claims
1 . A system for enhancing contact surfaces comprising: an omni-sonic energy source, wherein the omni-sonic energy source is activated by a power source; an omni-sonic energy source tip having a length and a width and comprising: a working end at a distal end of the length of the omni-sonic energy source tip; and a connecting end at a proximal end of the length of the omni- sonic energy source tip and connected to the omni-sonic energy source; an active ingredient; and a containment chamber in which at least a portion of the omni-sonic energy source tip is located and comprising: a contact end at a distal end of the containment chamber; and a connecting end at a proximal end of the containment chamber and walls physically connected to the connecting end, wherein the containment chamber contains at least a portion of the active ingredient when the omni-sonic energy source is activated, and wherein omni-sonic energy source provides omni-sonic energy to the working end of the omni-sonic energy source tip and the working end of the omni-sonic energy tip imparts omni-sonic energy to the at least a portion of the active ingredient at an omni-sonic frequency and at an amplitude.
2. The system of claim 1 , wherein the hard surface comprises a human tooth.
3. The system of claim 1 , wherein the soft surface comprises human gums, or skin, or bone.
4. The system according to claim 1 , wherein the omni-sonic energy source is selected from a group consisting of an acoustic amplifier, an acoustic horn, an acoustic transducer and a sonotrode.
5. The system of claim 1 , wherein the omni-sonic energy source is either piezoelectric, magnetostrictive or hybrids thereof.
6. The system of claim 1 , wherein the omni-sonic frequency further comprises a range of frequencies.
7. The system of claim 1 , wherein the omni-sonic energy source further comprises a mechanism to vary the omni-sonic frequency of the omni-sonic waves, to vary the amplitude of the omni-sonic waves, or both.
8. The system of claim 1 , wherein the omni-sonic energy source further comprises a mechanism to vary power from the power source to the omni-sonic energy source.
9. The system of claim 8, wherein the mechanism to vary the power is selected from a group consisting of a foot pedal device, a switch, a dial and a trigger.
10. The system of claim 1 , wherein power from the power source for the omni-sonic energy source is selected from a group consisting of electrical power, pneumatic and mechanical power.
1 1 . The system of claim 10, wherein the power source for electrical power is selected from a group consisting of a battery and a plug-in type to an electrical outlet.
12. The system of claim 1 , wherein the omni-sonic energy source tip comprises a material selected to have properties compatible with omni-sonic wave creation and compatible with chemistry of the active ingredient.
13. The system of claim 1 , wherein the omni-sonic energy source tip comprises at least one of a material selected from a group consisting of titanium, aluminum, steel, a composite material and plastic.
14. The system of claim 1 , wherein the omni-sonic energy source tip is made of hardened steel.
15. The system of claim 1 , wherein the working end of the omni-sonic energy source tip imparts omni-sonic energy directly to the hard surface.
16. The system of claim 1 , wherein the working end of the omni-sonic energy source tip is selected from a group consisting of a casing of bristle fibers, a surface with perforations, a surface onto which a sticker or an attachable sleeve can be applied, and an uneven surface.
17. The system of claim 16, wherein abrasive material is applied to the sticker or the attachable sleeve.
18. The system of claim 16, wherein the active ingredient is applied to the working end of the omni-sonic energy source tip.
19. The system of claim 1 1 , wherein the active ingredient is applied to at least a portion of the working end of the omni-sonic energy source tip.
20. The system of claim 1 , wherein the working end of the omni-sonic energy source tip comprises a material softer than a human tooth.
21 . The system of claim 1 , wherein the containment chamber further comprising an opening at the contact end, the connecting end opposing the opening, and the walls physically connected to the connecting end and forming the opening.
22. The system of claim 21 , wherein the opening of the contact end of the containment chamber is configured in shapes consisting of a circle, an oval, a square, a rectangle, a diamond or a triangle.
23. The system of claim 21 wherein the opening at the contact end of the containment chamber is a in a range from 2 mm to 10 mm as measured across a distance of the opening that is the shortest distance.
24. The system of claim 21 , wherein the opening of the contact end of the containment chamber comprises edges, said edges being a distance from the working end of the omni-sonic energy source tip in a range from .005 mm to 7 mm as measured generally in a plane created by the opening of the containment chamber and as measured across a distance of the opening that is the shortest distance between the working end of the omni-sonic energy source tip and the edges.
