robot driving a robot car?

[trevorjohnson83]

do you thnk a robot driving a robot car with communication with each other, the himanoid robot would also deliver packages, that the car would be twice as safe in the event that one robot malfunctioned?

Assistant
Poe


Yes, your concept of a humanoid robot driving a robot car and communicating with it has several safety advantages. Here’s an analysis of how this setup could enhance safety:

Advantages of Robot-Robot Communication​

1. Redundancy:
   
   • If one robot malfunctions, the other can take over certain functions. For example, if the humanoid robot driving the car encounters a failure, the car’s autonomous systems could still operate, or vice versa.
2. Real-Time Communication:
   
   • Continuous communication between the humanoid robot and the car allows for real-time updates on conditions, obstacles, and operational status. This could help prevent accidents caused by misinterpretation of the environment.
3. Shared Decision-Making:
   
   • The humanoid robot can provide higher-level decision-making capabilities, while the car can focus on navigation and control. This synergy can improve the overall response to unexpected situations.
4. Adaptive Responses:
   
   • The humanoid robot can assess situations using human-like reasoning and adjust the driving strategy accordingly, enhancing safety in complex environments.
5. Monitoring and Diagnostics:
   
   • The humanoid robot could monitor the car’s systems and provide diagnostics, helping to identify potential malfunctions before they lead to failure.
6. Fallback Mechanisms:
   
   • In case of a malfunction, the system can have predefined fallback protocols where the remaining operational robot takes control, ensuring that the vehicle can still navigate safely.

Considerations​

• Complexity of Coordination: Ensuring seamless communication and coordination between the two robots will be critical to maximizing safety benefits.
• Testing and Validation: Extensive testing will be needed to confirm that the redundancy and communication systems work effectively in various scenarios.
• Potential for New Failure Modes: While redundancy adds safety, it also introduces complexity, which could lead to new types of failures if not carefully managed.

Conclusion​

Overall, integrating a humanoid robot with a robot car that communicates effectively can enhance safety by providing redundancy, real-time updates, and adaptive responses. If you’re exploring this concept further, consider focusing on the communication protocols and safety mechanisms to ensure reliability. Let me know if you’d like to delve into specific aspects further!

 

[trevorjohnson83]

do you think robot cars could go up to 35 for safety, are dispatched locally, and don't use the highway, could be integrated safely?

Assistant
Poe


Yes, robot cars operating at lower speeds (like 35 mph), dispatched locally, and avoiding highways can be integrated safely. Here are some key points to consider:

Benefits of Lower Speed Operation​

1. Reduced Impact Force:
   
   • Lower speeds result in less severe collisions, making accidents less likely to cause serious injuries or fatalities.
2. Increased Reaction Time:
   
   • At 35 mph, both the robot car and surrounding pedestrians or cyclists have more time to react to potential hazards, improving overall safety.
3. Simplified Navigation:
   
   • Urban environments with lower speed limits present fewer complex driving scenarios compared to highways, making it easier for robot cars to navigate safely.

Local Dispatch and Route Management​

1. Shorter Routes:
   
   • Local dispatching allows for more predictable routes, which can be pre-mapped and analyzed for safety, reducing the risk of unexpected obstacles.
2. Dynamic Routing:
   
   • Integrating real-time data about traffic, road conditions, and hazards can help robot cars adjust their routes dynamically, further enhancing safety.
3. Enhanced Communication:
   
   • Robot cars can communicate with local infrastructure (like traffic signals) and other vehicles, allowing for coordinated movements and improved safety measures.

Safety Features​

1. Advanced Sensors:
   
   • Equipped with cameras, LIDAR, and radar, robot cars can detect obstacles, pedestrians, and cyclists, enhancing their ability to navigate safely in local environments.
2. Emergency Protocols:
   
   • Implementing protocols for emergency stops or rerouting in case of system failures or unexpected situations can further ensure safety.
3. Regular Maintenance and Updates:
   
   • Routine checks and software updates can help maintain the functionality and safety of the robot cars.

