Wirelessly controlled heating system

• US 20110127343A1
• Filed: 12/02/2009
• Published: 06/02/2011
• Est. Priority Date: 12/02/2009
• Status: Abandoned Application

• Current Assignee: Steven Rimmer
• Original Assignee: Steven Rimmer
• Inventors: Rimmer, Steven
• Application Number:
  US12/592,762
• Publication Number:
  US 20110127343A1
• Time in Patent Office: Days
• US Class Current: 237/9.R
• CPC Class Codes: F24D 1/00 Steam central heating systems district heating systems F24D10/00; central heating systems using heat accumulated in storage masses F24D11/00
• CPC Class Codes: F24D 1/02 operating with live steam F24D1/005 takes precedence
• CPC Class Codes: F24D 19/1003 for steam heating systems

Abstract

The system includes a boiler, and multiple radiators connected to the boiler via a network of pipes. It includes a central processor for monitoring and control, air vent controllers that control the flow of steam through the radiators and a boiler control which turns the boiler on and off. The radiators are divided into groups. The central controller communicates with the air vent controllers to determine the conditions in the various groups. Based at least in part on the conditions, central controller may determine that the group requires heat. If heat is required and other parameters agree, central processor determines the state of the boiler. If off, the boiler is instructed to turn on and the air vent controllers in the group are instructed to open. Each air vent controller in that heat zone will then open allowing air to flow through the radiator and heat to be provided.

Claims

1. A system for providing and regulating steam heat in a building which has a plurality of rooms, a boiler and a plurality of radiators in the plurality of rooms, each radiator being connected to the boiler via a network of pipes, the system comprising:

a central processor configured to monitor and adjust said system;

said central processor including a central processor transceiver;

a plurality of air vent controllers each including an air vent controller transceiver for wireless communication with said central processor and each being adapted to be attachable to a respective radiator;

said plurality of air vent controllers having an open state in which air may flow through the air vent controller and a closed state in which air is prevented from flowing through said air vent controllers, said air vent controllers being separated into a plurality of groups;

a plurality of room thermometers respectively coupled to said plurality of air vent controllers configured to determine a respective room temperature;

each of said air vent controllers being configured to communicate the respective room temperature and the state of the air vent controller to said central processor via said air vent controller transceiver;

said central processor being configured to, at least in part in response to said communication from said air vent controllers, determine that a group of said air vent controllers needs to be placed in the open state and to send an instruction to that group of air vent controllers to change to the open state;

said group of air vent controllers being configured to, in response to said instruction from said central processor, change to the open state.

2. The system according to claim 1 further comprising:

a boiler control including a transceiver for wireless communication with said central processor;

said boiler control being adapted to connect to and control said boiler;

said boiler control also configured to monitor said boiler and communicate information about said boiler to said central processor;

said central processor being further configured to, in response to said determination that a group of said air vent controllers needs to be placed in the open state determine a state of said boiler and if the state of said boiler is off then send an instruction to said boiler control to change said boiler state to on.

3. The system according to claim 2, wherein said boiler control further comprises a pressure monitor configured to monitor a pressure within said boiler, said boiler control further configured to provide the boiler pressure to said central processor.

4. The system according to claim 3 wherein said central processor is configured to determine a minimum boiler pressure required to heat said radiators.

5. The system according to claim 1 wherein at least one air vent control includes a radiator thermometer configured to determine a temperature of a respective radiator and wherein said at least one air vent control is configured to change from an open state to a closed state when said radiator temperature reaches a predetermined temperature.

6. The system according to claim 1 further comprising:

an air vent having an open and closed state and a strip configured to change said air vent from said open state to said closed state upon steam impacting said strip;

wherein at least one of said plurality of air vent controllers has an aperture configured to receive said air vent, such that when said air vent controller is in the open state, air from the radiator flows through said air vent controller to said air vent and when said air vent controller is in the closed state air from the radiator is prevented from flowing to the air vent.

7. The system according to claim 1 wherein at least one of said plurality of air vent controllers further comprises a direct current (DC) power supply for supplying power to said air vent controller.

