Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes a conditioning system configured to condition a return air flow directed through the HVAC system and a control system configured to determine a difference value between an operating parameter value of the return air flow and a sensed operating parameter value of a space serviced by the HVAC system, retrieve a stored target operating parameter value of the space, and operate the HVAC system based on the difference value, the stored target operating parameter value, or both.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes auxiliary control circuitry configured to communicatively couple to a thermostat of the HVAC system. The auxiliary control circuitry is configured to receive a control signal from the thermostat and block subsequent transmission of the control signal in response to receipt of data indicative of a detected refrigerant external to a refrigerant circuit of the HVAC system.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes secondary control circuitry configured to communicatively couple to primary control circuitry of the HVAC system that is configured to operate the HVAC system in a variable operating mode. The secondary control circuitry is configured to cause operation of the HVAC system in a calibration mode to determine a calibrated target temperature and transmit the calibrated target temperature to the primary control circuitry to enable operation of the HVAC system in the variable operating mode via the primary control circuitry based on the calibrated target temperature.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes a conditioning system configured to condition a return air flow directed through the HVAC system and a control system configured to determine a difference value between an operating parameter value of the return air flow and a sensed operating parameter value of a space serviced by the HVAC system, retrieve a stored target operating parameter value of the space, and operate the HVAC system based on the difference value, the stored target operating parameter value, or both.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes a conditioning system configured to condition a return air flow directed through the HVAC system and a control system configured to determine a difference value between an operating parameter value of the return air flow and a sensed operating parameter value of a space serviced by the HVAC system, retrieve a stored target operating parameter value of the space, and operate the HVAC system based on the difference value, the stored target operating parameter value, or both.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes secondary control circuitry configured to communicatively couple to primary control circuitry of the HVAC system that is configured to operate the HVAC system in a variable operating mode. The secondary control circuitry is configured to cause operation of the HVAC system in a calibration mode to determine a calibrated target temperature and transmit the calibrated target temperature to the primary control circuitry to enable operation of the HVAC system in the variable operating mode via the primary control circuitry based on the calibrated target temperature.

Abstract: A heating, ventilation, and/or air conditioning (HVAC) system includes secondary control circuitry configured to communicatively couple to primary control circuitry of the HVAC system that is configured to operate the HVAC system in a variable operating mode. The secondary control circuitry is configured to cause operation of the HVAC system in a calibration mode to determine a calibrated target temperature and transmit the calibrated target temperature to the primary control circuitry to enable operation of the HVAC system in the variable operating mode via the primary control circuitry based on the calibrated target temperature.

Abstract: The present invention relates to a method of preparing nucleic acid-inorganic hybrid nanoflowers, which comprises allowing a nucleic acid to react with a solution of a metal ion-containing compound at room temperature, thereby forming a complex between the metal ion and the nitrogen atom of an amide bond or amine group present in the nucleic acid. According to the present invention, organic-inorganic hybrid nanoflower structures may be synthesized using nucleic acid in a simple manner under an environmentally friendly condition without any toxic chemical substance. The produced organic-inorganic hybrid nanoflower structures show a high DNA encapsulation yield, have resistance against nuclease, and show significantly increased peroxidase activity. Thus, these nanoflower structures may be widely used as a gene therapy carrier and in biosensing technology.

Abstract: An imitation candle is provided that simulates an open flame by providing a flickering light effect reflected on a flame element. The flickering light effect may be produced using a light transmitting device, such as a fiber optic cable, that allows light to travel from a light source located near the base of the candle to the top of the candle to reflect off the flame element. The imitation candle may further include an additional light source located in the base of the candle to illuminate the body of the candle. Such additional light source may be one or more light sources of different color, which may allow the body of the candle to change color. Optionally, the color changing body may be implemented in combination with a light source located at the top of the candle that produces a flickering effect.

