Abstract: A polarized LED filter. The polarized LED filter comprises one or more components which are designed to attract and conglomerate particulates, allowing sub-micron sized contaminants to be easily captured. The polarizing effect delivers high-efficiency filtration with low static pressure. The combination of LED disinfecting arrays and anti-microbial coatings offer surface disinfection which reduces microbial growth, biological blow-off, airborne odors and VOCs while allowing for safer handling and servicing of the HVAC system and filter.

Abstract: A system may include a chute, a plurality of hoppers, a bun-advancing system, a blade, and a bun-stopper system. The plurality of hoppers are attached to the chute and include outlets in communication with a channel of the chute. The bun-advancing system is configured to move a food product from one of the hoppers to the channel of the chute. The blade may be disposed in the channel and may be configured to reciprocate relative to the chute. The bun-stopper system may include an actuator and a stopper. The stopper may be disposed vertically above the blade. The actuator may be configured to move the stopper between an extended position where the stopper extends into the channel to prevent the food product from contacting the blade and a retracted position where the stopper is retracted from the channel to allow the food product to move into contact with the blade.

Abstract: A UV LED ice disinfecting device. The UV LED ice device is designed to disinfect or sterilize ice, particularly ice made and dispensed from an ice making machine.

Abstract: A polarized LED filter. The polarized LED filter comprises one or more components which are designed to attract and conglomerate particulates, allowing sub-micron sized contaminants to be easily captured. The polarizing effect delivers high-efficiency filtration with low static pressure. The combination of LED disinfecting arrays and anti-microbial coatings offer surface disinfection which reduces microbial growth, biological blow-off, airborne odors and VOCs while allowing for safer handling and servicing of the HVAC system and filter.

Abstract: A shock absorber, for use with headgear having a faceguard, has a sliding member that does not extend beyond the support structure of the shock absorber in a way that would leave it vulnerable to damage. A headgear having a faceguard provides a protected mounting location for mounting a shock absorber for the faceguard.

Abstract: A shock absorber, for use with headgear having a faceguard, has a sliding member that does not extend beyond the support structure of the shock absorber in a way that would leave it vulnerable to damage. A headgear having a faceguard provides a protected mounting location for mounting a shock absorber for the faceguard.

Abstract: A system includes a hopper, a permeable seal, a gas supply, and a receiver. The hopper includes an elongated housing holding a row of food products. The elongated housing defines a pressurized end opposite a discharge end through which the food products are dispensed. The permeable seal is interposed between an interior wall of the hopper and a surface of the piston. The permeable seal cooperates with the hopper and the piston to define a closed volume between the piston and the pressurized end. The permeable seal is configured to bleed gas from the closed volume toward the discharge end. The gas supply selectively supplies gas into the closed volume to displace the piston toward the discharge end. The receiver receives food products dispensed from the elongated housing and is positioned to allow the food products to move along at least partially by gravity.

Abstract: One variation of a system for buttering and toasting bread buns includes: a butter stage including: a vessel containing liquefied dairy fat and defining a permeable surface, a pressure supply fluidly coupled to the vessel, and a first paddle assembly configured to catch a bun crown dispensed into the butter stage, to compress a sliced face of the bun crown directly against the permeable surface, and to release the bun crown from the butter stage; and a toast stage including a toasting surface arranged vertically below the permeable surface, a heating element arranged behind the toasting surface, and a second paddle assembly arranged vertically below the first paddle assembly and configured to catch the bun crown released from the first paddle assembly, to compress the sliced face of the bun crown directly against the toasting surface, and to release the bun crown from the toasting surface.

Abstract: One variation of a method for slicing a type of whole bread buns includes: retracting a cutting block along a chute into a load position; dispensing a whole bread bun into the chute between the cutting block and a blade extending across the chute; advancing the cutting block along the chute toward the blade; detecting contact between the cutting block and the blade at a contact position; at a first time, advancing the cutting block into a pierce position offset from the contact position toward the blade by a pierce distance less than a common width of the type of whole bread buns; and, at a second time succeeding the first time by a pierce duration, advancing the cutting block from the pierce position into a slice position adjacent the blade to drive the whole bread bun fully through the blade.

Abstract: A shock absorber, for use with headgear having a faceguard, has a sliding member that does not extend beyond the support structure of the shock absorber in a way that would leave it vulnerable to damage. A headgear having a faceguard provides a protected mounting location for mounting a shock absorber for the faceguard.

