with reference now to the drawings , the preferred embodiment of the method of periodontal treatment is herein described . it should be noted that the articles “ a ”, “ an ” and “ the ”, as used in this specification , include plural referents unless the content clearly dictates otherwise . with reference to fig1 , a healthy tooth 2 rests in a bony socket 4 in the jaw 6 . the entire area is covered by the gingiva 10 , or “ gums .” over time , if left without proper oral care , tartar 12 will build up against tooth 2 ( shown in fig2 ), causing the gums 10 to recede away from the tooth and exposing the root 3 of the tooth 2 in a condition called “ gingivitis .” fig3 illustrates a condition further deteriorated from gingivitis , or the so - called peridontitis . where periodontitis has occurred , the gums 10 have receded to the point of forming an open pocket 20 around the tooth 2 and its root system 3 . the pocket 20 is filled with inflamed tissue 22 and infectious matter 24 . if left untreated the tooth 2 and socket 4 may deteriorate , causing loss of the tooth 2 . treatment of the condition is shown in fig4 and 5 . the method harnesses the benefits of a radiant energy source that is of sufficient strength to ablate the cells and tissue that comprise the lining of the open pocket 20 and the inflamed tissue 22 . the process of ablation is coupled with flooding the pocket region with anti - microbial agents that are chemically lethal to a wide variety of pathogens . the combined effect of ablation by radiant energy and flooding with anti - microbial agents is intended to provide a “ wound ” to the epithelial lining through ablation of cells and tissue and , at the same time , to destroy a broad spectrum of pathogens , such that remaining pathogens can eventually be controlled by the normal functions of the immune system . the healing process of the wound creates a healthy tissue that reduces pocket size , thereby restoring the gum region to its pre - periodontitis state . the method warrants a radiant energy source with sufficient energy to become not only lethal to pathogens , but to destroy through ablation the cells and tissue that comprise the epithelial lining or the lining of the open pocket 20 and the inflamed tissue 22 . the radiant energy can be produced from sources such as a diode laser , examples of which are the gallium nitride , aluminum gallium arsenide diode laser and the like . the radiant energy can be produced from sources such as high intensity light from incandescent , halogen or plasma arc devices . the radiant energy can be produced from sources such as solid state lasers , examples of which are neodymium yag , titanium sapphire , thulium yag , ytterbium yag , ruby , holmium yag lasers and the like . the radiant energy can be produced from sources such as eb or electron beam devices . the radiant energy can be produced from sources such as gas lasers , examples of which include carbon dioxide gas , argon gas , xenon gas , nitrogen gas , helium - neon gas , carbon monoxide gas , and hydrogen fluoride gas lasers and the like . there are also many dye lasers that utilize a radiant energy source that pass through or are absorbed by various dyes or stains to achieve various incident energies or flux densities at specific wavelengths . dye lasers are also within the scope of this method . the method also warrants an anti - microbial substance that is capable of destroying pathogens . there are numerous substances with anti - microbial or anti - pathogenic activity . any substance that is capable of destroying or stemming the growth of a pathogen is within the scope of this method . a few possible examples of antimicrobial substances include : ethanol , isopropanol , methyl paraben , ethyl paraben , butyl paraben , propyl paraben , hydrogen peroxide , carbamide peroxide , eugenol , sodium chlorite , chlorhexidine , chlorhexidine gluconate , sodium chlorite , thymol , cetyl pyridinium chloride , chloroxylenol , iodine , hexachlorophene , triclosan , quaternary ammonium compounds , sodium hypochlorite , calcium hypochlorite , or any like substance that is capable of destroying or limiting the reproduction of pathogens . many of these antimicrobial agents are a dry powder in their raw form and would benefit by being dissolved into a solvent . liquid antimicrobial agents are able to migrate easier into difficult areas , thus having an advantage over powders . a few examples of possible solvents include : water , propylene glycol , glycerin , polysorbates , liquid polyethylene glycols , ethanol or any solvent capable of dissolving or liquefying an antimicrobial substance . optionally , the antimicrobial agent can contain additional components that would improve patient comfort such as a flavor , sweetener or anesthetic . a few possible substances that would aid in patient comfort include : sodium saccharin , phenylalanine , benzocaine , lidocaine , dyclonine hydrochloride , peppermint oil , spearmint oil , methyl salicylate and any like substance . numerous formulas are capable of being produced during the practice of this method . compositions may be made in any combination according to the following table a , dependant upon the desired agents used and overall effect . table a percentage by rinse component total weight function antimicrobial agent 0 . 01 %- 100 % kill bacteria solvent 0 %- 99 . 99 % allows the rinse to be a fluid that will easily flow into a periodontal pocket . flavoring 0 %- 5 % make the rinse palatable . anesthetic 0 %- 30 % reduce patient discomfort . the above example formulas are sufficiently adequate over one or multiple applications to destroy or limit the growth of pathogens in the oral environment . a typical procedure of events during a routine periodontal treatment regime would be to first identify areas of greatest infection . these areas would be selected for greatest exposure to radiant energy . referring to fig4 , the radiant energy source would be focused into these infected pockets by means of a thin fiber optic guide 40 , the fiber optic guide being small enough to be directed between the teeth and gums . the periodontal pocket 20 is then radiated with radiant energy while the optical fiber 40 is moved in increments around the gums 10 . as illustrated in fig5 , once the treatment of the gums by radiant energy is complete , the periodontal pocket 20 is flushed with an antimicrobial fluid 46 by means of a small tip 42 attached to a syringe 44 . the treatment regime may include multiple treatments , the number of which depends on the degree of infection present . the