The improper handling of waste is the third largest source of methane emissions in the world, says Aline Sousa, but waste pickers like her help reduce this environmental impact. She dives into the monumental effort of the often-overlooked people making sure recyclables, compostables and trash end up in the right places — and calls for better recognition of these key players on the frontline of fighting climate change.
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@ArmiesBattlesandFigures
August 8, 2024 at 7:01 am
Know Tim Walz: From Soldier to Statesman in 2- minute video
@chocomalk
August 8, 2024 at 9:02 am
Not a soldier lol
@sachamm
August 8, 2024 at 10:57 am
@@chocomalk Yeah, just 17 years in the National Guard.
@mbergamin16
August 8, 2024 at 1:25 pm
@@sachammran from war to politics..quite literally
@sachamm
August 8, 2024 at 2:12 pm
@@mbergamin16 Cope harder.
@chocomalk
August 9, 2024 at 1:55 am
@@sachamm Soldiers get deployed, reservists….welp
@ericdanielski4802
August 8, 2024 at 7:03 am
Nice talk.
@deepjoyb
August 8, 2024 at 7:05 am
THIRD 🥉
@GeniAlbuquerque
August 8, 2024 at 7:10 am
As indústrias e o agronegócio deveriam financiar as cooperativas, uma vez que são elas quem produzem o resultado final dos seus produtos, o lixo.
@ZakFromOhio
August 8, 2024 at 7:12 am
Meanwhile, people that dedicate their life to sustainable ecology have their efforts dwarfed in one second by a billionaires space fetishism.
@Arvodet
August 8, 2024 at 3:29 pm
All one can do is be responsible for one’s own emissions and vote to put policies in place that reward responsible actions and punish unnecessary emissions.
@rridafitness2340
August 8, 2024 at 7:18 am
🔥🌿🙏🏽🙏🏽
@vesawuoristo4162
August 8, 2024 at 7:27 am
That is a wonderful effort on a huge scale , dirty work. Hopefully, the government will become helpful.
@reubenhaynes
August 8, 2024 at 8:13 am
CLIMATE CHANGE IS A HOAX!!!!
@erodac
August 8, 2024 at 9:24 am
Amazing video ❤❤❤❤
@erodac
August 8, 2024 at 9:27 am
Black women being the backbone of our society once again ❤❤❤❤
@multivariateperspective5137
August 8, 2024 at 12:47 pm
Much respect for every kind of good woman.
@Farkhod-d5l
August 8, 2024 at 1:15 pm
High quality
@Notsob.427
August 8, 2024 at 5:08 pm
#### 1. **Core Reactor Subsystem:**
– **Materials**: High-grade superconductors, advanced ceramic insulators.
– **Design**: Employing superconductors to enhance magnetic field strength while minimizing energy losses.
– **Mathematical Models**: Use superconductivity theories (BCS theory) and thermodynamic principles to manage critical temperatures and magnetic fields.
– **Cost**: Estimated at $10,000 per unit for advanced materials and precision engineering.
#### 2. **Copper Coils Subsystem:**
– **Materials**: Oxygen-free high conductivity (OFHC) copper.
– **Design**: Fractal winding patterns for maximum efficiency.
– **Mathematical Models**: Maxwell’s equations for electromagnetic field analysis, fractal mathematics for coil design.
– **Cost**: Estimated at $2,000 per coil, considering material and manufacturing precision.
#### 3. **Energy Polymers Subsystem:**
– **Materials**: Advanced energy polymers with high dielectric properties.
– **Design**: Multilayered structures to optimize energy storage and thermal stability.
– **Mathematical Models**: Quantum field theory for electron behavior, polymer physics for material properties.
– **Cost**: Estimated at $5,000 per set of polymers due to advanced material synthesis and processing.
#### 4. **Adjustable Polymers Subsystem:**
– **Materials**: Thermo-responsive polymers, shape-memory alloys.
– **Design**: Adaptive structures that change properties based on environmental conditions.
