engrrifatullah commited on
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c936138
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Update app.py

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  1. app.py +28 -17
app.py CHANGED
@@ -3,23 +3,28 @@ import numpy as np
3
 
4
  # Optimization function
5
  def optimize_process(resource_allocation, machine_efficiency, production_goal, time_frame, waste_tolerance):
6
- # Simplified model: Replace with actual optimization logic (e.g., regression, linear programming)
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-
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- # Example output based on basic assumptions
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- machines_needed = np.ceil(production_goal / (time_frame * machine_efficiency))
10
- expected_output = machines_needed * time_frame * machine_efficiency
11
  waste_output = (expected_output * waste_tolerance) / 100
12
 
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- # Calculate the efficiency improvement needed
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- target_efficiency = 1.0 # Target efficiency is 100%
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- efficiency_improvement_needed = max(0, (target_efficiency - machine_efficiency) * 100)
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-
 
 
 
 
 
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  return {
18
  'Machines Needed': machines_needed,
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  'Expected Output': expected_output,
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  'Waste Output': waste_output,
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  'Efficiency Improvement Needed': efficiency_improvement_needed,
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- 'Optimization Recommendation': f"Machines efficiency should be at least {target_efficiency * 100}% for the best results."
 
23
  }
24
 
25
  # Streamlit App Layout
@@ -33,7 +38,7 @@ This tool helps you **optimize your manufacturing processes** by adjusting **res
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  with st.sidebar:
34
  st.header("πŸ”§ Enter Manufacturing Parameters")
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  resource_allocation = st.number_input("πŸ”’ Number of machines available", min_value=1, max_value=100, value=10, step=1)
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- machine_efficiency = st.slider("βš™οΈ Machine Efficiency (%)", min_value=0, max_value=100, value=80)
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  production_goal = st.number_input("πŸ“ˆ Desired production goal (units)", min_value=1, max_value=1000, value=100, step=1)
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  time_frame = st.number_input("⏳ Production time frame (hours)", min_value=1, max_value=24, value=8, step=1)
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  waste_tolerance = st.slider("♻️ Maximum waste tolerance (%)", min_value=0, max_value=100, value=5)
@@ -43,14 +48,20 @@ st.subheader("πŸ” Optimization Results")
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  if st.button("πŸš€ Optimize Process"):
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  # Get optimization results
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- optimized_output = optimize_process(resource_allocation, machine_efficiency / 100, production_goal, time_frame, waste_tolerance)
 
 
 
 
 
 
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  # Display the optimized configuration
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  st.write(f"### πŸ› οΈ Optimized Configuration:")
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- st.write(f"**Machines Needed**: {optimized_output['Machines Needed']}")
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  st.write(f"**Expected Output**: {optimized_output['Expected Output']} units")
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- st.write(f"**Expected Waste**: {optimized_output['Waste Output']} units")
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- st.write(f"**Efficiency Improvement Needed**: {optimized_output['Efficiency Improvement Needed']}%")
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  st.write(f"**Recommendation**: {optimized_output['Optimization Recommendation']}")
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  # Generate Optimization Report
@@ -62,12 +73,12 @@ if st.button("πŸš€ Optimize Process"):
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  - **Resource Allocation**: The number of machines available is adequate, but you could potentially increase the machine count to optimize the process.
63
 
64
  ### Suggestions for Improvement:
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- 1. **Improve Machine Efficiency**: A **{optimized_output['Efficiency Improvement Needed']}%** increase in machine efficiency will help meet the desired production standards.
66
  2. **Increase Machines**: Allocating more machines could help meet the production goal faster and reduce the time required.
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  3. **Reduce Downtime**: Consider adjusting shift lengths or optimizing machine usage to reduce downtime and improve efficiency.
68
 
69
  ### Next Steps:
70
- - Aim to **improve machine efficiency by {optimized_output['Efficiency Improvement Needed']}%** for optimal results.
71
  - **Monitor waste** closely to reduce it further and ensure the production process remains efficient.
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  - Review your **production goals** to ensure you are using the most efficient configuration of resources.
73
  """)
 
