BioSure North America LLC

The present invention relates to modular ozone-based disinfection systems that generate hydroxyl radicals from gaseous ozone and water vapor using a manganese dioxide treatment module. A sealed, replaceable water cartridge supplies water to an electrochemical ozone generator, producing gaseous ozone for introduction into an airflow path within a housing. An air circulation subsystem directs the ozone-containing airflow across the manganese dioxide treatment module, which catalytically generates hydroxyl radicals and reduces residual ozone to levels safe for human exposure. In some embodiments, a positive temperature coefficient (PTC) heating element preheats airflow to enhance radical production. A controller manages ozone generation, airflow, heating, and operational modes, and may track cartridge usage, transmit data, or enforce geofencing. The modular design supports various water sources, portable or fixed installation, and integration into refrigerated or enclosed spaces, providing safe, on-demand oxidizing treatment of air, surfaces, and water systems while ensuring compliance with exposure limits.

The present invention relates to a system and method for treating air and water in refrigerated spaces using ozone-based disinfection. The system includes an electrolytic ozone generator configured to produce gaseous ozone from water and an air circulation subsystem to create an oxidizing airflow within a housing. The airflow is directed across a titanium dioxide-coated surface to reduce ozone concentration before reentry into the refrigerated space. A controller manages disinfection and purification modes, enabling safe air treatment in environments such as ice machines, walk-in refrigerators, and consumer appliances. In some embodiments, aqueous ozone is also routed to ice makers or water dispensers for waterline disinfection. Optional features include manganese dioxide treatment modules for hydroxyl radical generation, automated door locking during disinfection, and ozone sensors for safety compliance. The invention enables programmable, sensor-driven, and safe disinfection cycles without requiring external ozone emission, supporting food safety and occupant protection.

The present invention relates to a system and method for treating air and water in refrigerated spaces using ozone-based disinfection. The system includes an electrolytic ozone generator configured to produce gaseous ozone from water and an air circulation subsystem to create an oxidizing airflow within a housing. The airflow is directed across a titanium dioxide-coated surface to reduce ozone concentration before reentry into the refrigerated space. A controller manages disinfection and purification modes, enabling safe air treatment in environments such as ice machines, walk-in refrigerators, and consumer appliances. In some embodiments, aqueous ozone is also routed to ice makers or water dispensers for waterline disinfection. Optional features include manganese dioxide treatment modules for hydroxyl radical generation, automated door locking during disinfection, and ozone sensors for safety compliance. The invention enables programmable, sensor-driven, and safe disinfection cycles without requiring external ozone emission, supporting food safety and occupant protection.

The present invention relates to modular ozone-based disinfection systems that generate hydroxyl radicals (·OH) from ozone and water vapor using a high-temperature catalyst module. The system includes a purification configuration with an air inlet, air circulation subsystem, airflow path, and air outlet, along with a water supply configuration feeding purified water to an electrolytic ozone generator. A catalyst module, such as a PTC heating element, heats ozone-containing air to a hydroxyl radical generation temperature, while a downstream hydroxyl augmentation and ozone reduction module converts residual ozone and conditions the airflow for safe discharge. Embodiments may include a replaceable water cartridge, resin tank, multiple water source options, humidity and purity sensors, and a safety interlock connected to a controller. The modular design supports portable, fixed, or refrigerated installations, enabling on-demand hydroxyl radical production with integrated control, safety, and discharge verification for advanced air and surface disinfection.

An immersion container for treating produce with an ozonated concentrate liquid is disclosed. The container is configured to hold produce up to a produce fill line and ozonated concentrate liquid up to an ozonated concentrate liquid fill line, ensuring full immersion of the produce. An adjustable egress port controls the drainage of the liquid at a time rate corresponding to a disinfection treatment time. A drying platform supports the produce during immersion, oxygenation, and drying processes. One or more produce agitation mechanisms are operationally related to either the drying platform or the container and are configured to enhance ozonated concentrate liquid interaction during immersion or dislodge any remaining liquid post-treatment. The ozonated concentrate liquid is generated from water via an electrochemical generator. The system may include a flow governor to regulate ozone production and concentration. A method of treating produce using the immersion container is also provided.