treatment regime usually continues until the pocket 20 has filled in substantially from its state of periodontitis . following the filling in of the pocket 20 , a regime of sulcular disinfection may be continued until swelling and redness of infected gums is no longer apparent and only pink healthy gums persist . the treatment regime can also begin by flushing the periodontal pockets with antimicrobial agents , followed by radiating with radiant energy . this would allow any additional anisthetic contained in the antimicrobial agent to anesthetize the working area prior to receiving radiant energy , and may prove particularly helpful and beneficial where substantial or repetitive ablation occurs during the process of laser curettage . in yet a further embodiment of the present invention , a 1 % chlorhexidine gluconate irrigation solution is used in conjunction with an 810 nm diode laser . the solution may contain a mild anesthetic and , if desired , be flavored . the solution is delivered using a syringe having a capacity of about 1 cc , although larger or smaller syringes may be used . the above described irrigation solution is designed for irrigation into the periodontal pockets prior to their being irradiated with the 810 nm laser light . the synergistic application of this broad - spectrum anti - microbial solution in conjunction with 810 nm laser light provides an excellent treatment in the control of early - stage periodontal disease — e . g ., the gingivitis stage . indeed , independent research by the inventors indicates that when treatment of early - stage periodontal disease using the combined irrigation solution and 810 nm laser is performed , the combination provides an increase in the kill rate of an isolated strain of bacterium — e . g ., streptococcus mutans — by 11 % over chlorhexidine solution alone . in a yet further embodiment of the present invention — referred to herein as laser curettage — the following steps are performed leading to successful treatment of early - stage periodontal disease . first , the pocket depths are established using a periodontal probe . the pockets are then flooded throughout the entire pocket arch using the irrigation solution above described . excess solution is then removed using a typical dental suction apparatus . the pockets are then irradiated with an 810 nm diode laser apparatus having a power output set from between about 1 . 0 to about 5 . 0 watts or , more preferably , from between about 2 . 0 to about 4 . 0 watts . referring now to fig6 , in one embodiment , the laser apparatus 100 includes a fiber optic cable 101 surrounded by a cladding layer 102 . a length 104 of the cladding layer 102 about 1 - 2 mm greater than the measured pocket depth is then stripped and cleaved from the fiber of the laser apparatus 100 to form a bare fiber optic portion 106 . the stripped and cleaved portion 106 of the fiber 101 is then inserted into the periodontal pocket , where the bare fiber optic portion 106 lightly contacts the sulcus lining just inside the crest of the gingiva 108 while resting against a tooth 110 . using very light pressure , the lasing commences using short paint brush - like strokes around the circumference of the tooth with the laser energy being directed at infected or inflamed tissue 115 with sufficient intensity to ablate the infected or inflamed tissue . this process will create a small trough between the tooth and gingiva . the suction apparatus or sterile cotton gauze or the like is then used to remove or extricate tissue from the treatment area or tissue that attaches to the fiber . the treatment is repeated over the entire arch . upon completion , the pockets of entire arch are again flooded with the irrigation solution . the treatment may be repeated on a monthly basis until recovery is complete . in a yet further embodiment , patients with advanced periodontal disease are treated with an interim sulcular disinfection treatment , one embodiment of which is described below , which is performed intermittently between periodic treatments using the laser curettage routine . in an even further embodiment of the present invention — referred to herein as sulcular disinfection — the following steps are performed leading to successful treatment of early - stage periodontal disease . in a further embodiment , the same or similar steps may be performed intermittently with or following treatment by laser curettage . first , the pocket depths are established using a periodontal probe . the pockets are then flooded throughout the entire pocket arch using the irrigation solution above described . the pockets are then irradiated with an 810 nm laser apparatus having a power output set from between about 0 . 1 to about 0 . 5 watts or , more preferably , from between about 0 . 2 to about 0 . 4 watts . referring now to fig7 , in one embodiment , the laser apparatus 200 includes a fiber optic cable 201 surrounded by a cladding layer 202 . a length 204 of the cladding layer 202 approximately equal to the measured pocket depth is then stripped and cleaved from the fiber optic cable 201 of the laser apparatus 200 to form a bare fiber optic portion 206 . the stripped and cleaved portion of the fiber is then inserted into the periodontal pocket , where the bare fiber optic portion 206 lightly contacts the sulcus lining just inside the crest of the gingiva 208 while resting against the tooth 210 . using very light pressure , the lasing commences using short paint brush - like strokes around the circumference of the tooth , with the laser energy being directed at infected or inflamed tissue 215 with sufficient intensity to destroy pathogens . each tooth should receive an average of 15 seconds of laser treatment time . problematic areas may be lased for longer treatment times . areas of increased infection may be lased for 20 - 25 seconds per tooth . the treatment just described is repeated over the entire arch . upon completion , the pockets over the entire arch are flooded again with the irrigation solution . the treatment is preferably repeated on a bi - monthly to monthly regimen . if the patient overall shows little to no periodontal improvement within 3 - 4 scheduled treatments then the following additional embodiment of treatment should be performed . although the present invention has been described with reference to preferred embodiments , numerous modifications and variations can be made and still the result will come within the scope of the invention . no limitation with respect to the specific embodiments disclosed herein is intended or should be inferred .