Abstract: An improvement to a utility (U) meter's (M) meter reading schema. The improvement includes a device (D) responsive to a native language with which a meter is programmed to convert communications to and from the meter from that native language into a neutral language. The neutral language is convertible by other meters programmed with different native languages into the native language of a particular meter for meters programmed with different native languages can communicate with each other. This allows facilities within a localized area of a utility's power grid (G) to form into a micro-grid (MG) in which meters programmed with the same or different native languages can communicate with each other without having communications between them routed through a central location of the utility.

Abstract: An improvement to a utility (U) meter's (M) meter reading schema. The improvement includes a device (D) responsive to a native language with which a meter is programmed to convert communications to and from the meter from that native language into a neutral language. The neutral language is convertible by other meters programmed with different native languages into the native language of a particular meter for meters programmed with different native languages can communicate with each other. This allows facilities within a localized area of a utility's power grid (G) to form into a micro-grid (MG) in which meters programmed with the same or different native languages can communicate with each other without having communications between them routed through a central location of the utility.

Abstract: Disclosed are a method, system, and apparatus of dynamic incident action plan generation and real-time improvement using Artificial Intelligence responsive to ambient sensory data including that captured through trusted radio-frequency communications. According to one embodiment, the method includes . . .

Abstract: Disclosed are a method, system, and apparatus of response plan modification through artificial intelligence applied to ambient data communicated to an incident commander. According to one embodiment, the method includes analyzing a description of a fire in progress, automatically generating an incident action plan through an Incident Action Artificial-Intelligence Model (“IAAIM”) based on the description of the fire in progress, and modifying the incident action plan based on a trusted radio communication to an incident commander.

Abstract: An improvement to a utility (U) meter's (M) meter reading schema. The improvement includes a device (D) responsive to a native language with which a meter is programmed to convert communications to and from the meter from that native language into a neutral language. The neutral language is convertible by other meters programmed with different native languages into the native language of a particular meter for meters programmed with different native languages can communicate with each other. This allows facilities within a localized area of a utility's power grid (G) to form into a micro-grid (MG) in which meters programmed with the same or different native languages can communicate with each other without having communications between them routed through a central location of the utility.

Abstract: An improvement to a utility (U) meter's (M) meter reading schema. The improvement includes a device (D) responsive to a native language with which a meter is programmed to convert communications to and from the meter from that native language into a neutral language. The neutral language is convertible by other meters programmed with different native languages into the native language of a particular meter for meters programmed with different native languages can communicate with each other. This allows facilities within a localized area of a utility's power grid (G) to form into a micro-grid (MG) in which meters programmed with the same or different native languages can communicate with each other without having communications between them routed through a central location of the utility.

Abstract: An improvement to a utility (U) meter's (M) meter reading schema. The improvement includes a device (D) responsive to a native language with which a meter is programmed to convert communications to and from the meter from that native language into a neutral language. The neutral language is convertible by other meters programmed with different native languages into the native language of a particular meter for meters programmed with different native languages can communicate with each other. This allows facilities within a localized area of a utility's power grid (G) to form into a micro-grid (MG) in which meters programmed with the same or different native languages can communicate with each other without having communications between them routed through a central location of the utility.

Abstract: A system comprising a twisted-wire connection providing data and power signals to devices, the devices comprising power storage to be utilized later for intermittent operation. Device operation may require a higher wattage than is specified for the power signal delivered via the twisted-wire connection. A human-machine interface may provide user input to further control of the device.

Abstract: An improvement to a utility (U) meter's (M) meter reading schema. The improvement includes a device (D) responsive to a native language with which a meter is programmed to convert communications to and from the meter from that native language into a neutral language. The neutral language is convertible by other meters programmed with different native languages into the native language of a particular meter for meters programmed with different native languages can communicate with each other. This allows facilities within a localized area of a utility's power grid (G) to form into a micro-grid (MG) in which meters programmed with the same or different native languages can communicate with each other without having communications between them routed through a central location of the utility.

Abstract: In one aspect, the present invention provides control for a distributed lighting network, for selectively reducing an aggregate electrical load of the distributed lighting network according to a defined lighting reduction pattern. Among the several advantages of the provided control is the ability to define via the pattern which lamps are involved in load shedding, and how they are controlled to shed load. In another aspect, the present invention provides control for a distributed lighting network, for visibly signaling persons within sight of one or more lamps within the distributed lighting network. Among the several advantages of the provided control is the ability to provide emergency or other public safety signaling to persons that might not otherwise be alerted to an existing or impending danger.

Abstract: In one aspect, the present invention provides control for a distributed lighting network, for selectively reducing an aggregate electrical load of the distributed lighting network according to a defined lighting reduction pattern. Among the several advantages of the provided control is the ability to define via the pattern which lamps are involved in load shedding, and how they are controlled to shed load. In another aspect, the present invention provides control for a distributed lighting network, for visibly signaling persons within sight of one or more lamps within the distributed lighting network. Among the several advantages of the provided control is the ability to provide emergency or other public safety signaling to persons that might not otherwise be alerted to an existing or impending danger.

