Abstract: Couplers and adapters for vapor mitigation implementation and systems for mitigating vapor are described herein. An example adapter includes a body defining a first section and a second section. The first section defines a first aperture that fluidically couples the first section with a first vapor mitigation conduit. The second section is in fluid communication with the first section and defines a second aperture that fluidically couples the second section with a second vapor mitigation conduit. At least a portion of the first section defines a circular cross-sectional shape, and at least a portion of the second section defines a rectangular cross-sectional shape. At least a portion of the second section defines a trapezoidal shape that evenly transitions a substantially rectangular airstream to substantially circular airstream.

Abstract: Couplers and adaptors (e.g., connectors) for vapor mitigation implementation and systems for mitigating vapor are described herein. A vapor mitigation system may include a first vapor mitigation conduit proximate a substrate, a second vapor mitigation conduit, and a connector, where the connector includes a body comprising a first portion and a second portion, a first aperture proximate the first portion for operatively coupling with the first vapor mitigation conduit, and a second aperture proximate the second portion for operatively coupling with the second vapor mitigation conduit, where the second aperture is in fluid communication with the first aperture.

Abstract: An upblast rain cap may have an inverted bottom cone joined to a top cap. The wall of the bottom cone is at an angle of less than 45 degrees with respect to a vertical axis. The joined cone and cap are held above a lower support coupler by a spar. The height of the bottom cone above the support coupler forms a side discharge area. The coupler attaches to the top of a vertical conveyance pipe through which exhaust air flows. A gutter is formed around the edge of the top cap. The gutter has a vertical opening that is aligned with the top of the spar. When rain falls, water flows over the top cap to the gutter, through the opening in the gutter, down the outside edge of the spar and down the outside of the support coupler.

Abstract: A vapor management system includes a monitoring service system configured to communicate one or more system parameters with at least one vapor mitigation system. The monitoring service system is further configured to generate a user interface. The user interface is configured to display and permit adjustment of the one or more system parameters.

Abstract: A vapor management system includes a monitoring service system configured to communicate one or more system parameters with at least one vapor mitigation system. The monitoring service system is further configured to generate a user interface. The user interface is configured to display and permit adjustment of the one or more system parameters.

Abstract: A vapor management system includes a monitoring service system configured to communicate one or more system parameters with at least one vapor mitigation system. The monitoring service system is further configured to generate a user interface. The user interface is configured to display and permit adjustment of the one or more system parameters.

Abstract: A vapor management system includes a monitoring service system configured to communicate one or more system parameters with at least one vapor mitigation system. The monitoring service system is further configured to generate a user interface. The user interface is configured to display and permit adjustment of the one or more system parameters.

Abstract: A vapor mitigation system includes at least one vacuum pipe configured to collect vapors beneath a floor of a building, and a blower coupled to the at least one vacuum pipe. The blower is configured to create a vacuum under the floor of the building. The vapor mitigation system includes a controller configured to control a speed of the blower. The controller adjusts the speed of the blower in response to a level of vacuum created under the floor of the building.

Abstract: A vapor mitigation system includes at least one vacuum pipe constructed and arranged to collect vapors beneath the floor of a building and to vent the vapors and a blower coupled to the at least one vacuum pipe. The blower is constructed and arranged to create a vacuum under the floor of the building. The vapor mitigation system further includes a controller configured to dynamically control a level of power supplied to the blower. The controller adjusts the level of power supplied to the blower in response to one or more environmental measurements.

Abstract: A vapor management system includes a monitoring service system configured to communicate one or more system parameters with at least one vapor mitigation system. The monitoring service system is further configured to generate a user interface. The user interface is configured to display and permit adjustment of the one or more system parameters.

Abstract: A vapor mitigation system includes at least one vacuum pipe configured to collect vapors beneath a floor of a building, and a blower coupled to the at least one vacuum pipe. The blower is configured to create a vacuum under the floor of the building. The vapor mitigation system includes a controller configured to control a speed of the blower. The controller adjusts the speed of the blower in response to a level of vacuum created under the floor of the building.

Abstract: A vapor mitigation system includes at least one vacuum pipe constructed and arranged to collect vapors beneath the floor of a building and to vent the vapors and a blower coupled to the at least one vacuum pipe. The blower is constructed and arranged to create a vacuum under the floor of the building. The vapor mitigation system further includes a controller configured to dynamically control a level of power supplied to the blower. The controller adjusts the level of power supplied to the blower in response to one or more environmental measurements.

Abstract: An uninterruptible power supply (UPS) provides DC output power and uses a plurality of relatively low power DC/DC converters which are of much higher efficiency and lower heat dissipation than inverters normally used in UPS devices to provide AC output power. Power is stored at high voltage in capacitors to provide output power when input power may be interrupted. Since the power dissipation is reduced and use of batteries can be avoided where redundant input power sources are available, the UPS made be made very compact and of light weight as is particularly suited to mobile machinery such as aircraft, water-borne vehicles and the like.

Abstract: A toroidal shaped transformer having two levels of structureborne noise isolation is disclosed. A 30-60 dB reduction in noise is achieved by isolation mounting the toroidal transformers coaxially on a central support rod which in turn is supported by an isolation mounted cradle. The isolation layers are made of compliant elastomeric foam rubber material.