Abstract: An energy control system, helping to reduce energy consumption from an energy grid, includes a power meter which receives first power-save signal and generates a second power-save signal for receipt by a control device. The target temperature of a thermostat is changed for a period of time in response to the second power-save signal. The control device can create a third power-save signal for receipt by a power-save adapter for an associated energy-consuming unit to permit only limited operation of the energy-consuming unit.

Abstract: An energy control system, helping to reduce energy consumption from an energy grid, includes a power meter which receives first power-save signal and generates a second power-save signal for receipt by a control device. The target temperature of a thermostat is changed for a period of time in response to the second power-save signal. The control device can create a third power-save signal for receipt by a power-save adapter for an associated energy-consuming unit to permit only limited operation of the energy-consuming unit.

Abstract: A thermostat assembly comprises a thermostat and a removable and replaceable first communication module physically and functionally removably connected to the thermostat. The first communication module is configured to permit information transfer between the thermostat and a first device remote from the thermostat. If more than one communication module is used to communicate with more than one device, the communication modules may operate using different communication protocols.

Abstract: An energy control system, helping to reduce energy consumption from an energy grid, includes a power meter which receives first power-save signal and generates a second power-save signal for receipt by a control device. The target temperature of a thermostat is changed for a period of time in response to the second power-save signal. The control device can create a third power-save signal for receipt by a power-save adapter for an associated energy-consuming unit to permit only limited operation of the energy-consuming unit.

Abstract: An energy control system, helping to reduce energy consumption from an energy grid, includes a power meter which receives first power-save signal and generates a second power-save signal for receipt by a control device. The target temperature of a thermostat is changed for a period of time in response to the second power-save signal. The control device can create a third power-save signal for receipt by a power-save adapter for an associated energy-consuming unit to permit only limited operation of the energy-consuming unit.

Abstract: A thermostat assembly comprises a thermostat and a removable and replaceable first communication module physically and functionally removably connected to the thermostat. The first communication module is configured to permit information transfer between the thermostat and a first device remote from the thermostat. If more than one communication module is used to communicate with more than one device, the communication modules may operate using different communication protocols.

Abstract: A thermostat assembly comprises a thermostat and a removable and replaceable first communication module physically and functionally removably connected to the thermostat. The first communication module is configured to permit information transfer between the thermostat and a first device remote from the thermostat. If more than one communication module is used to communicate with more than one device, the communication modules may operate using different communication protocols.

Abstract: A programmable thermostat time/temperature display has a continuous loop timeline with a plurality of temperature transition points along the timeline to define a plurality of timeline segments. Temperature and time IDs are displayable on the display and are associated with at least some of the timeline segments and temperature transition points. A thermostat can be programmed by touching a position on a touchscreen associated with a temperature transition point on a continuous loop timeline on the touchscreen. The touching step may be carried out by moving the first temperature transition point from a first position along the timeline to a second position along the timeline so to change the first timeline segment. An updated time ID may be selected for the first temperature transition point.

Abstract: A thermostat may be placed in a heating mode when the sensed temperature is less than the lowest of the heating and cooling target temperatures by a first amount and may be placed in a cooling mode when the sensed temperature is greater than the highest of the heating and cooling target temperatures by a second amount. The presence or absence of a user may be monitored. If the thermostat is in a user absent mode, a cool setback amount may be added to the cooling target temperature and a heat setback amount may be subtracted from the heating target temperature to arrive at setback cooling and setback heating target temperatures, respectively. The thermostat may comprise a touch-sensitive screen having various display areas.

Abstract: A thermostat assembly comprises a thermostat and a removable and replaceable first communication module physically and functionally removably connected to the thermostat. The first communication module is configured to permit information transfer between the thermostat and a first device remote from the thermostat. If more than one communication module is used to communicate with more than one device, the communication modules may operate using different communication protocols.

Abstract: A method automatically adjusts the amount of water supplied by a water timer having a user interface and a controller programmed to provide control signals for controlling water flow control devices. The time of day on a base day is chosen, and a base ambient temperature and a base ambient humidity are sensed. Base ambient temperature and humidity signals are provided to the controller. The current ambient temperature and humidity are subsequently sensed and corresponding signals are provided to the controller on at least one day following the base day at a time corresponding to the chosen time of day. Control signals are modified, thereby modifying watering amounts, according to the base and current ambient temperature and humidity signals.

Abstract: An energy control system, helping to reduce energy consumption from an energy grid, includes a power meter which receives first power-save signal and generates a second power-save signal for receipt by a control device. The target temperature of a thermostat is changed for a period of time in response to the second power-save signal. The control device can create a third power-save signal for receipt by a power-save adapter for an associated energy-consuming unit to permit only limited operation of the energy-consuming unit.

Abstract: A thermostat is programmable by entering input through a large-format touch-screen display. The touch-screen display displays different sets of icons depending on the mode the thermostat is in. A set of icons is displayed in one mode that allows the user to put the thermostat in a temporary operating mode. Another set of icons is displayed when programming the thermostat. Displaying several sets of icons at once allows a user to quickly and intuitively operate the thermostat, which in turn facilitates using energy-saving functions of the thermostat.

Abstract: In one example first and second remotely communicating devices (RCDs) are physically mated and handshake information is transferred to allow the first RCD to recognize signals from the second RCD. The RCDs are physically separated and signals from the second RCD are recognized by the first RCD. In some examples the physically mating step is carried out using magnetic materials. In some examples the handshake information is transferred wirelessly. In another example an actuator device is physically mated with a first RCD causing the first RCD to enter a first device recognition state for a first period of time. The actuator device is physically separated from the first RCD. A second RCD is mated with an actuator device within the first period of time causing the second RCD to enter a second device recognition state to permit handshake information to be remotely transferred between the RCDs thereby enabling the first RCD to recognize signals from the second RCD.