Heat energy management system
OwnerTrevor Boiceyinventor
Life of this patent
Estimating the term…
Abstract
Methods and systems relating to the monitoring and control of heating devices in multiple units in one or more buildings. An intelligent node, containing a monitoring module and a controlling module, is installed for each unit in a building. The monitoring module monitors the activation and deactivation of the heating device or, alternatively, directly measures the amount of power used by the heating device. This monitoring data is transmitted to a central server and is sent to a user. The user can control the duty cycle of the heating device and, as such, can directly cause savings in energy. The duty cycle for each heating device is adjusted by the controlling module based on the user's commands. The system can also be used so that the duty cycle is set such that energy settings for adjacent units are similar.
Claims18
A system for managing energy consumption at each unit at a multi-unit user location, the system comprising:
- a plurality of controller modules, each controller module being for controlling how much energy is used by a specific device in a unit at said multi-unit user location;
- a plurality of monitoring modules, each monitoring module being for monitoring and reporting on said specific device as requested and in real-time over a specific period of time;
- a main controller device at said multi-unit user location, said main controller device being for receiving reports from said plurality of monitoring modules and for controlling each of said plurality of controller modules, said main controller device also being for aggregating reports from said monitoring modules, sending said reports to a central data storage in real-time, and for receiving control commands relating to said controller modules from a user at said multi-unit user location in real-time;
- wherein
- each controller module is independently controlled by said main controller device;
- said main controller device provides said user with control of said plurality of controller modules independent from a remote energy source;
- said main controller device controls an energy consumption for said specific device based on current external conditions consisting of present environmental conditions at said multi-unit user location, said environmental conditions including at least one of external temperature, wind speed, and weather;
- and
- said main controller device retrieves said external conditions through an Internet-based data feed that provides external data in real-time;
- said main controller device sets a throttle factor for said specific device based on said external conditions, said throttle factor being related to said control commands and said throttle factor limiting said energy consumption for said specific device;
- and
- further comprising an external sensor for monitoring a current second external condition present at said multi-unit user location, said external sensor being in communication with said main controller device, wherein said main controller device communicates a fail-safe trigger to each of the plurality of controller modules when a threshold discrepancy is met between said external conditions and said second external condition, said fail-safe trigger overriding said throttle factor.
A system for managing energy consumption at each unit at a multi-unit user location, the system comprising:
- a plurality of controller modules, each controller module being for controlling how much energy is used by a first unit among a block of units surrounding said first unit at said multi-unit user location;
- a plurality of monitoring modules, each monitoring module being for monitoring and reporting on said first unit as requested and in real-time over a specific period of time;
- a main controller device at said multi-unit user location, said main controller device being for receiving reports from said plurality of monitoring modules and for controlling each of said plurality of controller modules, said main controller device also being for aggregating reports from said monitoring modules, sending said reports to a central data storage in real-time, and for receiving control commands relating to said controller modules from a user at said multi-unit user location in real-time;
- an external sensor for monitoring a second external condition present at said multi-unit user location, said external sensor being in communication with said main controller device;
- wherein
- each controller module is independently controlled by said main controller device;
- said main controller device provides said user with control of said plurality of controller modules independent from a remote energy source;
- said main controller device controls an energy consumption for said block of units based on external conditions that includes energy consumption of said first unit;
- said main controller device retrieves said external conditions through an Internet-based data feed that provides external data in real-time;
- said main controller device sets a throttle factor for said block of units based on said external conditions, said throttle factor being related to said control commands and said throttle factor limiting said energy consumption for said block of units:
- and
- said main controller device communicates a fail-safe trigger to each of the plurality of controller modules when a threshold discrepancy is met between said external conditions and said second external condition, said fail-safe trigger overriding said throttle factor.
Dependencies are inferred from the claim text.