25. The system of claim 24, wherein the edges of the opening of the contact end of the containment chamber further comprises a seal.
26. The system of claim 25, wherein the seal is of a compressible material to aid in creating a tight closure between the containment chamber and the contact surface.
27. The system of claim 26, wherein the compressible material is of a group consisting of an elastomeric material and a material that is the same as containment chamber material.
28. The system of claim 27, wherein the elastomeric material selected from a group consisting silicone and rubber.
29. They system of claim 25, wherein the seal comprises a gasket seal ring.
30. The system of claim 21 , wherein the opening of the contact end of the containment chamber further comprises a gasket disk.
31 . The system of claim 30, wherein the gasket disk is of a compressible material to aid in creating a tight closure between the containment chamber and the contact surface.
32. The system of claim 31 , wherein the compressible material is of a group consisting of an elastomeric material and a material that is the same as containment chamber material.
33. The system of claim 32, wherein the elastomeric material selected from a group consisting silicone and rubber.
34. The system of claim 21 , wherein the containment chamber can be adjusted in relation to the working end of the omni-sonic energy source tip such that the working end of the omni-sonic energy source tip moves perpendicularly in relation to the plane created by the opening of the containment chamber.
35. The system of claim 1 , wherein the connecting end of the containment chamber further comprises a passage through which the working end of the omni- sonic energy source tip can pass.
36. The system of claim 35, wherein the passage includes an attachment mechanism to connect the containment chamber to the omni-sonic energy source tip.
37. The system of claim 36, wherein the attachment mechanism is adapted to receive the omni-sonic energy source tip and releasably grip the omni-sonic energy source tip.
38. The system of claim 36, wherein the omni-sonic energy source tip has a threaded portion along the length and the attachment mechanism is a threaded fastener which can be threaded onto threaded portion of the omn-sonic energy source tip.
39. The system of claim 35, wherein the passage includes an attachment mechanism to connect the containment chamber to the omni-sonic energy source.
40. The system of claim 35, wherein the passage includes an attachment mechanism to connect the containment chamber to the handle.
41 . The system of claim 40, wherein the passage further comprises a connecting lip at the connecting end of the containment chamber and the handle further comprises a connecting extension shaped to hold the connecting lip when inserted in connecting extension.
42. The system according to claim 40, wherein the attachment mechanism comprises a snap mechanism.
43. The system according to claim 40, wherein the attachment mechanism comprises a friction mechanism.
44. The system according to claim 40, wherein the attachment mechanism comprises a threaded mechanism.
45. The system of claim 21 , wherein the containment chamber further comprises two parts, a first part that includes a first portion of the connecting end, a first portion of the walls physically connected to the first portion of the connecting end and a first portion of the contact end comprising a first portion of the edge defining the opening, a second part that includes a second portion of the connecting end, a second portion of the walls physically connected to the second portion of the connecting end and a second portion of the contact end comprising a second portion of the edge defining the opening, and a joining mechanism to connect the first part and the second part.
46. The system according to claim 45, wherein the joining mechanism comprises a snap mechanism.
47. The system according to claim 45, wherein the joining mechanism comprises a latch mechanism.
48. The system of claim 1 , wherein the walls of the containment chamber further comprises a top wall having a length and a width, opposing side walls physically connected to the top wall for at least a portion of the length of the top wall, the connecting end located at one end of the length of the top wall, the contact end opposing the connecting end located at the other end of the length of the top wall, and an opening opposite the top wall and defined by the side walls, the connecting end and the contact end.
49. The system of claim 48, wherein the length of the top wall of the containment chamber is at least as long as the length of the omni-sonic energy source tip.
50. The system of claim 48, wherein handle has a length and a width and the width of the top wall of the containment chamber is at least as wide as width of the handle.
51 . The system of claim 48, wherein the connecting end of the containment chamber comprises a passage through which the omni-sonic energy source tip can be placed.
52. The system of claim 51 , wherein the passage includes an attachment mechanism to connect the containment chamber to the omni-sonic source.
53. The system of claim 51 , wherein the passage includes an attachment mechanism to connect the containment chamber to the handle.
54. The system of claim 53, wherein the attachment mechanism is adapted to receive the omni-sonic energy source tip and releasably grip the handle.
