Mobile waterborne energy platform that produces electrical power

• US 20170222586A1
• Filed: 01/07/2015
• Published: 08/03/2017
• Est. Priority Date: 01/09/2014
• Status: Abandoned Application

• Current Assignee: Nautilus Data Technologies, Inc.
• Original Assignee: Nautilus Data Technologies, Inc.
• Inventors: Magcale, Arnold C., Kekai, Daniel
• Application Number:
  US14/591,638
• Publication Number:
  US 20170222586A1
• Time in Patent Office: Days
• CPC Class Codes: B63B 2035/444 for converting combustion energy into electric energy
• CPC Class Codes: B63J 2/12 Heating; Cooling
• CPC Class Codes: F02C 7/16 characterised by cooling medium
• CPC Class Codes: G05B 15/02 electric
• CPC Class Codes: H01M 8/04029 Heat exchange using liquids
• CPC Class Codes: H01M 8/04044 Purification of heat exchange media
• CPC Class Codes: H02J 2300/10 The dispersed energy generation being of fossil origin, e.g. diesel generators
• CPC Class Codes: H02J 3/381 Dispersed generators
• CPC Class Codes: H02P 9/08 Control of generator circuit during starting or stopping of driving means, e.g. for initiating excitation
• CPC Class Codes: Y02E 60/50 Fuel cells
• CPC Class Codes: Y02T 70/00 Maritime or waterways transport

Abstract

A mobile waterborne energy platform systems and methods comprising a purpose built marine vessel, a pre fabricated building structure, a plurality of fuel cells or generators, a plurality of fuel tanks, a plurality of mechanical equipment, a plurality of electrical equipment and a method to transmit electrical power to shore or to another marine vessel. The mobile waterborne energy platform systems and methods described may be employed to quickly provide utility grade electrical power to remote austere locations. The electrical power may be produced by a plurality of fuel cells or generators configured on a mobile waterborne vessel that may be transported to remote areas to provide an on site electrical power source for critical infrastructure, communications, emergency or medical facilities. The systems and methods are ideal for military purposes where troops may be deployed in remote locations without readily available utility grade electrical power.

Claims

1. A waterborne power generation facility comprising:

an electrical power generating source, wherein the electrical power generating source is comprised in a marine vessel;

a computer controlled power management system connected to a wired or wireless network, and configured to extract environmental data, infrastructure data and component data from a corresponding plurality of sensors configured to collect the environmental, infrastructure and component data, and connected to the network;

wherein the computer controlled power management system is further configured to enable dynamic operation actions, comprising;

automatically migrating power loads to another facility over a grid network; and

automatically configuring a thermal containment system according to a calculated heat generation based on a load demand.

2. The waterborne power generation facility of claim 1 wherein automatically configuring the thermal containment system further comprises:

automatically configuring a closed loop cooling in a closed loop cooling unit comprised in the thermal containment system;

automatically configuring a thermal airflow system comprised in the thermal containment system; and

automatically configuring a hot water return cooling system comprised in the thermal containment system the closed loop cooling system further comprises a water based closed loop cooling system.

3. The waterborne power generation facility of claim 2 wherein the closed-loop cooling unit comprises:

a single or plurality of filtered water intake pipes and water exhaust pipes;

a single or plurality of water pumps, heat exchangers, coolant heat exchange piping, and coolant distribution piping;

a closed-loop coolant distribution unit; and

wherein the coolant distribution unit is caused to pass heated coolant through the coolant heat exchange piping, and wherein surrounding water pumped through the filtered water intake pipes is caused to absorb heat from the heated coolant via the single or plurality of heat exchangers.

4. The waterborne power generation facility of claim 1 wherein the facility comprises a plurality of fuel cell modules, wherein each of the plurality of fuel cell modules comprises a fuel cell unit;

a plurality of fuel tanks;

a plurality of mechanical power generation units; and

corresponding water-based cooling units comprised in the thermal containment system.

5. The waterborne power generation facility of claim 1 further comprising a plurality of water-based cooling units comprised in the thermal containment system, wherein the plurality of water-based cooling units correspond to the amount of heat produced by the power generation facility.

6. The waterborne power generation facility of claim 3 wherein, the filtered water intake pipes and filtered water exhaust pipes are comprised in the front or back section of the marine vessel respectively.