The present invention relates to a modular ozone-based disinfection system and method for treating air using configurable components tailored to specific applications. The system includes a purification configuration with an air circulation subsystem and an electrolytic ozone generator supplied by a tank configuration, which may comprise a fixed tank or a replaceable water cartridge. The generated ozone is mixed with airflow to create an oxidizing environment and is subsequently passed across a titanium dioxide-coated surface to reduce ozone levels before discharge. Optional modules include a dehumidifier configuration for extracting ambient moisture and a source water configuration for continuous supply. A controller manages system functions, including ozone generation, purification modes, and safety protocols. The method supports flexible operation, enabling safe, effective disinfection in occupied or confined spaces. The modular design allows for scalable deployment across diverse environments, including healthcare, food service, and public facilities.

The present invention relates to a hygienization generator system and method for producing customized disinfection solutions by combining aqueous ozone and alkaline water. The system includes an aqueous ozone generator with an ion exchange material and electrolysis unit, an alkaline water generator capable of producing water with adjustable pH levels, and a mixer to form a homogeneous solution. A control system dynamically adjusts ozone concentration and PH levels based on user inputs or preconfigured settings, with real-time feedback provided by integrated sensors. The system features a user interface for parameter selection, remote monitoring capabilities, and optional microfoaming technology to enhance solution efficacy. Applications include surface sanitization, produce washing, dental water line disinfection, and biofilm removal in industrial piping. The portable configuration supports on-site use with modular dispensing options. This invention overcomes prior shortcomings, offering precise, eco-friendly, and versatile disinfection solutions.

The present invention relates to modular ozone-based disinfection systems that generate hydroxyl radicals from gaseous ozone and water vapor using a manganese dioxide treatment module. A sealed, replaceable water cartridge supplies water to an electrochemical ozone generator, producing gaseous ozone for introduction into an airflow path within a housing. An air circulation subsystem directs the ozone-containing airflow across the manganese dioxide treatment module, which catalytically generates hydroxyl radicals and reduces residual ozone to levels safe for human exposure. In some embodiments, a positive temperature coefficient (PTC) heating element preheats airflow to enhance radical production. A controller manages ozone generation, airflow, heating, and operational modes, and may track cartridge usage, transmit data, or enforce geofencing. The modular design supports various water sources, portable or fixed installation, and integration into refrigerated or enclosed spaces, providing safe, on-demand oxidizing treatment of air, surfaces, and water systems while ensuring compliance with exposure limits.

The present invention relates to a modular ozone-based disinfection system and method for treating air using configurable components tailored to specific applications. The system includes a purification configuration with an air circulation subsystem and an electrolytic ozone generator supplied by a tank configuration, which may comprise a fixed tank or a replaceable water cartridge. The generated ozone is mixed with airflow to create an oxidizing environment and is subsequently passed across a titanium dioxide-coated surface to reduce ozone levels before discharge. Optional modules include a dehumidifier configuration for extracting ambient moisture and a source water configuration for continuous supply. A controller manages system functions, including ozone generation, purification modes, and safety protocols. The method supports flexible operation, enabling safe, effective disinfection in occupied or confined spaces. The modular design allows for scalable deployment across diverse environments, including healthcare, food service, and public facilities.

The present invention relates to a hygienization generator system and method for producing customized disinfection solutions by combining aqueous ozone and alkaline water. The system includes an aqueous ozone generator with an ion exchange material and electrolysis unit, an alkaline water generator capable of producing water with adjustable pH levels, and a mixer to form a homogeneous solution. A control system dynamically adjusts ozone concentration and PH levels based on user inputs or preconfigured settings, with real-time feedback provided by integrated sensors. The system features a user interface for parameter selection, remote monitoring capabilities, and optional microfoaming technology to enhance solution efficacy. Applications include surface sanitization, produce washing, dental water line disinfection, and biofilm removal in industrial piping. The portable configuration supports on-site use with modular dispensing options. This invention overcomes prior shortcomings, offering precise, eco-friendly, and versatile disinfection solutions.