3
 
4
  # Optimization function
5
  def optimize_process(resource_allocation, machine_efficiency, production_goal, time_frame, waste_tolerance):
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+ # Calculate current production capacity
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+ current_capacity = resource_allocation * machine_efficiency * time_frame
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+ machines_needed = np.ceil(production_goal / (machine_efficiency * time_frame))
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+ expected_output = min(current_capacity, production_goal)
 
10
  waste_output = (expected_output * waste_tolerance) / 100
11
 
12
+ # Determine realistic efficiency improvement recommendation
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+ if current_capacity < production_goal:
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+ required_efficiency = production_goal / (resource_allocation * time_frame)
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+ realistic_efficiency = min(95, required_efficiency * 100) # Cap realistic efficiency at 95%
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+ efficiency_improvement_needed = max(0, realistic_efficiency - machine_efficiency * 100)
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+ else:
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+ realistic_efficiency = machine_efficiency * 100
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+ efficiency_improvement_needed = 0
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+
21
  return {
22
  'Machines Needed': machines_needed,
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  'Expected Output': expected_output,
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  'Waste Output': waste_output,
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  'Efficiency Improvement Needed': efficiency_improvement_needed,
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+ 'Recommendation Efficiency': realistic_efficiency,
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+ 'Optimization Recommendation': f"Machines efficiency should be at least {realistic_efficiency:.1f}% for the best results."
28
  }
29
 
30
  # Streamlit App Layout
 
38
  with st.sidebar:
39
  st.header("πŸ”§ Enter Manufacturing Parameters")
40
  resource_allocation = st.number_input("πŸ”’ Number of machines available", min_value=1, max_value=100, value=10, step=1)
41
+ machine_efficiency = st.slider("βš™οΈ Machine Efficiency (%)", min_value=50, max_value=95, value=80, step=1) # Max efficiency capped at 95%
42
  production_goal = st.number_input("πŸ“ˆ Desired production goal (units)", min_value=1, max_value=1000, value=100, step=1)
43
  time_frame = st.number_input("⏳ Production time frame (hours)", min_value=1, max_value=24, value=8, step=1)
44
  waste_tolerance = st.slider("♻️ Maximum waste tolerance (%)", min_value=0, max_value=100, value=5)
 
48
 
49
  if st.button("πŸš€ Optimize Process"):
50
  # Get optimization results
51
+ optimized_output = optimize_process(
52
+ resource_allocation,
53
+ machine_efficiency / 100,
54
+ production_goal,
55
+ time_frame,
56
+ waste_tolerance
57
+ )
58
 
59
  # Display the optimized configuration
60
  st.write(f"### πŸ› οΈ Optimized Configuration:")
61
+ st.write(f"**Machines Needed**: {int(optimized_output['Machines Needed'])}")
62
  st.write(f"**Expected Output**: {optimized_output['Expected Output']} units")
63
+ st.write(f"**Expected Waste**: {optimized_output['Waste Output']:.2f} units")
64
+ st.write(f"**Efficiency Improvement Needed**: {optimized_output['Efficiency Improvement Needed']:.2f}%")
65
  st.write(f"**Recommendation**: {optimized_output['Optimization Recommendation']}")
66
 
67
  # Generate Optimization Report
 
73
  - **Resource Allocation**: The number of machines available is adequate, but you could potentially increase the machine count to optimize the process.
74
 
75
  ### Suggestions for Improvement:
76
+ 1. **Improve Machine Efficiency**: A **{optimized_output['Efficiency Improvement Needed']:.2f}%** increase in machine efficiency will help meet the desired production standards.
77
  2. **Increase Machines**: Allocating more machines could help meet the production goal faster and reduce the time required.
78
  3. **Reduce Downtime**: Consider adjusting shift lengths or optimizing machine usage to reduce downtime and improve efficiency.
79
 
80
  ### Next Steps:
81
+ - Aim to **improve machine efficiency to {optimized_output['Recommendation Efficiency']:.1f}%** for optimal results.
82
  - **Monitor waste** closely to reduce it further and ensure the production process remains efficient.
83
  - Review your **production goals** to ensure you are using the most efficient configuration of resources.
84
  """)