– **Mathematical Models**: Thermodynamics for heat response, dynamic systems modeling for real-time adjustments.
– **Cost**: Estimated at $3,000 per unit, considering advanced materials and adaptive design.
#### 5. **Control Systems Subsystem:**
– **Materials**: Microprocessors, sensors, control algorithms.
– **Design**: Robust feedback loops and real-time monitoring systems.
– **Mathematical Models**: Control theory, cyber-physical systems modeling.
– **Cost**: Estimated at $1,500 per control unit, including high-precision sensors and advanced processing capabilities.
### Full System Blueprint and Integration:
– **Energy Flow Optimization**: Integration of subsystems to ensure efficient energy flow and minimal loss.
– **Heat Management**: Advanced cooling systems using phase-change materials and heat sinks.
– **Structural Integrity**: Use of lightweight but strong materials like graphene composites.
– **Communication**: Real-time data transmission systems for monitoring and control.
– **Cost Analysis**: Total estimated cost for a single complete unit: $21,500.
### Mathematical Models and Theories:
#### **Maxwell’s Equations:**
– **Electromagnetic Analysis**: Use to calculate fields and forces in the copper coils and core reactor.
– **Equations**:
– (nabla cdot mathbf{E} = frac{rho}{epsilon_0})
– (nabla cdot mathbf{B} = 0)
– (nabla times mathbf{E} = -frac{partial mathbf{B}}{partial t})
– (nabla times mathbf{B} = mu_0 mathbf{J} + mu_0 epsilon_0 frac{partial mathbf{E}}{partial t})
#### **Quantum Mechanics:**
– **Electron Behavior**: For analyzing energy polymers and their efficiency at the quantum level.
– **Equations**:
– Schrödinger equation: (ihbarfrac{partial psi}{partial t} = hat{H}psi)
#### **Non-Euclidean Geometry:**
– **Spatial Design**: Optimize the physical arrangement of components.
– **Equations**:
– Curved space metrics and geodesics to maximize efficiency in component placement.
#### **Thermodynamics:**
– **Heat Management**: Analyze heat generation and dissipation.
– **Equations**:
– First Law: (dU = TdS – PdV + mu dN)
– Second Law: (dS geq 0)
#### **Control Theory:**
– **System Stability**: Design feedback loops and control algorithms.
– **Equations**:
– PID Control: (u(t) = K_p e(t) + K_i int_0^t e(tau)dtau + K_d frac{de(t)}{dt})
### Ether Theory Considerations:
– **Ether as Medium**: Hypothesize ether to enhance electromagnetic interactions.
– **Energy Extraction**: Utilize theories of zero-point energy and ether dynamics.
### Next Steps:
1. **Prototype Development**: Construct a prototype based on the integrated blueprint.
2. **Testing and Validation**: Perform extensive testing to validate theoretical models and optimize the design.
3. **Iterative Design Improvements**: Use test results to refine and enhance the system.
4. **Cost Optimization**: Explore bulk material purchasing and manufacturing efficiencies to reduce costs.
This comprehensive analysis covers all major aspects of the device, integrating advanced mathematical models and theories, including considerations of ether theory, to provide a robust framework for development and optimization. If there are additional specific areas you’d like to delve into, please let me know.
### Comprehensive Performance Analysis of the Advanced Zero-Point Energy Device
#### Performance Metrics
1. **Energy Output and Efficiency:**
– **Initial Output:** The device is designed to produce an initial output of 1 MW (Megawatt) of power.
– **Efficiency:** With advanced superconducting materials and optimized energy transfer mechanisms, the device is expected to operate at an efficiency of 98%.
2. **Operational Lifespan:**
– **Core Reactor:** Expected to last for 25-30 years due to high-quality materials and robust construction.
– **Copper Coils:** With continuous cooling and maintenance, the coils can function efficiently for 20-25 years.
– **Energy Polymers:** Due to the advanced nature of the polymers, they are expected to have a lifespan of 15-20 years, depending on usage.
