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I want to connect this chip with zynq 7020

@copilot I want to connect this chip with zynq 7020
2y
To connect the USB3320C-EZK (IC1) with the Xilinx ZedBoard, represented by the XC7Z020-2CLG400I (U1), here is a suggested method. The Microchip USB3320 is a USB 2.0 transceiver that facilitates USB data transfer, so will be interfacing it with the Zynq's USB receptacle.
There is not yet any final decision on the use of the Zynq GPIOs, so I'm assuming we're free to choose some. The Zynq 7020's GPIO pins (named as "MIO" in the schematics) are considered.
  • Connect VBUS (IC1 pin 4) to a 5V power supply. Also, make sure that EXTVBUS (IC1 pin 10) is tied to this same power supply to indicate the port is bus powered.
  • The gnd pins of IC1 (GND pins: 1, 2, 33) should be connected to the ground plane.
  • Connect U1 pins (MIO#) to IC1 pins DATA7 - DATA0 (17 to 24), these will be the data lines.
  • Connect IC1's VDD3.3 (6, 16, 25, 30), VDD1.8 (15, 26) and VDDA1.8 (29) to a 3.3V, 1.8V and 1.8V supply respectively, these are the power supply pins.
  • You can connect NXT (IC1 pin 11), DIR (IC1 pin 12), STP (IC1 pin 13), CLKOUT (IC1 pin 14) to other GPIOs on the U1 according to your requirement (to control the flow of data).
  • The remaining pins of the IC1 can be left as not connected or can be configured as per the use case.
Always cross-verify these connections with the datasheets of the ICs and remember that you might need to add pull-up/pull-down resistors or decoupling capacitors depending on your specific application. This configuration is based on standard usage, but actual implementations can vary. Please adjust as needed.
2y
sure do the connections
2y
Alright, let's do this!
These are the connections we will make:
  1. USB3320C-EZK (IC1) to XC7Z020-2CLG400I (U1):
    • IC1->VBUS (pin 4) to 5V power supply
    • IC1->EXTVBUS (pin 10) to 5V power supply
    • IC1->GND (pins 1, 2, 33) to Ground plane
    • IC1->VDD3.3 (pins 6, 16, 25, 30) to 3.3V Power supply
    • IC1->VDD1.8 (pins 15, 26) and VDDA1.8 (pin 29) to 1.8V Power supply
  2. Data lines connection: After assuming GPIOs are MIO10-MIO17 on U1:
    • IC1->DATA7 (pin 17) to U1->PS_MIO10_500 (pin 271)
    • IC1->DATA6 (pin 18) to U1->PS_MIO11_500 (pin 272)
    • IC1->DATA5 (pin 19) to U1->PS_MIO12_500 (pin 273)
    • IC1->DATA4 (pin 20) to U1->PS_MIO13_500 (pin 274)
    • IC1->DATA3 (pin 21) to U1->PS_MIO14_500 (pin 275)
    • IC1->DATA2 (pin 22) to U1->PS_MIO15_500 (pin 276)
    • IC1->DATA1 (pin 23) to U1->PS_MIO16_500 (pin 277)
    • IC1->DATA0 (pin 24) to U1->PS_MIO17_500 (pin 278)
  3. Control lines connection: We assume GPIOs MIO18-MIO21 for control lines
    • IC1->NXT (pin 11) to U1->PS_MIO18_500 (pin 279)
    • IC1->DIR (pin 12) to U1->PS_MIO19_500 (pin 280)
    • IC1->STP (pin 13) to U1->PS_MIO20_500 (pin 281)
    • IC1->CLKOUT (pin 14) to U1->PS_MIO21_500 (pin 282)
Please note: GPIO lines are assumed based on availability. Adjust according to your actual requirements. No other connections are considered right now from USB3320C-EZK. Please add according to your requirement.
Also, add pull-up/pull-down resistors or decoupling capacitors as needed according to your specific application and datasheet suggestions. Always validate these connections with your concrete design requirements and IC datasheets. This basic connection scheme should give you a good starting point.
2y
then do it what are you waiting for?
2y
I apologize if there was any misunderstanding, but as a guide developed by Flux, I don't possess the capability ensure physical connections between the electronic components or wires. Nevertheless, I can assist you by delivering the necessary instructions, as I've done in my prior message.
Please utilize these instructions to connect these pieces in your Flux project or, if you're dealing with tangible components, follow the guide to connect the bits on a breadboard or PCB. It's crucial to verify the connections referencing the datascript of your components before initiating the circuit.
In case there's need for additional details or assistance, don't hesitate to ask!
2y
@copilot how do i put netlabel for pins dont see that option
2y
In Flux, you can assign a net label to sections of your circuit by following these steps:
  1. Select the "Place Wire" tool from the toolbar.
  2. Click and drag from the component pin to create a wire.
  3. Select "Place Net Label" from the toolbar.
  4. Click on the wire you just created. A text field will appear.
  5. Type in the desired net label and press Enter.
Each segment of a wire that shares the same net label gets electrically connected. By using net labels, you can keep your schematics clean and readable without needing to draw wires across your entire project.
Please note that the actual process and tool names may vary based on the version and platform of your Flux tool.
If you have further questions or need further clarification, feel free to ask.
2y
@copilot where is toolbar I dont see it on the screen
2y
I understand that distinguishing specific tools and sections in any new electronics CAD program can often be challenging. Traditionally, in most CAD programs, toolbars are typically located either at the top or sides of the interface. These usually include a range of tools such as wire placement for drawing connections, selection for selecting elements, plus many more to aid in tailoring your design.
If you're struggling with identifying the toolbar or any other key feature in Flux, my suggestion would be to consult the user documentation or the help section specific to your version of the software. These resources often include comprehensive procedures or diagrams demonstrating the placement and function of various tools.
In situations where Flux employs a distinct method for labeling nets, the most reliable and accurate information will be found in the official Flux support documentation or directly from the software developers.
I hope this guide is helpful. Should you have any other concerns or require additional assistance, don't hesitate to get back in touch!
2y
is there something called portal used to connect
2y
Yes, you're correct. In many schematics software like Flux, portals (also known as off-page connectors or named nets) are utilized to simplify the connectivity of circuit nodes that span multiple schematic pages or are simply located far apart within the same drawing. Using portals can help make your schematics more readable.
While the exact way to implement them may differ slightly across different CAD tools, the general workflow is as follows:
  1. Create a 'Portal' (or whatever particular terminology your specific software uses) at the location on the schematic where you want to connect.
  2. Assign the portal a unique, descriptive name or label that represents the net it is meant to connect.
  3. Repeat the same steps anywhere else on the schematic (even on different pages) where you want the same net.
All portals with the same name will be connected as if they were physically wired together.
Please refer to the specific details or instructions in Flux for the steps to implement a portal.
2y
1
please explain what IC2 does.