8. The system according to claim 7 wherein said air vent controller comprises a latching solenoid.

9. The system according to claim 1 wherein said central processor comprises a processor, a memory coupled to said processor, and an input device and a graphical user interface (GUI) both electrically coupled to said processor.

10. The system according to claim 1 further comprising an outdoor temperature unit;

said outdoor temperature unit including a thermometer and a transmitter configured to transmit a temperature from said thermometer to said central processor.

11. The system according to claim 1 further comprising at least one room unit said room unit comprising an infra-red (IR) transmitter, a radio frequency (RF) transmitter and an RF receiver;

at least one of said air vent controllers having an air vent controller transceiver that comprises an IR receiver and an RF transmitter;

said central processor transceiver comprises an RF transceiver;

said central processor being configured to communicate with said at least one air vent controller via said room unit;

said room unit being configured to receive a central processor originating RF transmission from said central processor convert the central processor originating RF transmission into an IR transmission and retransmit said central processor originating transmission to said at least one air vent controller via said IR transmitter;

said at least one air vent controller being configured to communicate with said central processor via said room unit; and

,

said room unit being configured to receive a air vent controller originating IR transmission from said at least one air vent controller and convert the air vent controller originating IR transmission into an RF transmission and retransmit said air vent controller originating transmission to said central processor via said RF transmitter.

12. A method of providing steam heat to a building that has a boiler and a plurality of radiators connected to the boiler via a network of pipes, the method comprising:

assigning identifiers to a plurality of radiators;

separating said plurality of radiators into a plurality of groups based on said identifiers;

configuring each of said plurality of radiators within a group to operate on a common set of parameters;

monitoring said parameters at a central processor;

receiving at said central processor, communications from said plurality of radiators in a group and determining from those communications parameters of the group;

determining at said central processor, when said group parameters require said group to provide heat;

determining at said central processor, a state of the boiler;

sending an instruction to turn on from the central processor to the group of radiators, if the state of the boiler is on;

and sending an instruction from the central processor to the boiler to turn on prior to sending said instruction to said group of radiators, if the state of the boiler is off.

13. The method according to claim 12 wherein said common set of parameters are parameters selected from the group consisting of room temperature, radiator temperature, time of day, date, outside temperature and season.

14. The method according to claim 12 further comprising assigning a priority level to each group of radiators and determining at said central processor whether the parameters of a group indicate that the group requires heat in order of said priority level.

15. The method according to claim 12 further comprising determining by said central processor that at least one group of radiators not longer requires heat and sending a message from the central processor to the boiler to turn off the boiler.

16. The method according to claim 12 further comprising:

monitoring by said central processor a boiler pressure for a predetermined amount of time after sending said signal for the boiler to turn on;

determining after said predetermined period of time if at least one of the radiators in the group of radiators which were instructed to turn on has reached a maximum temperature; and

sending an instruction from the central processor to the boiler to turn off if no radiator from the group has reached the maximum temperature.

17. A steam heating system comprising:

a plurality of radiators, each having an inlet for steam and an outlet for air;

wherein at least some of said plurality of radiators are assigned an identifier for grouping said at least some of said plurality of radiators into a plurality of groups of radiators;

a source of steam;

conduits connecting said source of steam to said inlets of said at least some of said plurality of radiators such that steam from the source of steam is capable of traveling through the conduits to the inlet of each of the at least some of said plurality of radiators pushing colder air through the inlet and out the outlet of each radiator until the outlets are closed;

each of said at least some of said plurality of radiators includes an air vent controller coupled to the radiator at said outlet;

said air vent controller automatically closing said outlet when a temperature of said radiator reaches a predetermined temperature thus preventing air to flow through said radiator;

a central processor located remote from said radiator, configured to wirelessly communicate with the air vent controllers in said groups of radiators, and configured to signal said air vent controllers to open said radiator outlets as a group based on predetermined parameters for the group; and

,

a battery electrically coupled to said air vent controller for providing pulses of electrical current to change the air vent controller from open to closed or closed to open and to provide electrical current for communicating with said central processor.

18. The system according to claim 17 wherein said central processor is further configured to signal the source of steam to turn off when no groups of radiators require heat.

19. The system according to claim 17 wherein said central processor is further configured to signal the source of steam to turn on when a group of radiators requires heat.