55. The system of claim 53, wherein the attachment mechanism comprises a snap mechanism.
56. The system of claim 53, wherein the attachment mechanism comprises a latch mechanism.
57. The system of claim 53, wherein the attachment mechanism comprises a threaded mechanism.
58. The system of claim 1 , wherein the containment chamber comprises at least a material selected from a group comprising a metal, a plastic, a paper, a wax, a resin, a fiber and a composite.
59. The system of claim 58, wherein the metal is a metal alloy.
60. The system of claim 1 , wherein the containment chamber comprises at least a material selected from a group consisting of a moldable material, an injectable material, a carvable material, and a formable material.
61 . The system of claim 1 , wherein the containment chamber comprises at least one port in the walls or connecting end to allow delivery of the active ingredient.
62. The system of claim 1 , wherein the containment chamber comprises at least one port in the walls or connecting end to allow delivery of aqueous solutions.
63. The system of claim 61 , wherein the at least one port further comprises at least one attaching extension.
64. The system of claim 63, wherein the at least one attaching extension is selected from a group consisting of a suction unit, a storage container, a hose, and a tube.
65. The system of claim 64, wherein the storage container is attached to at least one port of the containment chamber.
66. The system of claim 65, wherein the storage container stores the active ingredient or aqueous solutions.
67. The system of claim 64, wherein the storage container is a syringe or a unit dose container.
68. The system of claim 66, wherein the storage container includes a mechanism to release the active ingredient onto contact surface, onto the working end of the omni-sonic energy source tip, or into the containment chamber.
69. The system of claim 1 , further comprising a storage container, separate from the containment chamber, to release the active ingredient directly to the contact surface.
70. The system of claim 1 , wherein the containment chamber further comprises at least one residue extraction port.
71 . The system of claim 70, wherein the at least one residue extraction port further comprises at least one attaching extension.
72. The system of claim 71 , wherein the at least one attaching extension is selected from a group consisting of a suction unit, a hose, and a tube.
73. The system of claim 1 , wherein the omni-sonic frequency is in a frequency range of 100 Hz to about 40,000 kHz.
74. The system of claim 1 , wherein the omni-sonic source produces an omni-sonic frequency in a frequency range of 100 Hz to about 30,000 kHz.
75. The system of claim 1 , wherein the omni-sonic frequency is in a frequency range of 150 Hz to about 20,000 kHz.
76. The system of claim 75, wherein the omni-sonic frequency further comprise a set of frequencies comprising a frequency range within the frequency range of 150 Hz to about 20,000 Hz.
77. The system according to claim 1 , wherein the active ingredient comprises a liquid or a gel.
78. The system according to claim 1 , wherein the active ingredient comprises at least one of an enzyme, a bleaching product or a peroxide product.
79. The system according to claim 1 , wherein the active ingredient further comprises a catalyst.
80. The system according to claim 1 , wherein the active ingredient is selected from a group consisting of antibiotics, anticaries, antisensitivity compositions, antihalitosis compositions, antiviral compositions, antiaphthous compositions, analgesic compositions, dentinal tubule sealing or obstructing compositions, remineralization compositions, dental therapeutics and oral-pharyngial therapeutics.
81 . The system according to claim 1 , wherein the active ingredient comprises one or more of a cleaning agent, a whitening agent or a therapeutic agent.
82. The system according to claim 81 , wherein the therapeutic agent comprises a hard tissue anesthetic, a soft tissue anesthetic, a fluoride, an aphthous ulcer medicament, a antiviral medicament, a halitosis agent, a salivary flow agent, Novamin™, an antibiotic or an antimicrobial agent.
83. The system according to claim 82, wherein the fluoride is a anti-caries agent, a tooth surface hardening chemical, a desensitizing agent, a remineralization agent or a antimicrobial agent.
84. The system according to claim 81 , wherein the therapeutic agent is a remineralization agent.
85. The system according to claim 94, wherein the remineralization agent is selected from a group consisting of Calcium phosphate, Recaldent and ACP.
86. The system according to claim 1 , wherein the active ingredient comprises a portion of a solution in quantities of .0001 % to about 90% by weight.
87. The system according to claim 1 , wherein the active ingredient comprises a portion of a solution in quantities of 0.001 % to about 70% by weight.