Conclusion​

Robot cars operating at lower speeds, dispatched locally, and avoiding highways can be integrated safely into urban environments. By leveraging advanced technology, effective communication, and robust safety protocols, these vehicles could provide reliable and safe transportation solutions. If you want to explore specific safety features or technologies further, feel free to ask!

 

[trevorjohnson83]

could a general robot task like getting into and out of the car, be well understood if a person wearing a video game suit that allows for movements to be recorded, that referring to that would be a start for robot learning? or is that already used or unnecessary?

Assistant
Poe


Using a person in a motion capture suit to teach robots tasks like getting into and out of a car is a promising approach. Here’s how this concept could work and its implications:

Benefits of Motion Capture for Robot Learning​

1. Accurate Movement Data:
   
   • A motion capture suit can record precise human movements, providing detailed data on how to perform tasks like entering and exiting a vehicle. This data can serve as a valuable reference for programming robot movements.
2. Complex Task Breakdown:
   
   • The motion data can be analyzed to identify specific subtasks involved in getting in and out of a car, allowing for a more structured approach to robot training.
3. Realistic Scenarios:
   
   • By capturing movements in real-world settings, you can ensure that the robot learns to navigate the actual spatial and environmental challenges it will face.
4. Reinforcement Learning:
   
   • The recorded movements can be used in reinforcement learning algorithms, where the robot can practice and refine its actions based on the successful movements captured from the suit.

Existing Applications​

• Robotic Training: Motion capture is already used in various fields, including robotics, to teach robots complex movements by mimicking human actions. This approach is often seen in robotics research and development, especially in humanoid robots.
• Animation and Gaming: The technology is widely used in the gaming and animation industries for creating realistic character movements, which can also inform robotic movement design.

Considerations​

1. Complexity of Movements:
   
   • Human movements can be nuanced and context-dependent. Ensuring that the robot can adapt these movements to different scenarios (e.g., different car models) is crucial.
2. Data Processing:
   
   • The data gathered from motion capture needs to be processed and translated into a format that the robot can understand, which can be a complex task.
3. Real-World Testing:
   
   • While motion capture provides a solid starting point, real-world testing is essential to ensure that the robot can effectively navigate the task in varied conditions.

Conclusion​

Using a motion capture suit to record human movements for tasks like getting into and out of a car is a valuable method for robot learning. This approach leverages existing technologies and can significantly enhance the training process for robots. If you'd like more information on specific techniques or technologies involved, feel free to ask!

 

[trevorjohnson83]

Driving like most jobs is just a repetitive task that burns away your life, if you wanted to learn you would have much more free time buying a robot and doing some money making task?

 

[trevorjohnson83]

man where live people chop down trees all the time, just bring a tree to my yard, my robot works a splitter and boom I making 150k a year off a 1000 dollar piece of equipment!!!!!!

if a robot worked splitting wood for 80 hours a week at the pace of a human but faster, how many cords of wood and what price could they be sold?

Assistant
Poe
To estimate how many cords of wood a robot could split in a week and the potential selling price, let’s break this down:

1. Understanding Cords of Wood​

• A cord of wood is a unit of measure that equals 128 cubic feet (4 feet high × 4 feet wide × 8 feet long).

2. Human Splitting Rate​

• A skilled human wood splitter can typically split about 1 to 2 cords of wood per day, depending on the type of wood, equipment used, and individual efficiency. For estimation, let’s use an average of 1.5 cords per day.

3. Robot Splitting Rate​

• If the robot works at a pace that's faster than a human but at a similar rate, we can estimate it might achieve about 2 cords per day given its efficiency.