7. The waterborne power generation facility of claim 3 wherein the filtered water intake pipes and filtered water exhaust pipes are comprised in the right or left sides of the vessel.

8. The waterborne power generation facility of claim 3 wherein the closed-loop coolant distribution unit is connected to the heat exchangers and to at least one of the fuel cell modules and the plurality of mechanical power generation units.

9. The waterborne power generation facility of claim 1 wherein:

the software management suite further comprises a plurality of analytic engines which are caused to continuously collect and analyze data from a plurality of power distribution components, virtual machines, infrastructure and utility energy markets;

the analyzed data causes the analytic engines to trigger automation software that causes the system to make operational state changes for power load balancing across multiple power generation facilities; and

wherein data collected from energy markets is used to automatically manage disaster recovery from utility energy market outages, which comprises moving power loads from one power generation facility to another, enabling disaster recovery from utility energy market outages.

10. The waterborne power generation facility of claim 9 further comprising a plurality of wireless sensors comprising means for continuously collecting environmental data.

11. In a waterborne power generation facility, a method comprising:

generating electrical power and providing the generated electrical power to a dedicated load, wherein any excess power is stored or transmitted through a grid network;

in a computer controlled power management system connected to a wired or wireless network, extracting environmental data, infrastructure data and component data from a corresponding plurality of sensors configured to collect the environmental, infrastructure and component data, and connected to the network;

enabling dynamic operation actions via the computer controlled power management system, wherein the enabling comprises;

automatically migrating power loads to another facility over a grid network; and

automatically configuring a thermal containment system according to a calculated heat generation based on a load demand.

12. The method of claim 11, wherein automatically configuring the thermal containment system further comprises:

automatically configuring a closed loop cooling in a closed loop cooling unit comprised in the thermal containment system;

automatically configuring a thermal airflow system comprised in the thermal containment system; and

automatically configuring a hot water return cooling system comprised in the thermal containment system;

wherein automatically configuring the thermal airflow system comprises capturing hot exhaust air and returning cooled air to the power generation facility; and

wherein the hot exhaust air is captured via a reconfigurable the thermal airflow system and the thermal airflow system is utilized to move the captured hot exhaust air through the closed loop cooling system, and return the cooled air.

13. The method of claim 11, further comprising:

via the software management suite, continuously collecting and analyzing data from a plurality of power distribution components, virtual machines, power generation facility infrastructure and utility energy markets;

triggering automation software that causes the system to make power generation facility operational state changes for load balancing or power load balancing across multiple power generation facilities; and

wherein data collected from energy markets is used to automatically manage power generation facility and disaster recovery from utility energy market outages, which comprises moving power loads from one data center to another, enabling disaster recovery from utility energy market outages.

14. In a power generating facility, a method of monitoring and managing the facility, the method comprising:

collecting of environmental data by a plurality of infrastructure systems, components and wireless sensors;

storing the collected data in a database; and

analyzing the stored data by a predictive analytics engine, wherein the analyzed data is employed by a software management suite element controller to manage infrastructure systems and components'"'"' operational states to sustain optimal power generating efficiency.

15. The method of claim 14 further comprising:

accessing the software management suite over a secure network wherein presentation software comprised in the software management suite enables viewing of all the collected and analyzed data by a user.

16. The method of claim 14 further comprising:

intelligent power management and energy market disaster recovery comprising;

collecting, monitoring and analyzing data from application services, power distribution components, virtual machines, power generating facility infrastructure and utility energy markets; and

based on the said collecting, monitoring, and analyzing, dynamically migrating power loads from one facility to another, automatically.

17. The method claim 16 further comprising:

collecting via a data collection layer, data from a plurality of infrastructure elements, application elements, power elements and virtual machine elements;

analyzing the collected data via a plurality of analytic engines; and

based on the analyzed data, triggering via automation software, power generation facility operational state changes for power load balancing across multiple power generation facilities.

18. The method of claim 16 further comprising:

connecting via a network, the power generation facility to a single or plurality of energy markets such that an energy market analysis layer comprised in the software management suite uses data collected from energy market elements to automatically manage data center and application disaster recovery from utility energy market outages.

19. The method of claim 16 wherein intelligent power management and energy market disaster recovery comprises:

monitoring and analyzing utility energy market status for power generation facility load balancing, wherein the said load balancing comprises moving applications and power loads from one location using power during peak energy hours to another location using power during off-peak hours.