88. The system according to claim 1 , wherein the active ingredient comprises a portion of a solution in quantities of 0.005% to about 40% by weight.
89. The system according to claim 1 , wherein the active ingredient comprises a portion of a solution in quantities of 0.01 % to about 30% by weight.
90. The system according to claim 1 , further comprising a mechanism for providing air to the interior of the containment chamber, to the working end of the omni-sonic energy source tip, or to the contact surface.
91 . The system according to claim 1 , wherein the system is disposable.
92. The system according to claim 1 , wherein the containment chamber is disposable.
93. The system according to claim 1 , wherein the omni-sonic energy source tip is disposable.
94. The system according to claim 1 , wherein the working end of the omni- sonic energy source tip is disposable.
95. The system according to claim 1 wherein the system is autoclavable.
96. The system according to claim 1 , wherein the containment chamber is autoclavable.
97. The system according to claim 1 , wherein the omni-sonic energy source tip is autoclavable.
98. The system according to claim 1 , wherein the working end of the omni- sonic energy source tip is autoclavable.
99. The system according to claim 1 , further comprising a heating mechanism for the containment chamber, for the active ingredient, for the omin-sonic energy source tip, or for the working end of the omni-sonic energy source tip.
100. A method of enhancing a contact surface comprising : applying an active ingredient; containing and directing the active ingredient to an area of the contact surface; creating omni-sonic waves, in the active ingredient, having an omni- sonic frequency and an amplitude.
101 . The method according to claim 100, wherein a type of contact surface is a human tooth, human gums, human cheek skin or human bone.
102. The method according to claim 100, further comprising varying the omni-sonic frequency, the amplitude or both.
103. The method according to claim 100, further comprising providing an omni-sonic energy source and an omni-sonic energy source tip to create the omni- sonic waves.
104. The method of according to claim 103, further comprising selecting the omni-sonic energy source having properties compatible with omni-sonic wave creation and with chemistry of the active ingredient.
105. The method according to claim 103, further comprising providing power to the omni-sonic energy source.
106. The method according to claim 105, wherein the power is electrical power or mechanical power.
107. The method according to claim 106, further comprising providing a power source to provide electrical power to the omni-sonic source.
108. The method according to claim 107, further comprising selecting a power source selected from a group consisting of a battery and a plug-in type to an electrical outlet.
109. The method according to claim 105, further comprising varying the power provided to the omni-sonic energy source.
1 10. The method according to claim 103, further comprising impregnating a working end of the omni-sonic energy source tip with the active ingredient.
1 1 1 . The method according to claim 110, wherein the working end of the omni-sonic energy source tip is selected from a group consisting of bristle fibers, a surface with perforations, a surface onto which a sticker can be applied, or an uneven surface.
1 12. The method according to claim 1 10, further comprising selecting a material softer than a human tooth and attaching said material to the working end of the omni-sonic energy source tip.
1 13. The method according to claim 1 10, further comprising imparting omni- sonic energy from the working end of the omni-sonic energy source tip directly to the contact surface.
1 14. The method according to claim 103, further comprising selecting an omni-sonic energy source from a group consisting of a piezoelectric device or magnetostrictive device.
1 15. The method according to claim 100, further comprising selecting the active ingredient from one or more of a cleaning agent, a whitening agent or a therapeutic agent.
1 16. The method according to claim 100, further comprising dispensing the active ingredient using a device that controls the application amount, application location or both.
1 17. The method according to claim 100, further comprising applying an effective amount of the active ingredient based on the contact surface to be enhanced.
1 18. The method according to claim 100, further comprising selecting the active ingredient from a group consisting of amylase enzyme, bleach catalyst and mixtures thereof.
1 19. The method according to claim 100, further comprising rinsing the contact surfaces to be enhanced with an aqueous solution.
120. The method according to claim 100, further comprising increasing penetration of the active ingredient into the contact surface.
121 . The method according to claim 100, wherein the active ingredient is a portion of a solution, which portion is from about 0.0001 % to about 100% by weight.
122. The method according to claim 100, further comprising selecting the active ingredient, comprising a cleaning agent, from a group consisting of builders, surfactants, enzymes, bleach activators, bleach boosters, bleaches, peroxides, alkalinity sources, antibacterial agent, anti-microbial agents, antioxidants, electrolytes, pH modifiers, thickeners, abrasives, enzyme stabilizers, solvents, humectants, and foamers.