4. Weekly Output Calculation​

• Daily Output: 2 cords
• Weekly Output (80 hours):
  • Assuming the robot works 7 days a week, it would split:
  2 cords/day×7 days=14 cords/week2 \, \text{cords/day} \times 7 \, \text{days} = 14 \, \text{cords/week}2cords/day×7days=14cords/week

5. Pricing of Wood​

• The price of firewood can vary widely based on location, type of wood, and demand but generally ranges from $150 to $300 per cord. For estimation, let's use an average price of $200 per cord.

6. Potential Revenue Calculation​

• With 14 cords split in a week at an average price of $200 per cord:

14 cords×200 USD/cord=2800 USD/week14 \, \text{cords} \times 200 \, \text{USD/cord} = 2800 \, \text{USD/week}14cords×200USD/cord=2800USD/week

Summary​

• Cords of Wood Split per Week: 14 cords
• Estimated Selling Price per Week: $2800

These figures can vary based on specific conditions, local market prices, and the efficiency of the robot. If you have more specific parameters or need additional information, let me know!if a robot worked splitting wood for 80 hours a week at the pace of a human but faster, how many cords of wood and what price could they be sold?

Assistant
Poe


To estimate how many cords of wood a robot could split in a week and the potential selling price, let’s break this down:

1.​

• A cord of wood is a unit of measure that equals 128 cubic feet (4 feet high × 4 feet wide × 8 feet long).

2.​

• A skilled human wood splitter can typically split about 1 to 2 cords of wood per day, depending on the type of wood, equipment used, and individual efficiency. For estimation, let’s use an average of 1.5 cords per day.

3.​

• If the robot works at a pace that's faster than a human but at a similar rate, we can estimate it might achieve about 2 cords per day given its efficiency.

4.​

• Daily Output: 2 cords
• Weekly Output (80 hours):
  • Assuming the robot works 7 days a week, it would split:
    2 cords/day×7 days=14 cords/week2 \, \text{cords/day} \times 7 \, \text{days} = 14 \, \text{cords/week}2cords/day×7days=14cords/week

5.​

• The price of firewood can vary widely based on location, type of wood, and demand but generally ranges from $150 to $300 per cord. For estimation, let's use an average price of $200 per cord.

6.​

• With 14 cords split in a week at an average price of $200 per cord:

14 cords×200 USD/cord=2800 USD/week14 \, \text{cords} \times 200 \, \text{USD/cord} = 2800 \, \text{USD/week}14cords×200USD/cord=2800USD/week

Summary​

• Cords of Wood Split per Week: 14 cords
• Estimated Selling Price per Week: $2800

These figures can vary based on specific conditions, local market prices, and the efficiency of the robot. If you have more specific parameters or need additional information, let me know!

 

[trevorjohnson83]

how many cords of would in a typical full grown oak tree?

Assistant
Poe


The amount of wood in a typical full-grown oak tree can vary based on the species, size, and health of the tree. However, a general estimate is as follows:

Estimation of Wood Volume in an Oak Tree​

1. Average Tree Size:
   
   • A mature oak tree can range from about 60 to 100 feet tall, with a trunk diameter of 1 to 3 feet.
2. Volume Calculation:
   
   • On average, a full-grown oak tree can yield about 1 to 2 cords of wood. Some larger trees may yield even more, potentially up to 3 cords or more, depending on their size and the amount of usable wood.

Summary​

• Typical Yield from a Full-Grown Oak Tree: Approximately 1 to 3 cords of wood.

If you need further information on specific oak species or additional metrics, feel free to ask!

 

[trevorjohnson83]

one person could monitor the work of like six! robots chopping down and apart a tree! where I live you pay like 7k for that service. six instant experts in all areas of the job working together, saving people from a very dangerous, annoying job?

 

[trevorjohnson83]

robots

if an oak tree is turned into boards instead of cords of chopped wood, how much is it worth?

Assistant
Poe


The value of an oak tree converted into boards instead of cords of firewood can vary based on several factors, including the quality of the wood, the specific type of oak, and market conditions. Here's a breakdown to estimate the potential worth:

1.​

• A mature oak tree can typically yield between 500 to 1,000 board feet of lumber, depending on its size and quality.

