1. Select SMD LEDs:
   • Ensure the SMD LED type you choose is 1113 (2835 Metric) as you specified earlier.
   • Verify the forward voltage and current ratings for proper design, though typical values might be 2.0V to 3.5V depending on the LED color.
2. Create LED Matrix Layout:
   • Position the SMD LEDs on your PCB to spell out "Bill".
   • You can manually place the LEDs or use a grid placement strategy.
3. Connect LEDs in Series or Parallel with Current-Limiting Resistors:
   • Determine if you’ll connect the LEDs in series, parallel, or a combination.
   • Each LED might need a current-limiting resistor.
4. Schematic Design:
   • Assign designators to each LED.
   • Draw connections and add resistors, power supply, and ground.
5. PCB Layout:
   • Place the LEDs on the PCB.
   • Route the traces to connect the components as per the schematic.

1. LED Placement:
   • Designators: LED1, LED2, ..., etc.
2. Resistors:
   • Assuming you use one resistor per LED.
3. Connections:
   • Connect each LED anode to the power supply line.
   • Connect the cathode of each LED through a resistor to ground.

• Top segment: $LED_1$ to $LED_2$
• Vertical segment: $LED_3$ to $LED_4$, $LED_5$

1. Place LEDs:
   • Position LEDs on the PCB to form the letters "B", "i", "l", "l".
2. Route Traces:
   • Connect LED anodes to a common VCC plane or rail.
   • Each LED cathode connects through a resistor to a ground plane or rail.

• LED:
  • $LED_1$, $LED_2$, ..., etc.
• Resistors:
  • $R_1$, $R_2$, ..., etc.
  • Assume resistor values typically of $330 \Omega$ to $1 k\Omega$.

• Power Supply Connections:
  • Connect $LED_1$:Anode to VCC.
  • Connect $LED_3$:Anode and $LED_4$:Anode to VCC.
  • Repeat for remaining LEDs forming the letter "B".
• Cathode Connections via Resistors:
  • Connect $LED_1$:Cathode to $R_1$:1.
  • Connect $R_1$:2 to ground.
  • Repeat for remaining LEDs forming the letter "B".

1. Schematics:
   • Sketch out the arrangement of LEDs and resistors.
   • Ensure each letter is correctly formed with enough spacing.
2. Assumptions:
   • We’ll assume each segment of a letter is formed by 2-3 LEDs.
   • Resistors are placed in series with each LED to limit current.
3. Connections:

• Vertical Bar: $LED_1$ to $LED_5$
• Upper Horizontal Bar: $LED_6$, $LED_7$
• Middle Horizontal Bar: $LED_8$, $LED_9$
• Bottom Horizontal Bar: $LED_{10}$, $LED_{11}$

B
Vertical Bar:  | LED_1 |
               | LED_2 |
               | LED_3 |
               | LED_4 |
               | LED_5 |
Upper Horizontal:     _ LED_6 LED_7
Middle Horizontal:     _ LED_8 LED_9
Bottom Horizontal:     _ LED_{10} LED_{11}

• Vertical Bar:
  • Connect:
    • $LED_1$: Anode to VCC
    • $LED_1$: Cathode to $R_1$: 1; $R_1$: 2 to ground
    • Repeat for $LED_2$ to $LED_5$
• Horizontal Bars:
  • Connect:
    • $LED_6$: Anode to VCC
    • $LED_6$: Cathode to $R_6$: 1; $R_6$: 2 to ground
    • Repeat for $LED_7$ to $LED_{11}$

1. Place LEDs:
   • Use LED designator: LED1, LED2, etc.
2. Place Resistors:
   • Use resistor designator: R1, R2, etc.

• Vertical Bar: Connect $LED_1$:Cathode to $R_1$: 1, $R_1$: 2 to ground. Repeat for $LED_2$ to $LED_5$.
• Horizontal Bars: Connect $LED_6$:Cathode to $R_6$: 1, $R_6$: 2 to ground. Repeat for $LED_7$ to $LED_{11}$.

1. Create a new project.
2. Add components:
   • Add SMD LED 1113 (2835 Metric) for each section of the letters.
   • Add appropriate resistors (start with 330 $\Omega$) in series with each LED.