Abstract: An article of footwear has an upper and a sole. The sole has an upper sole member, a lower sole member, and at least one inflatable bladder disposed between the upper sole member and the lower sole member. The at least one inflatable bladder has an inflated state and a deflated state. A distance between the upper sole member and the lower sole member is greater in the inflated state than the deflated state. Varying the inflation of the inflatable bladder varies the amount of cushioning in the sole and the thickness of the sole so that the shoe can serve as a multipurpose shoe for activities requiring different amounts of cushioning, such as a training shoe and a racing flat.

Abstract: An article of footwear including a sole and an upper with an exterior and interior surface, and one or more bladders which comprises at least one of the exterior or interior surfaces of the upper. The article of footwear also includes a inflation mechanism located under the foot of the wearer to be activated by the normal action of the wearer to inflate the one or more bladders. The inflation mechanism may be monolithic with the bladder or may be a satellite inflation mechanism coupled to the bladder. The article of footwear may also include a deflation mechanism. The deflation mechanism may include a release valve capable of remaining in a open position and/or an adjustable check valve. The deflation mechanism may also be a combination check valve and release valve accessing a single opening in the bladder.

Abstract: The invention is a support and cushioning system for an article of footwear. The system includes a resilient insert disposed within the sole of the shoe including several fluidly interconnected chambers. The chambers include first chambers disposed in the forefoot area of the sole and second chambers disposed in the heel portion of the sole. In one embodiment, the resilient insert is air inflatable using an on-board inflation mechanism disposed in the sole, wherein the resilient insert remains generally rigid when not inflated.

Abstract: A shoe includes a sole for cushioning a heelstrike. The sole includes a midsole, an optional outsole, and a resilient cushioning device. The resilient cushioning device includes a bottom component, a top component sealingly attached to the bottom component, wherein the top component includes a corrugated sidewall. The resilient cushioning device is a closed system that contains a fluid, such as a gas either at atmospheric pressure or pressurized. The resilient cushioning device may have only one interior compartment or a series of compartments fluidly connected to one another. The resilient cushioning device is partially embedded within the midsole in a heel region of the sole, although at least a portion of the sidewall of the resilient cushioning device remains visible from the exterior of a shoe sole.

Abstract: An article of footwear including a sole and an upper with an exterior and interior surface, and one or more bladders which comprises at least one of the exterior or interior surfaces of the upper. The article of footwear also includes a inflation mechanism located under the foot of the wearer to be activated by the normal action of the wearer to inflate the one or more bladders. The inflation mechanism may be monolithic with the bladder or may be a satellite inflation mechanism coupled to the bladder. The article of footwear may also include a deflation mechanism. The deflation mechanism may include a release valve capable of remaining in a open position and/or an adjustable check valve. The deflation mechanism may also be a combination check valve and release valve accessing a single opening in the bladder.

Abstract: An article of footwear including a sole and an upper with an exterior and interior surface, and one or more bladders which comprises at least one of the exterior or interior surfaces of the upper. The article of footwear also includes a inflation mechanism located under the foot of the wearer to be activated by the normal action of the wearer to inflate the one or more bladders. The inflation mechanism may be monolithic with the bladder or may be a satellite inflation mechanism coupled to the bladder. The article of footwear may also include a deflation mechanism. The deflation mechanism may include a release valve capable of remaining in a open position and/or an adjustable check valve. The deflation mechanism may also be a combination check valve and release valve accessing a single opening in the bladder.

Abstract: A shoe includes a sole for cushioning a heelstrike. The sole includes a midsole, an optional outsole, and a resilient cushioning device. The resilient cushioning device includes a bottom component, a top component sealingly attached to the bottom component, wherein the top component includes a corrugated sidewall. The resilient cushioning device is a closed system that contains a fluid, such as a gas either at atmospheric pressure or pressurized. The resilient cushioning device may have only one interior compartment or a series of compartments fluidly connected to one another. The resilient cushioning device is partially embedded within the midsole in a heel region of the sole, although at least a portion of the sidewall of the resilient cushioning device remains visible from the exterior of a shoe sole.

Abstract: An article of footwear including a sole and an upper with an exterior and interior surface, and one or more bladders which comprises at least one of the exterior or interior surfaces of the upper. The article of footwear also includes a inflation mechanism located under the foot of the wearer to be activated by the normal action of the wearer to inflate the one or more bladders. The inflation mechanism may be monolithic with the bladder or may be a satellite inflation mechanism coupled to the bladder. The article of footwear may also include a deflation mechanism. The deflation mechanism may include a release valve capable of remaining in a open position and/or an adjustable check valve. The deflation mechanism may also be a combination check valve and release valve accessing a single opening in the bladder.

Abstract: The present invention relates to a shoe sole having a resilient insert which provides fluidic cushioning and support to the foot of the wearer. The resilient insert has a heel chamber, a forefoot chamber and a passageway, which fluidly connects the heel chamber to the forefoot chamber. As the wearer walks or run and applies impact forces to the shoe sole, fluid within the resilient insert flows back and forth between the heel chamber and the forefoot chamber to provide continuous cushioning and support to the heel and fore portion of the wearer's foot. The resilient insert and components of the sole are specifically constructed and assembled to avoid friction and turbulence therein, which can result in the production of audible and undesirable noises within the interior of the shoe sole.