Kane Biotech Inc.

University of Medicine and Dentistry of New Jersey

Purushottam V Gawande

Srinivasa Madhyastha

Karen Lovetri

Nandadeva Yakandawala

Gord Froehlich

Jeffrey B Kaplan

Nanda Yakandawala

Daniel Rhoads

Lasha Gogokhia

Gordon Froehlich

Gordon Froelich

Gord Froelich

Compositions comprising one or more chelating agents and optionally zinc ion salts are used to inhibit the growth or biofilm formation in bacteria associated with personal care products such as ophthalmic, pedicure, manicure or podiatric solutions. The compositions of the present application can also comprise gelling agents, antimicrobials, antibiotic or a pH adjuster. The compositions may be in the form of a solution, a gel, a cream, a jelly, a powder, a paste, a lotion, soap and a cleaner.

Antimicrobial-antibiofilm compositions and methods of use thereof for personal care products

Compositions comprising iron-sequestering glycoproteins, chelating agents, stabilizing agents, binding agents, surfactants, fluorides, antimicrobials and a pH adjuster or buffer for the prevention and treatment of oral cavity diseases caused by dental plaque/biofilm, such as dental caries, gingivitis and periodontitis, through anti-infective properties are disclosed. The anti-infective properties of a composition include reduction or killing of anaerobic/aerobic/facultative gram-negative and gram-positive oral bacteria occurring in polymicrobial dental biofilms. The composition may be in the form of wash, rinse, soak, paste, gel, spray, or other suitable form. Additionally, the invention offers an efficient method of delivering the formulated composition containing a PEGylated or fluorinated iron-sequestering glycoprotein and one or two chelating agents or chelating agents alone using either a liposomal or a nanoparticle delivery system.

Compositions and methods for reducing oral biofilm

Compositions comprising chelating agents, metal ion salts, gelling agents or a buffer, antimicrobials, antibiofilm agents and a pH adjuster or a buffer for the prevention and treatment of wound infections and food-borne diseases involving bacterial biofilms are disclosed. The anti-infective properties of a composition include reduction or killing of anaerobic/aerobic/facultative gram-negative and gram-positive wound infection associated bacteria occurring in polymicrobial biofilms. The composition may be in the form of lotion, cream, ointment, dressing, bandage, rinse, soak, gel, spray, or other suitable forms, including certain devices. Additionally, the invention offers an efficient method of delivering the formulated composition containing one or two chelating agents or chelating agents alone or in combination with a metal ion salt using either a nanoparticle or other efficient delivery systems.

Antimicrobial-antibiofilm compositions and methods of use thereof

The present invention provides novel compositions comprising: (a) a metaperiodate and (b) chlorhexidine or a chlorohexidine salt and uses thereof for the preparation of devices, and in particular medical devices, susceptible to colonization by biofilm forming bacteria.

Biofilm-removing antimicrobial compositions and uses thereof

The present invention provides compositions comprising an antibiofilm enzyme, a soluble &#x3b2;-N-acetylglucosaminidase similar to the dspB gene (DispersinB&#xae;), and an antimicrobial for preventing growth and proliferation of biofilm-embedded microorganisms in acute and chronic wounds, and methods of treatment. The invention further provides methods for preparing medical devices, and in particular, wound care devices using soluble &#x3b2;-N-acetylglucosaminidase based antimicrobial compositions.

Soluble &#x3b2;-N-acetylglucosaminidase based antibiofilm compositions and uses thereof

The present invention provides novel compositions comprising: (a) protamine sulfate and (b) benzalkonium chloride or a silver containing particle; or (a) sodium metaperiodate and (b) 5-fluorouracil or chlorhexidine and uses thereof for the preparation of devices, and in particular medical devices, susceptible to colonization by biofilm forming bacteria.

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Winnipeg, Canada

Purushottam V Gawande