Abstract: A monitoring system is configured to monitor an environment within an enclosure of a heating, ventilation, air conditioning, and/or refrigeration (HVAC&R) system. The monitoring system includes a sensor configured to acquire data indicative of an environmental parameter value within the enclosure. The monitoring system also includes a controller configured to receive the data from the sensor, to determine occurrence of a thermal event within the enclosure based on the data, and to instruct a circuit breaker of the HVAC&R system to transition to a fault configuration in response to determining the occurrence of the thermal event.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes an electrical enclosure having a compressor variable speed drive (VSD) and a condenser fan VSD disposed within the electrical enclosure. The compressor VSD is configured to control operation of a compressor motor of the HVAC system, and the condenser fan VSD is configured to control operation of a condenser fan motor of the HVAC system.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes a first electrical enclosure that has a main drive line variable speed drive (VSD) configured to drive operation of a compressor motor of the HVAC system and a second electrical enclosure that has a power distribution component. The power distribution component is configured to receive electrical power from a power source and to supply the electrical power to the main drive line VSD.

Abstract: A method includes receiving data from a sensor over time. The data comprises a plurality of values that are each indicative of a sensed condition at a unique time. The method also includes determining a real-time value, a mid-term moving average, and a long-term moving average based on the data and determining a most-recent combined average by averaging the real-time value, the mid-term moving average, and the long-term moving average. The method further includes determining an upper setpoint by adding an offset value to the most-recent combined average and determining a lower setpoint by subtracting the offset value to the most-recent combined average. The method also includes transmitting an alert based on a determination that a most recent value of the data is either greater than the upper setpoint or lower than the lower setpoint.

Abstract: A method includes receiving data from a sensor over time. The data comprises a plurality of values that are each indicative of a sensed condition at a unique time. The method also includes determining a real-time value, a mid-term moving average, and a long-term moving average based on the data and determining a most-recent combined average by averaging the real-time value, the mid-term moving average, and the long-term moving average. The method further includes determining an upper setpoint by adding an offset value to the most-recent combined average and determining a lower setpoint by subtracting the offset value to the most-recent combined average. The method also includes transmitting an alert based on a determination that a most recent value of the data is either greater than the upper setpoint or lower than the lower setpoint.

Abstract: A method includes receiving data from a sensor over time. The data comprises a plurality of values that are each indicative of a sensed condition at a unique time. The method also includes determining a real-time value, a mid-term moving average, and a long-term moving average based on the data and determining a most-recent combined average by averaging the real-time value, the mid-term moving average, and the long-term moving average. The method further includes determining an upper setpoint by adding an offset value to the most-recent combined average and determining a lower setpoint by subtracting the offset value to the most-recent combined average. The method also includes transmitting an alert based on a determination that a most recent value of the data is either greater than the upper setpoint or lower than the lower setpoint.

Abstract: A method for preparing an aromatic di-ester includes combining an aromatic di-acid and a linear or branched C4-C13 alcohol to form a mixture. The method also includes heating the mixture from a first temperature (T1) to a second temperature (T2) without a catalyst present in the mixture. The method further includes combining a titanium catalyst with the mixture after the mixture is at the second temperature (T2). The method further includes increasing pressure from a first pressure (P1) to a second pressure (P2) after the mixture is at the second temperature (T2). The method further includes increasing the temperature of the mixture from the second temperature (T2) to a third temperature (T3) while maintaining the second pressure (P2).

Abstract: A method for preparing an aromatic di-ester includes combining an aromatic di-acid and a linear or branched C4-C13 alcohol to form a mixture. The method also includes heating the mixture from a first temperature (T1) to a second temperature (T2) without a catalyst present in the mixture. The method further includes combining a titanium catalyst with the mixture after the mixture is at the second temperature (T2). The method further includes increasing pressure from a first pressure (P1) to a second pressure (P2) after the mixture is at the second temperature (T2). The method further includes increasing the temperature of the mixture from the second temperature (T2) to a third temperature (T3) while maintaining the second pressure (P2).

Abstract: A plasticizer composition is disclosed that includes di(2-ethylhexyl) terephthalate, and which is substantially free of a di-ester according to Formula I: where R1 is a straight-chain or branched alkyl group having from 1 to 13 carbon atoms, and where R1 is different than 2-ethylhexane. The plasticizer composition may be used in a plastisol composition, a powder coating composition, a molding composition, and various other compositions. A method of preparing an aromatic di-ester is also disclosed. The method may prepare the plasticizer composition.

Abstract: A plasticizer composition is disclosed that includes di(2-ethylhexyl) terephthalate, and which is substantially free of a di-ester according to Formula I: where R1 is a straight-chain or branched alkyl group having from 1 to 13 carbon atoms, and where R1 is different than 2-ethylhexane. The plasticizer composition may be used in a plastisol composition, a powder coating composition, a molding composition, and various other compositions. A method of preparing an aromatic di-ester is also disclosed. The method may prepare the plasticizer composition.

Abstract: A portable refusal skills training educational tool including an interactive electronic system within an enclosure, and method practicing refusal skills employing the educational tool. The interactive electronic system includes (i) a means within the enclosure for periodically generating a perceptible proposal to participate in addictive behavior, (ii) a speech recognition system effective for receiving and identifying a verbal refusal statement spoken in response to a generated proposal, and (iii) a reporting mechanism. The reporting mechanism includes at least one of (A) a means for reiterating perceptible proposals to participate in addictive behavior until the verbal refusal statement is received and identified in response to a proposal, (B) a means for generating a perceptible positive-reinforcement signal when the verbal refusal statement is received and identified in response to a proposal, and (C) a means for recording data useful in evaluating responses to proposals.

Abstract: An intraluminal stent delivery and deployment system and a method of delivering and deploying an intraluminal stent are described. The stent delivery and deployment system includes a catheter, an expandable stent disposed about a portion of the catheter, and at least one anchoring device attached to the catheter. The anchoring device has a proximal portion disposed distal of a midpoint of the stent. The anchoring device is deployed and engages a body vessel before the stent is expanded to a fully expanded configuration, thereby anchoring at least the catheter to the body vessel during the expansion of the stent.