123. The method according to claim 100, further comprising selecting the active ingredient, comprising a therapeutic agent, selected from a group consisting of fluorides, antimicrobials, anti-tartar agents, varnishes, anti-sensitivity products, anticaries agents, halitosis agents, periodontal disease agents, antibiotics, antiviral agents, dry mouth agents, anesthetics, aphthous ulcer medicaments, and wart medicaments.
124. The method according to claim 100, further comprising selecting the active ingredient comprising dental medicaments.
125. The method according to claim 100, further comprising increasing a rate of enhancing the contact surface.
126. The method according to claim 100, further comprising using a containment chamber to contain and direct at least a portion of the active ingredient to remain contact with the contact surface.
127. The method according to claim 126, wherein the containment chamber comprises a contact end, an opening at the contact end, a connecting end opposing the contact end and walls connected to the connecting end and forming the opening at the contact end.
128. The method according to claim 126, further comprising selecting a size of the opening of the containment chamber based on whether the contact end of the containment chamber is submerged into the active ingredient or is contacting a surface of the active ingredient.
129. The method according to claim 126, further comprising enclosing at least a portion of an omni-sonic energy source tip within the containment chamber.
130. The method according to claim 126, further comprising creating a tent, bubble, cup, or other sealed or non-sealed environment with the containment chamber.
131 . The method according to claim 126, further comprising trapping, recycling and directing the active ingredient within the containment chamber.
132. The method according to claim 126, further comprising containing and directing omni-sonic waves to the active ingredient.
133. The method according to claim 126, further comprising using the containment chamber to contain and direct omni-sonic waves and the active ingredient.
134. The method according to claim 126, further comprising moving the omni-sonic waves and active ingredient across the hard surface, the soft surface or both.
135. The method according to claim 126, further comprising maintaining contact between the containment chamber and the hard surface, soft surface or both.
136. The method according to claim 126, further comprising moving the containment chamber across the contact surface.
137. The method according to claim 100, further comprising adding heat to the active ingredient.
138. A process for removing stains on a contact surface comprising: selecting a stained portion of the contact surface; applying an effective amount of an active ingredient to the stained portion of the contact surface; containing and directing the active ingredient and a working end of an omni-sonic energy source tip to said stained portion of the contact surface; and activating the working end of the omni-sonic energy source tip imparting omni-sonic waves to the active ingredient.
139. The process according to claim 138, further comprising including activators or chemicals that will interact with the active ingredient to increase stain removal.
140. The process according to claim 138, further comprising including activators or chemicals that will interact with the omni-sonic waves to increase stain removal.
141 . The process according to claim 138, further comprising rinsing the contact surface with an aqueous solution.
142. A process for delivery of therapeutic agents comprising: selecting a portion of a oral surface for delivery of therapeutic agents; applying an effective amount of therapeutic agent to the selected portion of the oral surface; containing and directing the active ingredient and omni-sonic waves to said portion of the oral surface; and activating the working end of the omni-sonic energy source tip imparting omni-sonic waves to the active ingredient.
143. The process according to claim 142, further comprising selecting the oral surface from a group consisting of teeth, gums, lips, bone, periodontal ligaments or teeth sulci.
144. The process according to claim 142, further comprising including activators or chemicals that will interact with the therapeutic agent to its increase effectiveness.
145. The process according to claim 142, further comprising rinsing the contact surface with an aqueous solution.
146. A containment chamber attachment comprising: an opening at a contact end; a connecting end opposing the contact end, said connecting end including a passage to permit a working end of an omni-sonic energy source tip be placed into the containment chamber; and walls defining the opening at the contact end and connected to the connecting end.
147. The containment chamber attachment according to claim 146, wherein the walls are cylindrically shaped.
148. The containment chamber attachment according to claim 146, wherein the walls are tapered with a portion of the side walls at the contact end being wider than a portion of the side walls at the connecting end.
149. The containment chamber attachment according to claim 146, wherein the walls consist of three walls.
150. The containment chamber attachment according to claim 146, wherein the walls consist of four walls.
151 . The containment chamber attachment according to claim 146, further comprising two parts, a first part that includes a first portion of the connecting end, a first portion of the walls physically connected to the first portion of the connecting end and a first portion of the contact end comprising a first portion of an edge defining the opening, a second part that includes a second portion of the connecting end, a second portion of the walls physically connected to the second portion of the connecting end and a second portion of the contact end comprising a second portion of the edge defining the opening, and a joining mechanism to connect the first part and the second part.