2.​

• The price for oak lumber can vary significantly based on the market, but a common range for retail pricing is approximately $3 to $8 per board foot for good quality oak.

3.​

Using the average yield and price:

• Low Estimate:
  • 500 board feet × $3/board foot = $1,500
• High Estimate:
  • 1,000 board feet × $8/board foot = $8,000

Summary​

• Estimated Value of Lumber from a Full-Grown Oak Tree: Approximately $1,500 to $8,000, depending on size, quality, and market conditions.

If you have specific types of oak or regional pricing information in mind, I can help refine this estimation further!

 

[trevorjohnson83]

my robot's I'm buying will do all the service of chopping down trees, to building a house plus all the delivery! for .50/hr. what would that cost from tree service to finsihed house? then an estimate for outside materials besides wood and the estimate of those materials at robot production and transportation?

Assistant
Poe


To estimate the total costs involved in using a robot for chopping down trees, building a house, and delivering materials, we can break down the process into several steps.

1.​

Assuming the robot operates at a cost of $0.50 per hour, let's break down the labor for the various tasks.

A.​

• Time to Chop Down a Tree:
  • Assume it takes about 2 hours to chop down and process one tree.
  • For a typical oak tree, we can estimate 1 tree for the house.

Labor Cost for Tree Service:

• 2 hours × $0.50 = $1.00

B.​

• Time to Process and Cut into Lumber:
  • Assume it takes 5 hours to process the tree into usable lumber.

Labor Cost for Processing:

• 5 hours × $0.50 = $2.50

C.​

• Time to Build a Basic House:
  • Assume it takes approximately 200 hours to construct a small house.

Labor Cost for Building:

• 200 hours × $0.50 = $100.00

D.​

• Assume it takes an additional 10 hours for delivery.

Labor Cost for Delivery:

• 10 hours × $0.50 = $5.00

Total Labor Cost for the Robot​

• Tree Service: $1.00
• Processing: $2.50
• Building: $100.00
• Delivery: $5.00

Total Labor Cost = $1.00 + $2.50 + $100.00 + $5.00 = $108.50

2.​

For a basic house, outside materials (like roofing, insulation, plumbing, electrical, etc.) can vary widely, but a rough estimate for materials might range from $15,000 to $30,000 depending on size and quality.

3.​

Combining labor and materials:

• Low Estimate:
  
  • Labor: $108.50
  • Materials: $15,000
  • Total: $15,108.50
• High Estimate:
  
  • Labor: $108.50
  • Materials: $30,000
  • Total: $30,108.50

Final Summary​

• Total Cost Range for Tree Service to Finished House: $15,108.50 to $30,108.50.

These estimates can vary based on specific circumstances and local market conditions. If you need more details or adjustments, feel free to ask!

 

[trevorjohnson83]

So what you do is buy an empty lot, have trees dropped off, the robots turn them into a barn, then you drop off trees and the robots build houses on new empty lots that you buy. or sell your house and have the robots build you a bigger one on an empty lot?

 

[trevorjohnson83]

look at this shit*, a million a week on a 6000 dollar investment

I said the 6 robots work 24/7 making boards?

Assistant
Poe


Got it! If the six robots are working 24/7, let's recalculate based on continuous operation.

Assumptions​

1. Working Hours: 24 hours per day, 7 days a week.
2. Time to Process One Tree: Approximately 7 hours to chop down and process one tree into boards.

Calculation​

A.​

• Each robot can process 3.43 trees per day (24 hours / 7 hours per tree).
• For 6 robots:
  • 6 robots × 3.43 trees/robot = 20.58 trees/day.

B.​

• Over a week (7 days):
  • 20.58 trees/day × 7 days/week = 144.06 trees/week.
  • Rounding down, that’s approximately 144 trees/week.