Abstract: A lighting device or system is configured to control of one or more parameters of light output, such as ON/OFF status, intensity when ON, color characteristics and position or orientation of light output (e.g. via a motorized luminaire control). The device or system may have other output capability, e.g. display projection or audio. Sensors or other input devices are responsive to the user. Responsive to user input, sensed activity, and/or acquired information, the device or system, controls a light source in accordance with a lighting control function. Operation of the light source and the lighting control function may be modified based on learning by the device or system.

Abstract: A shock absorber, for use with headgear having a faceguard, has a sliding member that does not extend beyond the support structure of the shock absorber in a way that would leave it vulnerable to damage. A headgear having a faceguard provides a protected mounting location for mounting a shock absorber for the faceguard.

Abstract: A lighting device or system is configured to control of one or more parameters of light output, such as ON/OFF status, intensity when ON, color characteristics and position or orientation of light output (e.g. via a motorized luminaire control). The device or system may have other output capability, e.g. display projection or audio. Sensors or other input devices are responsive to the user. Responsive to user input, sensed activity, and/or acquired information, the device or system, controls a light source in accordance with a lighting control function. Operation of the light source and the lighting control function may be modified based on learning by the device or system.

Abstract: A lighting device or system is configured to control of one or more parameters of light output, such as ON/OFF status, intensity when ON, color characteristics and position or orientation of light output (e.g. via a motorized luminaire control). The device or system may have other output capability, e.g. display projection or audio. Sensors or other input devices are responsive to the user. Responsive to user input, sensed activity, and/or acquired information, the device or system, controls a light source in accordance with a lighting control function. Operation of the light source and the lighting control function may be modified based on learning by the device or system.

Abstract: An example of an intelligent lighting device or system is configured to control one or more parameters of light output, such as intensity, shape or distribution, color characteristics and position or orientation of light output (e.g. via a motorized luminaire control). The device or system may have other controllable output capability, e.g. display projection or audio. Sensors or other input devices are responsive to the user. Responsive to user input, the device or system, controls its light and any other output capabilities so as to present a defined persona to the user or other occupant(s) of a space illuminated by the intelligent lighting device or system.

Abstract: One variation of a method for slicing a type of whole bread buns includes: retracting a cutting block along a chute into a load position; dispensing a whole bread bun into the chute between the cutting block and a blade extending across the chute; advancing the cutting block along the chute toward the blade; detecting contact between the cutting block and the blade at a contact position; at a first time, advancing the cutting block into a pierce position offset from the contact position toward the blade by a pierce distance less than a common width of the type of whole bread buns; and, at a second time succeeding the first time by a pierce duration, advancing the cutting block from the pierce position into a slice position adjacent the blade to drive the whole bread bun fully through the blade.

Abstract: A shock absorber, for use with headgear having a faceguard, has a sliding member that does not extend beyond the support structure of the shock absorber in a way that would leave it vulnerable to damage. A headgear having a faceguard provides a protected mounting location for mounting a shock absorber for the faceguard.

Abstract: An example of an intelligent lighting device or system is configured to control one or more parameters of light output, such as intensity, shape or distribution, color characteristics and position or orientation of light output (e.g. via a motorized luminaire control). The device or system may have other controllable output capability, e.g. display projection or audio. Sensors or other input devices are responsive to the user. Responsive to user input, the device or system, controls its light and any other output capabilities so as to present a defined persona to the user or other occupant(s) of a space illuminated by the intelligent lighting device or system.

Abstract: A lighting device or system is configured to control of one or more parameters of light output, such as ON/OFF status, intensity when ON, color characteristics and position or orientation of light output (e.g. via a motorized luminaire control). The device or system may have other output capability, e.g. display projection or audio. Sensors or other input devices are responsive to the user. Responsive to user input, sensed activity, and/or acquired information, the device or system, controls a light source in accordance with a lighting control function. Operation of the light source and the lighting control function may be modified based on learning by the device or system.

Abstract: A shock absorber, for use with headgear having a faceguard, has a sliding member that does not extend beyond the support structure of the shock absorber in a way that would leave it vulnerable to damage. A headgear having a faceguard provides a protected mounting location for mounting a shock absorber for the faceguard.