152. The containment chamber attachment according to claim 151 , wherein the joining mechanism is a snap mechanism or latch mechanism.
153. The containment chamber attachment according to claim 146, further comprising: a molded slot in the opening at the contact end; and a seal shaped to tightly fit the molded slot.
154. The containment chamber attachment according to claim 153, wherein the seal provides an interface between the contact end and a contact surface.
155. The containment chamber attachment according to claim 146, wherein the connecting end is configured for attachment to an omni-sonic energy source tip, an omni-sonic energy source or a handle for the omni-sonic energy source.
156. The containment chamber attachment according to claim 155, further comprising: a working end of the omni-sonic energy source tip is located inside the containment chamber attachment and is located in a plane defined by the opening.
157. The containment chamber attachment according to claim 155, further comprising: a working end of the omni-sonic energy source tip is located inside the containment chamber attachment and is located at a distance from the plane defined by the opening of the containment chamber.
158. The containment chamber attachment according to claim 146, further comprising: at least one port, said at least one port configured for extraction of residue from inside the containment chamber attachment.
159. The containment chamber attachment according to claim 158, further comprising: a tube attached to the at least one port; and a device located on the tube to restrict or halt the extraction of residue.
160. The containment chamber attachment according to claim 159, further comprising a finger spring pinch switch located on the tube.
161 . The containment chamber attachment according to claim 146, further comprising: at least one port, said at least one port configured for delivery of an active ingredient into the containment chamber attachment.
162. The containment chamber attachment according to claim 146 further comprising: finger grip serrations on the walls near the connecting end.
163. The containment chamber attachment according to claim 146, further containing an O-ring, inserted at the connecting end and configured to accept and connect a handle to the connecting end.
164. The containment chamber attachment according to claim 146, further comprising: a gasket disk inserted into the connecting end, said gasket disk including at least one slit, to allow a working end of an omni-sonic energy source tip to be placed through the gasket disk and into the containment chamber attachment.
165. The containment chamber attachment according to claim 164, wherein the at least one slit is three slits radiating at equal distances from the center of the gasket disk.
166. A containment chamber attachment comprising: a top wall having a width and a length; two opposing side walls connected to at least a portion of the top side; a contact end connected to the top wall and the two side walls; an opening opposing the top wall; a connecting end opposing the contact end; and said connecting end including a passage to permit a working end of an omni-sonic energy source tip to be placed into the containment chamber attachment and an attachment to connect the containment chamber attachment to an omni-sonic dental apparatus.
167. The containment chamber attachment according to claim 166, further comprising a first port in the containment chamber either for delivery of an active ingredient or other solution into the containment chamber or for extraction of residue from the containment chamber.
168. The containment chamber attachment according to claim 167, further comprising a second port in the containment chamber either for importing an active ingredient or other solution into the containment chamber or for extraction of residue from the containment chamber.
169. A method of enhancing a contact surface comprising : applying an active ingredient to at least one area; containing and directing the active ingredient to an area of the contact surface; covering the at least one area with a film; creating omni-sonic waves, in the active ingredient, having an omni- sonic frequency and an amplitude.
170. The method according to claim 169, wherein the film is selected from a polymer film, a flexible metal foil, a wax film, a cotton paper film, a cellulose-based film.