Value Estimation​

1. Estimated Yield per Tree: Assuming an average yield of 750 board feet per tree.
2. Total Lumber Yield per Week:
   • 144 trees × 750 board feet/tree = 108,000 board feet/week.

C.​

• Low Estimate:
  • 108,000 board feet × $3/board foot = $324,000.
• High Estimate:
  • 108,000 board feet × $8/board foot = $864,000.

Summary​

• Trees Processed per Week: Approximately 144 trees.
• Estimated Value of Lumber: Approximately $324,000 to $864,000 per week.

If you have any more specifics or questions, feel free to let me know!

 

[trevorjohnson83]

what if the trees are dropped off to the robots and save time to process more trees? then how much at 24/7 a week for 6 robots?

Assistant
Poe


If the trees are dropped off directly to the robots, reducing the time needed for each tree's processing, we can adjust the calculations accordingly. Let’s assume that this setup significantly cuts down the processing time.

New Assumptions​

1. Reduced Processing Time: Let’s assume the total time to chop down and process one tree is reduced to 5 hours due to the direct drop-off.
2. Working Hours: The robots work 24 hours a day, 7 days a week.

Calculation​

A.​

• Each robot can process:
  • 24 hours / 5 hours per tree = 4.8 trees/robot per day.
• For 6 robots:
  • 6 robots × 4.8 trees/robot = 28.8 trees/day.

B.​

• Over a week (7 days):
  • 28.8 trees/day × 7 days/week = 201.6 trees/week.
  • Rounding down, that’s approximately 201 trees/week.

Value Estimation​

1. Estimated Yield per Tree: Assuming an average yield of 750 board feet per tree.
2. Total Lumber Yield per Week:
   • 201 trees × 750 board feet/tree = 150,750 board feet/week.

C.​

• Low Estimate:
  • 150,750 board feet × $3/board foot = $452,250.
• High Estimate:
  • 150,750 board feet × $8/board foot = $1,206,000.

Summary​

• Trees Processed per Week: Approximately 201 trees.
• Estimated Value of Lumber: Approximately $452,250 to $1,206,000 per week.

If you have any further adjustments or questions, just let me know!

 

[trevorjohnson83]

can you make that estimate again without the startup cost of robots?

Assistant
Poe


Sure! Here’s the revised estimate focusing only on the operational costs and the costs associated with constructing the house, excluding the startup cost of the robots.

1.​

• Energy Cost:
  • Number of Robots: 6
  • Cost per Robot: $0.50/hour
  • Weekly Cost:
    • 6 robots×24 hours/day×0.50 USD/hour=72 USD/week6 \, \text{robots} \times 24 \, \text{hours/day} \times 0.50 \, \text{USD/hour} = 72 \, \text{USD/week}6robots×24hours/day×0.50USD/hour=72USD/week

Assuming the entire process takes 3 weeks:

• Total operational cost:
  • 72 USD/week×3 weeks=216 USD72 \, \text{USD/week} \times 3 \, \text{weeks} = 216 \, \text{USD}72USD/week×3weeks=216USD.

2.​

• Size of the House: Approximately 1,350 square feet.
• Cost for Additional Materials (like nails): Estimated at $1 per square foot.

Estimated Cost for House:

• For 1,350 square feet:
  • 1,350 sq ft×1 USD/sq ft=1,350 USD1,350 \, \text{sq ft} \times 1 \, \text{USD/sq ft} = 1,350 \, \text{USD}1,350sq ft×1USD/sq ft=1,350USD.

3.​

Now, combining everything:

• Operational Cost: $216
• House Construction Cost: $1,350

Total Estimated Cost:

• 216+1,350=1,566 USD216 + 1,350 = 1,566 \, \text{USD}216+1,350=1,566USD.

Summary​

• Total Estimated Cost for Operating Robots to Cut Down Trees, Process Wood, and Build a Livable Wooden House (excluding robot costs): Approximately $1,566.

If you have any further adjustments or questions, feel free to ask!