Abstract: An imitation candle is provided that simulates an open flame by providing a flickering light effect reflected on a flame element. The flickering light effect may be produced using a light transmitting device, such as a fiber optic cable, that allows light to travel from a light source located near the base of the candle to the top of the candle to reflect off the flame element. The imitation candle may further include an additional light source located in the base of the candle to illuminate the body of the candle. Such additional light source may be one or more light sources of different color, which may allow the body of the candle to change color. Optionally, the color changing body may be implemented in combination with a light source located at the top of the candle that produces a flickering effect.

Abstract: An imitation candle is provided that simulates an open flame by providing a flickering light effect reflected on a flame element. The flickering light effect may be produced using a light transmitting device, such as a fiber optic cable, that allows light to travel from a light source located near the base of the candle to the top of the candle to reflect off the flame element. The imitation candle may further include an additional light source located in the base of the candle to illuminate the body of the candle. Such additional light source may be one or more light sources of different color, which may allow the body of the candle to change color. Optionally, the color changing body may be implemented in combination with a light source located at the top of the candle that produces a flickering effect.

Abstract: An imitation candle is provided that simulates an open flame by providing a flickering light effect reflected on a flame element. The flickering light effect may be produced using a light transmitting device, such as a fiber optic cable, that allows light to travel from a light source located near the base of the candle to the top of the candle to reflect off the flame element. The imitation candle may further include an additional light source located in the base of the candle to illuminate the body of the candle. Such additional light source may be one or more light sources of different color, which may allow the body of the candle to change color. Optionally, the color changing body may be implemented in combination with a light source located at the top of the candle that produces a flickering effect.

Abstract: A valve assembly for supplying gas, in particular for supplying air to a fuel cell, includes a valve assembly having at least two individually controllable valves, a common housing, in which the valves are accommodated, including a common inlet and at least one outlet for each valve, wherein the housing is formed of at least two housing parts, wherein the common inlet is formed in a first housing part, said inlet being coupled to one valve in each case, and wherein the valves are accommodated in a second housing part, wherein the two housing parts are sealed with respect to one another by means of assigned joining surfaces, wherein at least one valve seat for a valve is provided at the joining surface of the first housing part, said valve seat being closable with a sealing surface of the valve.

Abstract: A valve assembly for supplying gas, in particular for supplying air to a fuel cell, includes a valve assembly having at least two individually controllable valves, a common housing, in which the valves are accommodated, including a common inlet and at least one outlet for each valve, wherein the housing is formed of at least two housing parts, wherein the common inlet is formed in a first housing part, said inlet being coupled to one valve in each case, and wherein the valves are accommodated in a second housing part, wherein the two housing parts are sealed with respect to one another by means of assigned joining surfaces, wherein at least one valve seat for a valve is provided at the joining surface of the first housing part, said valve seat being closable with a sealing surface of the valve.

Abstract: A computerized method for determining eligibility of military education benefits and calculating an award estimate based on each service member's individual personal, financial, and military background information. Potential students enter information via a user interface of the computer system. In response to the entered information, the computer system presents additional relevant questions based on the previous information entered by the service member. The computer system uses the entered information to provide a detailed and customized calculation of the total estimated aid.

Abstract: A computer system and method that enables the customization and personalization of marketing material for potential students utilizing existing systems to provide students with net price information on the cost of attending an academic institution and supplements the financial information with marketing information that is customized and created for the potential student. The marketing material is unique to each potential student and is generated for each student based on their financial circumstances, personal interests and academic goals.

Abstract: A computerized method and system for conveying the affordability of an individual's choice of post-secondary educational program by determining the total cost, estimated student aid awards and net price of attending a specific academic institution. The computer system receiving a student's and their family's personal, financial, and academic information and combining that information with specific and individualized cost of attendance information from one or more academic institutions. The computer system then calculates the total cost of attending the school, the estimated net price, and out of pocket expenses based on the information provided by the student. Additionally, the computer system and method provides affordability analysis tools to help student further understand the cost of funding and repaying the cost of an educational program under various scenarios.