Abstract: The present application provides a hydrodefluorodimerization process, which is useful in the synthesis of, for example, fluoroolefins that can be used as refrigerants, blowers and the like. The process is an “early-stage fluorination” process, wherein precursors containing fluorine are assembled into the desired product using a zerovalent nickel catalyst. Also provided is a liquid composition comprising one or more fluoroolefin produced by this catalytic process.

Abstract: The present application provides a hydrodefluorodimerization process, which is useful in the synthesis of, for example, fluoroölefins that can be used as refrigerants, blowers and the like. The process is an “early-stage fluorination” process, wherein precursors containing fluorine are assembled into the desired product using a zerovalent nickel catalyst. Also provided is a liquid composition comprising one or more fluoroölefin produced by this catalytic process.

Abstract: The present application provides a hydrodefluorodimerization process, which is useful in the synthesis of, for example, fluoroölefins that can be used as refrigerants, blowers and the like. The process is an “early-stage fluorination” process, wherein precursors containing fluorine are assembled into the desired product using a zerovalent nickel catalyst. Also provided is a liquid composition comprising one or more fluoroölefin produced by this catalytic process.

Abstract: The present application provides a hydrodefluorodimerization process, which is useful in the synthesis of, for example, fluoroolefins that can be used as refrigerants, blowers and the like. The process is an “early-stage fluorination” process, wherein precursors containing fluorine are assembled into the desired product using a zerovalent nickel catalyst. Also provided is a liquid composition comprising one or more fluoroolefin produced by this catalytic process.

Abstract: A method for treating the formation of hydrates in a fluid system includes pumping a fluid at a substantially constant fluid flow rate through a hydrate removal system including a pressure modulator, communicating a vacuum pressure to a piece of subsea equipment from a pressure port of the pressure modulator, closing a valve in the hydrate removal system to cease the fluid flow through the hydrate removal system at the substantially constant fluid flow rate, and communicating a positive pressure greater than the vacuum pressure to the piece of subsea equipment in response to closing the valve of the hydrate removal system.

Abstract: A system and method for distraction mitigation wherein a location of a mobile device within one of one or more zones in a vehicle may be determined and the behavior of the mobile device and/or in-vehicle systems, with which the mobile device interacts, may be modified based on the determined location. In one example, the location of a smartphone may be determined to be within the area (a.k.a. zone) of an automobile cabin associated with a driver of the automobile and the smartphone user interface may be locked to prevent direct operation of the smartphone by the driver while still allowing indirect operation via, for example, a Bluetooth connection to an automobile infotainment system.

Abstract: A system and method for distraction mitigation wherein a location of a mobile device within one of one or more zones in a vehicle may be determined and the behavior of the mobile device and/or in-vehicle systems, with which the mobile device interacts, may be modified based on the determined location. In one example, the location of a smartphone may be determined to be within the area (a.k.a. zone) of an automobile cabin associated with a driver of the automobile and the smartphone user interface may be locked to prevent direct operation of the smartphone by the driver while still allowing indirect operation via, for example, a Bluetooth connection to an automobile infotainment system.