Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the c-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: The invention of the present disclosure may be a temperature probe comprising a probe body. The probe body may comprise a tip, a tube, a sleeve configured to join the tip and the tube, the sleeve having one or more tapered ends configured to at least partially enter the tip and the tube, and an end, where a cavity may extend from the proximal end to the distal end, and where the cavity may be internal to the tip, the tube, the sleeve, and the end. The temperature probe may comprise a printed circuit board (PCB) comprising a proximal rigid PCB, a flex PCB, and a distal rigid PCB and a temperature sensor disposed within the tip. A battery may be disposed between the proximal rigid PCB and the distal rigid PCB, the battery at least partially surrounded by the flex PCB.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An apparatus and method for computer controlled cooking devices is provided. The cooking apparatus may include an outer housing, an inner lining, a housing cavity, an insert, a controller, a heating element, and a user interface. The base may include a plurality of feet. The plurality of feet may comprise a plurality of pressure sensors. The controller may be configured to receive input signals corresponding to electrical communications from a plurality of pressure sensors. The user interface may include a display and the display may present an image corresponding to a pressure sensed by the plurality of pressure sensors.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartoinizer.

Abstract: An electronic vaping device includes a battery section and a cartridge coupled to the battery section. The cartridge includes a reservoir and a heating coil. The battery section includes a controller. The controller is configured to: calculate a first value of a heat transfer time constant of the heating coil; calculate a second value of the heat transfer time constant of the heating coil; compute a difference between the first value and the second value; determine that the difference between the first value and the second value exceeds a threshold value; and output an indication that the liquid formulation in the reservoir is becoming depleted in response to determining that the difference between the first value and the second value exceeds the threshold value.

Abstract: An electronic vaping device includes: a reservoir configured to hold a liquid formulation; a vaporizer having a heating coil, the heating coil configured to heat liquid formulation drawn from the reservoir to generate a vapor; a controller electrically connected to the heating coil; and a power supply connected to the heating coil and the controller. The controller is programmed to determine that the liquid formulation in the reservoir is becoming depleted in response to determining that a computed value of the heat transfer time constant of the heating coil exceeds an average of a plurality of values of the heat transfer time constant calculated based on resistance values of the heating coil measured during a time interval by at least a threshold amount, and to cause the electronic vaping device to output an alert indicating that the liquid formulation in the reservoir is becoming depleted.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: An electronic cigarette (“e-Cig”) may include functionality for monitoring and controlling the thermal properties of the e-Cig. The system and method described herein may monitor a temperature based on a resistor (i.e. hot wire) near the wick and model the thermal cycle of an e-Cig. The model can be used for controlling the temperature of the e-Cig and preventing burning. The temperature control may dictate optimal conditions for atomization and smoke generation in an e-Cig while avoiding hotspots and burning to the atomizer or cartomizer.

Abstract: Methods and apparatus for testing user interfaces are disclosed herein. An example method includes extracting object data from a file associated with a user interface; storing a plurality of object definitions corresponding to the extracted object data in a computer readable storage medium; and generating, at a computer having a tangible memory, a test script for the user interface using the object definitions, wherein the test script is to be generated based on one or more test definitions defining one or more attributes of the object definitions to be tested in the test script, and wherein the test script is to be generated based on one or more automation rules defining how the object definitions are to be tested.

Abstract: Methods and apparatus for testing user interfaces are disclosed herein. An example method includes extracting object data from a file associated with a user interface; storing a plurality of object definitions corresponding to the extracted object data in a computer readable storage medium; and generating, at a computer having a tangible memory, a test script for the user interface using the object definitions, wherein the test script is to be generated based on one or more test definitions defining one or more attributes of the object definitions to be tested in the test script, and wherein the test script is to be generated based on one or more automation rules defining how the object definitions are to be tested.