1. Vertical Bar of 'B':
   • Place 5 LEDs vertically.
   • Starting with the top, number them as (LED1), (LED2), ..., (LED5).
   • Ensure equal spacing between LEDs for coherence.
2. Upper Horizontal Bar:
   • Place 2 LEDs horizontally at the top.
   • Name them (LED6), (LED7).
3. Middle Horizontal Bar:
   • Place 2 LEDs in the middle horizontally.
   • Name them (LED8), (LED9).
4. Bottom Horizontal Bar:
   • Place 2 LEDs at the bottom horizontally.
   • Name them (LED10), (LED11).

1. Vertical Line:
   • Place 2 LEDs vertically.
   • Name them (LED12), (LED13).
2. Dot:
   • Place 1 LED above the vertical line.
   • Name it (LED14).

1. Vertical Line:
   • Place 4 LEDs vertically.
   • Name them (LED15), (LED16), (LED17), (LED18).

1. Vertical Line:
   • Place 4 LEDs vertically again.
   • Name them (LED19), (LED20), (LED21), (LED22).

1. Adding Resistors:
   • Place a resistor in series with each LED to limit current (assuming resistor value 330 $\Omega$).

Markdown
Connect \([LED1](https://www.flux.ai/:handle/:documentSlug?fit=LED1)\):Cathode to \([R1](https://www.flux.ai/:handle/:documentSlug?fit=R1)\):1, \([R1](https://www.flux.ai/:handle/:documentSlug?fit=R1)\):2 to GND.
Connect \([LED2](https://www.flux.ai/:handle/:documentSlug?fit=LED2)\):Cathode to \([R2](https://www.flux.ai/:handle/:documentSlug?fit=R2)\):1, \([R2](https://www.flux.ai/:handle/:documentSlug?fit=R2)\):2 to GND.
Repeat similar connections for \([LED3](https://www.flux.ai/:handle/:documentSlug?fit=LED3)\) to \([LED5](https://www.flux.ai/:handle/:documentSlug?fit=LED5)\) through their respective resistors.

2. Connecting Horizontal LEDs of 'B':

Markdown
Connect \([LED6](https://www.flux.ai/:handle/:documentSlug?fit=LED6)\):Cathode to \([R6](https://www.flux.ai/:handle/:documentSlug?fit=R6)\):1, \([R6](https://www.flux.ai/:handle/:documentSlug?fit=R6)\):2 to GND.
Repeat similar connections for \([LED7](https://www.flux.ai/:handle/:documentSlug?fit=LED7)\), and similarly for \([LED8](https://www.flux.ai/:handle/:documentSlug?fit=LED8)\) to \([LED11](https://www.flux.ai/:handle/:documentSlug?fit=LED11)\).

3. Repeat for Letters 'i', 'l', 'l' in the similar manner.

• Flip to the PCB editor.
• Position the LEDs as planned.
• Connect the anodes of LEDs to a common VCC plane or trace.
• Connect the cathodes of LEDs through their respective resistors to the ground plane or trace.

• Vertical and horizontal LED placement for each letter.
• Series resistor connection for each LED to limit current.
• Proper layout in the Flux PCB editor to match the schematic.

• Toolbar: Contains options to add components, routes, and perform other actions.
• Canvas: The workspace where you design your schematic and PCB.
• Component Library: A searchable database of components you can use in your design.
• Inspector: Shows properties and settings for selected components or nets.

• Add Components: Drag components from the component library onto the canvas. You can search for specific components by their part number or description.
• Connect Components: Use wires to connect pins of different components. For example, to connect a resistor to a capacitor, you would create a wire connecting the appropriate pins.

• Position Components: Place your components on the canvas in a layout that makes logical sense.
• Route Traces: Connect the components with traces. Ensure that you follow good routing practices, such as avoiding right-angle traces and ensuring clearance between different nets[2].

• Add Simulation Models: Make sure each component has an associated simulation model.
• Run Simulations: Use the simulator to check for expected performance and identify potential issues[3].

• Generate Gerber Files: These files are used by PCB manufacturers to produce your board.
• Export BOM: Generate a Bill of Materials for ordering parts.

• Documentation: Detailed guides on using different features of Flux.
• Community: Join the Slack community where you can ask questions and get answers from other users and the Flux team[4].
• YouTube Tutorials: Explore video tutorials and recorded events for a more visual guide[5].