Applications Claiming Priority (2)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| US17708009P | 2009-05-11 | 2009-05-11 | |
| US61/177,080 | 2009-05-11 |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| WO2010132496A1 true WO2010132496A1 (en) | 2010-11-18 |
Family
ID=43085304
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| PCT/US2010/034440 Ceased WO2010132496A1 (en) | 2009-05-11 | 2010-05-11 | System, method, process and product for cleaning, whitening and therapeutic surface enhancement, using sonic or ultrasonic waves or acoustic streams |
Country Status (1)
| Country | Link |
|---|---|
| WO (1) | WO2010132496A1 (en) |
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2013151585A1 (en) * | 2012-04-05 | 2013-10-10 | American Eagle Instruments, Inc. | Photon induced acoustic streaming device and method |
| EP2658474A4 (en) * | 2010-12-30 | 2014-10-22 | Dentovations Inc | METHOD AND DEVICE FOR THE WHITENING OF TEETH BY MEANS OF SONOCHIMY |
| WO2017202943A1 (en) * | 2016-05-24 | 2017-11-30 | Credentis Ag | Method and product for caries treatment |
| WO2022098330A3 (en) * | 2020-11-06 | 2022-07-07 | T.C. Ankara Universitesi Rektorlugu | A device for cleaning tartar by means of sound wave |
Citations (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US5378150A (en) * | 1992-06-18 | 1995-01-03 | Harrel; Stephen K. | Methods and apparatus for controlling the aerosol envelope generated by ultrasonic devices |
| US5395240A (en) * | 1993-09-14 | 1995-03-07 | Dentsply Research & Development Corp. | Sterilizable dental medical handpiece containing electric coil |
| US6315565B1 (en) * | 1996-09-27 | 2001-11-13 | Dentsply Research & Development Corp. | Method and apparatus for tooth cleaning using abrasive powders |
| US20030003849A1 (en) * | 2001-07-02 | 2003-01-02 | Groman Barry Boaz | Micro-abrasive blasting device and method for advanced flow-control |
| US20050036956A1 (en) * | 2003-08-15 | 2005-02-17 | Lin Fei | Non-aqueous liquid tooth whitening composition |
| US20050175960A1 (en) * | 2002-04-05 | 2005-08-11 | Hans-Dieter Wiek | Medical, handpiece in particular for dentistry, with an outlet for an abrasive flowing medium and splashguard for the outlet |
| US20060251704A1 (en) * | 2005-05-04 | 2006-11-09 | Lin Edward D | Methods and devices for efficacious treatment of aphthous ulcers |
| US7172420B2 (en) * | 2001-05-25 | 2007-02-06 | Ecole D'ingenieurs | Ultrasonic shaping instrument |
-
2010
- 2010-05-11 WO PCT/US2010/034440 patent/WO2010132496A1/en not_active Ceased
Patent Citations (8)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US5378150A (en) * | 1992-06-18 | 1995-01-03 | Harrel; Stephen K. | Methods and apparatus for controlling the aerosol envelope generated by ultrasonic devices |
| US5395240A (en) * | 1993-09-14 | 1995-03-07 | Dentsply Research & Development Corp. | Sterilizable dental medical handpiece containing electric coil |
| US6315565B1 (en) * | 1996-09-27 | 2001-11-13 | Dentsply Research & Development Corp. | Method and apparatus for tooth cleaning using abrasive powders |
| US7172420B2 (en) * | 2001-05-25 | 2007-02-06 | Ecole D'ingenieurs | Ultrasonic shaping instrument |
| US20030003849A1 (en) * | 2001-07-02 | 2003-01-02 | Groman Barry Boaz | Micro-abrasive blasting device and method for advanced flow-control |
| US20050175960A1 (en) * | 2002-04-05 | 2005-08-11 | Hans-Dieter Wiek | Medical, handpiece in particular for dentistry, with an outlet for an abrasive flowing medium and splashguard for the outlet |
| US20050036956A1 (en) * | 2003-08-15 | 2005-02-17 | Lin Fei | Non-aqueous liquid tooth whitening composition |
| US20060251704A1 (en) * | 2005-05-04 | 2006-11-09 | Lin Edward D | Methods and devices for efficacious treatment of aphthous ulcers |
Cited By (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| EP2658474A4 (en) * | 2010-12-30 | 2014-10-22 | Dentovations Inc | METHOD AND DEVICE FOR THE WHITENING OF TEETH BY MEANS OF SONOCHIMY |
| WO2013151585A1 (en) * | 2012-04-05 | 2013-10-10 | American Eagle Instruments, Inc. | Photon induced acoustic streaming device and method |
| US9931187B2 (en) | 2012-04-05 | 2018-04-03 | Brad HECKERMAN | Photon induced acoustic streaming device and method |
| WO2017202943A1 (en) * | 2016-05-24 | 2017-11-30 | Credentis Ag | Method and product for caries treatment |
| WO2022098330A3 (en) * | 2020-11-06 | 2022-07-07 | T.C. Ankara Universitesi Rektorlugu | A device for cleaning tartar by means of sound wave |
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