↘ The Renewable Energy Machines versus Cangrier-M Perpetual Motion Machines |
| | The solar energy is dependent on sun, the wind on nature’s change of weather, the hydroelectric on water, geothermal on volcanic steam and sea wave on nature as well. This new technology does not depend on any of the aforementioned sources, but on the inherent property of gravity which is unchangeable at all times: hence the operation of this technology is by far incomparable to these renewable energy prime movers due to the constraints on their sources. Since fossil-fuel and nuclear-based prime movers are ruled out because they are not environment friendly and very expensive to build initially and in the long term, the comparative analyses are focused on the renewable energy machines versus Cangrier-M Perpetual Motion Machines. |
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| | | Table 1: COMPARATIVE ANALYSIS OF THE COST OF INITIAL INVESTMENT | | REQUIREMENT: Power Plant must be capable of delivering Continuous Supply of One Megawatt Electric Power 24 hours a Day, 7 Days a Week, 365 Days a Year | | Prime Mover | Cost of 1 MW | No.of Units Req’d on 24-Hour Operation | Battery Req’d For 1MW ($1M/MW) | Life of Fully Charged Battery | Extent of Power Supply | Total Cost of Initial Investment | Transmission Lines, Pylons & Equipment | | Solar | $1.5M | 3 | Included | 3 days | 3 days | $ 4.5M# | Optional | | Windmill | $1.5M | 3 | $2M | 3 days | 3 days | $ 6.5M*# | Required | | Geothermal | $4.0M | 1 | No Battery | N/A | No Limit | $ 4.0M* | Required | | Hydro | $3.4M | 1 | No Battery | N/A | No Limit | $ 3.4M* | Required | | C-M1 | $2.2M | 1 | No Battery | N/A | No Limit | $ 2.2M | Optional | | Sea Wave@ | $6M+ | ? | ? | ? | ? | $ 6M+ | Required | * = Pylons, Transmission Lines, Equipment, etc. will cost additional Millions of Dollars due to their Prime Movers fixed locations while Solar and C-M1 will not, due to their site adaptability. # = Solar and Wind Prime Movers need at least $9M and $13M of initial investment respectively, to deliver around 6 days of continuous power supply. @ = Not included in the next Table Presentation owing to its impractically high investment cost. Note: C-Ms’ land requirement is much smaller compared against that of known renewable energy prime movers except solar. |
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| | | Table 2: COMPARATIVE ANALYSIS OF CONSTRUCTION DURATION, REPAIR AND MAINTENANCE, LIFE SPAN AND ADD-ON COST ON PRIME INVESTMENTMENT | | Prime Mover | Construction Duration | Cost of Repair and Maintenance | Life No. of Years | Average Battery Life No. of Years | Total Cost of Battery Replacement | | Solar | 3 – 4 months | Expensive | 20# | 4 years | $15M | | Windmill | 4 – 6 months** | Expensive | 20#* | 4 years | $10M | | Geothermal | 1 – 2 years** | Cheap | 30* | N/A | N/A | | Hydro | 2 – 3 years** | Cheap | 50* | N/A | N/A | | C-M1 | 4 – 6 months | Cheapest | 50 - 75 | N/A | N/A | * = Pylons, Transmission Lines, Equipment, etc. will cost additional Millions of Dollars due to their Prime Movers fixed locations while Solar and C-M1 will not, due to their site adaptability. # = Solar and Wind Prime Movers need at least $9M and $13M of initial investment respectively, to deliver around 6 days of continuous power supply. |
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| | Table 3: COMPARATIVE ANALYSIS OF ENVIRONMENTAL BENEFITS AND RISK FROM NATURE | | Prime Mover | Global Warming | Air/Water/Noise Pollution (Due to Battery) | Risk from Earthquakes | Risk from Typhoon, Flood, Landslides and Tsunami | Risk from Energy Source Cut-Off | | Solar | Non-Contributory | Semi-Contributory | Minimal | Minimal | Minimal | | Windmill | Non-Contributory | Semi-Contributory | High | High | Minimal | | Geothermal | Non-Contributory | Non-Contributory | High | Minimal | High | | Hydro | Non-Contributory | Non-Contributory | Very High | Very High | Very High | | C-M1 | Non-Contributory | Non-Contributory | Minimal | Minimal | None* | | *= C-M1’s power source is constant : Gravity. |
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