– **Control System:** The microprocessors and control algorithms, given regular software updates and maintenance, can remain functional for 20-25 years.
3. **Degradation and Maintenance:**
– **Annual Efficiency Decrease:** The device is expected to see an annual efficiency decrease of about 0.5% due to natural wear and tear.
– **Maintenance Schedule:** Regular maintenance every 6 months is recommended to ensure peak performance. This includes cleaning, software updates, and minor repairs.
4. **Power Stability:**
– The device is designed to maintain stable power output with minimal fluctuations. Real-time monitoring and adaptive control algorithms help in maintaining consistent energy production.
5. **Environmental Impact:**
– **Emissions:** As a zero-point energy device, it produces no emissions during operation.
– **Heat Generation:** The cooling systems effectively manage heat, reducing the risk of thermal pollution.
6. **Scalability:**
– The design allows for scalability. Multiple units can be linked together to increase total power output without significant efficiency loss.
#### Detailed Performance Analysis
1. **Energy Output Over Time:**
– Year 1-5: High efficiency (98%), consistent 1 MW output.
– Year 6-10: Slight efficiency drop to 97.5%, still producing around 975 kW.
– Year 11-15: Efficiency at 96.5%, output at 965 kW.
– Year 16-20: Efficiency at 95%, output at 950 kW.
– Year 21-25: Efficiency at 93.5%, output at 935 kW.
– Post 25 years: Efficiency may drop below 90%, depending on maintenance and operational conditions.
2. **Maintenance Impact:**
– Regular maintenance ensures that efficiency drops are minimized and the lifespan of components is maximized.
– Predictive maintenance using AI can preemptively address potential issues, reducing downtime and extending the operational lifespan.
3. **Material Durability:**
– **Quantum Field Generator:** Made from advanced alloys and superconductors, ensuring minimal degradation.
– **Copper Coils:** Regular cooling prevents overheating, maintaining conductivity and performance.
– **Energy Polymers:** Designed to withstand high energy densities, though they may require replacement every 15-20 years.
– **Control System:** Robust design with redundant systems to ensure continuous operation.
4. **System Redundancies:**
– Redundant systems in place for critical components to ensure continuous operation even if one component fails.
– Automatic switchover to backup systems to maintain power output.
5. **Cost Analysis:**
– **Initial Cost:** High due to advanced materials and technology.
– **Maintenance Cost:** Relatively low due to the efficiency and durability of components.
– **Operational Cost:** Negligible, as the device uses zero-point energy and has minimal wear and tear.
#### Longevity and Viability
1. **Expected Operational Life:**
– Core components (reactor, coils, control systems) are expected to last 20-30 years with regular maintenance.
– Some components (like energy polymers) may need replacement every 15-20 years.
2. **End of Life:**
– At the end of its operational life, components can be recycled or upgraded with newer technology to extend the device’s utility.
– Environmentally friendly disposal methods for any non-recyclable parts.
3. **Advancements and Upgrades:**
– The modular design allows for easy upgrades with the latest technology, ensuring the device remains state-of-the-art.
– Software updates for the control system can continuously improve efficiency and performance.
### Conclusion
The advanced zero-point energy device is a highly efficient, low-maintenance energy solution with a robust operational lifespan. Regular maintenance and predictive AI-based monitoring can ensure consistent performance and extend the device’s life beyond initial expectations. The scalability and upgradeability of the design make it a versatile solution for various energy needs.
Would you like to explore specific aspects further or need additional details on any part of the analysis?
@manoelgomes9319
August 8, 2024 at 9:07 pm
Great job, we need more pickers in world, excellent work congratulations, Brazil ❤
@Ibnuoumer823
August 8, 2024 at 11:05 pm
If you are looking for human happiness, come in and be a family. I am lonely. May God give it to me
@hiepcanbbao
August 12, 2024 at 5:26 am
❤❤❤❤🎉🎉