Kenall Manufacturing Company

Nathan Daniel Heiking

James W Hawkins

Patrick J Marry

Kevin Dahlen

Filemon Salas

Keith H Dykstra

A lighting device configured to deactivate pathogens in an environment. The lighting device includes a housing, means for mounting the housing to a surface in the environment, one or more first light-emitting elements arranged in the housing and configured to each produce disinfecting light having a wavelength in a first range of wavelengths, and one or more second light-emitting elements arranged in the housing and configured to each produce disinfecting light having a wavelength in a second range of wavelengths different from the first range of wavelengths. The disinfecting light produced by the first light-emitting elements and the disinfecting light produced by the second light-emitting elements mix to form a combined light, the combined light being visible light other than white light.

Lighting device that deactivates dangerous pathogens while providing visually appealing light

A lighting device configured to deactivate dangerous pathogens (e.g., MRSA bacteria) in an environment. The lighting device includes at least one lighting element with a single light source configured to provide light. At least a first component of the light comprising light having a wavelength of about 405 nm, and at least a second component of the light comprising light having a wavelength of greater than 420 nm. The first component of light has a minimum integrated irradiance of 0.01 mW/cmmeasured from any unshielded point in the environment that is 1.5 m from any point on any external-most luminous surface of the lighting device.

Single-emitter lighting device that outputs a minimum amount of power to produce integrated radiance values sufficient for deactivating pathogens

A lighting device configured to deactivate dangerous microorganisms in an environment. The lighting device includes at least one lighting element with a single light source configured to provide disinfecting light. At least a first component of the light has a wavelength of about 405 nm, and at least a second component of the light has a wavelength of greater than 500 nm. The first component of light has a minimum integrated irradiance of 0.01 mW/cmmeasured from any unshielded point in the environment that is 1.5 m from any point on any external-most luminous surface of the lighting device.

A lighting device configured to deactivate pathogens in an environment. The lighting device includes at least one first light-emitting element configured to emit light having a wavelength of between 400 nm and 420 nm, wherein the light emitted by the at least one first light-emitting element is configured to deactivate the pathogens in the environment. The lighting device also includes at least one second light-emitting element configured to emit light having a wavelength of greater than 420 nm. A first combined light output of the light emitted by the at least one first and the at least one second light-emitting elements includes visible light that is perceived as white light. The white light has properties that make it visually appealing and unobjectionable.

Methods and lighting systems to deactivating deactivate MRSA bacteria in a volumetric space over a period of time. At least one lighting element of each of one or more lighting fixtures provide light. The light includes a first disinfecting light having a wavelength of about 405 nm and a minimum integrated irradiance of 0.01 mW/cm, and a second component having a wavelength of greater than 420 nm. The one or more lighting elements of the one or more lighting fixtures apply a determined total radiometric power to produce a desired power density measured at any exposed surface within the volumetric space during the period of time. The minimum power density includes a minimum integrated irradiance of the disinfecting light equal to 0.01 mW/cm.

A lighting device configured to deactivate MRSA bacteria in air in an environment, including a housing; a light-emitting diode (LED) configured to emit light having a wavelength of about 470 nm; a light converting phosphor coating; wherein a first component of the light emitted by the LED travels through the light converting phosphor coating without alteration, and a second component of light emitted by the LED is converted by the converting phosphor coating into light having a wavelength of greater than 500 nm; wherein the first component of the light has a minimum integrated irradiance of 0.01 mW/cm2; wherein the first component of the light emitted by the LED and the second component of light emitted by the LED mix to form a combined light, with the combined light being visible light; and means for directing the combined visible light to the air in the environment.

A lighting system configured to provide light and disinfect air in an environment. The lighting system includes an HVAC unit configured to provide air to the environment, and a lighting device configured to deactivate microorganisms in the air. The lighting device includes a housing, means for mounting the housing to a surface in the environment, one or more first light-emitting elements arranged in the housing and configured to each produce disinfecting light having a wavelength in a first range of wavelengths, and one or more second light-emitting elements arranged in the housing and configured to each produce disinfecting light having a wavelength in a second range of wavelengths different from the first range of wavelengths. The disinfecting light produced by the first light-emitting elements and the disinfecting light produced by the second light-emitting elements mix to form a combined light, the combined light being visible light other than white light.

A light panel for a luminaire includes a frame, a lamp assembly carried by the frame, a dissipater heat sink carried by the frame, and a heat transfer line that thermally couples the lamp assembly to the dissipater heat sink. The heat transfer line transfers heat generated by the lamp assembly, for example by a light element of the lamp assembly, to the dissipater heat sink by conduction. The dissipater heat sink is exposed to an exterior side of the frame such that heat from the lamp assembly is dissipated to the exterior side of the frame by conduction through the heat transfer line and the dissipater heat sink. The light panel may form a door for a housing of a luminaire, which may be easily retrofitted to the housing.

Light panel for a luminaire

A lighting device configured to deactivate dangerous pathogens (e.g., MRSA bacteria) in an environment. The lighting device includes at least one lighting element configured to provide light. At least a first component of the light comprising light having a wavelength of between 400 nm and 420 nm, and at least a second component of the light comprising light having a wavelength of greater than 420 nm. The first component of light has a minimum integrated irradiance of 0.05 mW/cmmeasured from any unshielded point in the environment that is 1.5 m from any point on any external-most luminous surface of the lighting device.

A ceiling light fixture for medical patient rooms and a method for the same. The fixture comprises a body which defines a middle region and two side regions along opposite sides of the middle region. A cover is movably attached to the body and includes a lens over at least the middle region. A graphics image is associated with the middle region and is substantially parallel to the lens. At least one graphics-light source is within the middle region and configured for illuminated display of the graphics image. At least one exam-light source is located within each of the two side regions.

Medical-patient-room ceiling light fixture

A ceiling-mounted troffer-type light fixture for illumination. The fixture comprises a body with a first flange having at least one hook-receiving opening and a second flange with a suspension-member-receiving opening. A cover includes a rectangular frame, at least one catch-arm and at least one suspension member. Frame fasteners along the frame engage the perimeter in a closed position. One-person attaching/closing and removal of the cover for maintenance is facilitated by the cover being supported in an open position, suspended position and fully engaged with the body in a closed position.

Growing community of inventors

Pleasant Prairie, WI, United States of America

Nathan Daniel Heiking