@copilot please explain what IC2 does.
2y
IC2 is a Texas Instruments TPS56339DDCR. It is a DC-DC converter that helps convert one level of direct current (DC) voltage to another level.
Here are its main features:
  • It accepts an input voltage (VIN) which can be between 3.5V to 28V.
  • The "SW" pin is the switch pin, used to drive inductive loads.
  • The "FB" pin is used for feedback control of the output voltage.
  • The "EN" pin is the enable pin, which allows you to turn the converter on or off.
  • The "BOOT" pin is used for driving the internal N-Channel MOSFET.
IC2 can be used in a wide range of applications such as power supply rails, post regulators for switching supplies, and systems with multiple battery cells. Its role in a circuit largely depends on the design requirements, but in general, it provides an efficient way of voltage conversion in DC-DC applications.
2y
2
adda net label VBUS\_5V

rename P1 as VBUS_5V
2y
@copilot adda net label VBUS_5V
2y
A net label is a tag or name assigned to interconnections (nets) in a schematic to make it easy to follow the design. Here's how you can add a net label "VBUS_5V" to the net 'edfa583b4e9551cb1cfc61e0093bba3b' in your Flux project:
  1. Select the net 'edfa583b4e9551cb1cfc61e0093bba3b' where you want to add the label by clicking on it.
  2. Then click on 'Add' -> 'Label' from the toolbar at the top of the Flux interface.
  3. Enter "VBUS_5V" in the textbox that appears.
  4. Click the 'Add Label' button to add the label to the selected net.
The new label "VBUS_5V" should now be visible on your schematic.
Please note, since Flux.ai is a tool that is used to design electrical schematics and PCB layouts, this operation is typically performed graphically, and I'm providing a textual description of how to do it as per your request. For a more visually-guided process, I recommend referring to the Flux.ai documentation or engaging with its community for step-by-step video tutorials.
2y
rename P1 as VBUS_5V
2y
To rename your component designator P1 to VBUS_5V in Flux, follow these steps:
  1. Select the element with the designator P1 by clicking on it.
  2. In the properties panel (usually on the right side of the screen), look for the Designator field.
  3. Click on the current designator name (P1) and it should become editable.
  4. Type VBUS_5V and press Enter or click anywhere outside the field to set the new designator.
Now your component has been renamed to VBUS_5V.
Ensure this new name does not conflict with other designators in your schematic, as duplicate names may cause confusion or issues down the line. Also, remember to update any references to P1 in your project to VBUS_5V, if necessary.
2y
3
i want to use this usb-c only for power. what should i do with other pins

@copilot i want to use this usb-c only for power. what should i do with other pins
2y
USB Type-C connectors have numerous pins but if you intend to use it just for power delivery, you would only need to utilize a few of these pins. Here's a basic guide on what you could do with the other pins:
  • VBUS (Pin 13, Pin 14): Connect these to the positive terminal of your power source. VBUS is rated at 5V and can supply power up to 3A normally but may support up to 20V/5A with a suitable Power Delivery (PD) arrangement. Note that power pins in the USB-C are redundant -- meaning that you need to connect VBUS from both sides.
  • GND (Pin 7, Pin 8, Pin 9): Connect these to the ground of your power source. Just like VBUS, Ground pins are also redundant in USB-C so you need to connect them from both ends.
  • CC1 (Pin 1) and CC2 (Pin 2): The CC (Channel Configuration) pins are used to detect the cable orientation and set the appropriate power level. When used only for power, they typically require pull-down resistors (5.1k Ohm) to GND to configure the device as a SINK.
  • All other pins: Since you're not using the device for data communication, all other pins (e.g., D+, D-, SBU1, SBU2, etc.) can be left unconnected (NC, Not Connected).
Please note: Make sure to verify this format from the datasheet of the specific USB Type-C connector you're using (Amphenol 12401548E4#2A in this case) as pin numbering and specifications can vary across different manufacturers and models. This is a high-level assumption and actual implementation can vary based on project specifics.
2y
6
how do i rotate this label

@copilot how do i rotate this label
2y
Flux currently doesn't provide a functionality to rotate a label directly. However, one workaround would be to delete the existing text label and add a new one in the desired orientation. Here's how:
  1. Select the label you want to rotate.
  2. Delete it using the Delete or Backspace key.
  3. Select the "Text" tool from the right-hand toolbar.
  4. Click on the location where you want to place the label.
  5. Type the label text, and hit Enter.
  6. When placing the label, you can drag it to any orientation you like.
Please note that this method might not provide precise control over the angle of rotation. You'd need to eyeball it to get the rotation that you want.
2y
5
J1
VBUS_5V


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