Hi everyone,

I've been using OctoPrint with my Anycubic Kobra 2 Neo for a while now, and I've noticed a peculiar issue. Whenever I send prints sliced with Cura through OctoPrint, the printer doesn't pre-extrude the material before starting the print. However, if I print the same file directly from the SD card, it pre-extrudes just fine.

I've checked my settings in both Cura and OctoPrint, but I can't seem to figure out why this discrepancy is happening. Has anyone else experienced a similar issue with OctoPrint and Anycubic printers? Could it be a configuration problem or something else entirely?

I'd appreciate any insights or troubleshooting tips you all might have. Thanks in advance for the help!

Hi everyone,

I've been using OctoPrint with my Anycubic Kobra 2 Neo for a while now, and I've noticed a peculiar issue. Whenever I send prints sliced with Cura through OctoPrint, the printer doesn't pre-extrude the material before starting the print. However, if I print the same file directly from the SD card, it pre-extrudes just fine.

I've checked my settings in both Cura and OctoPrint, but I can't seem to figure out why this discrepancy is happening. Has anyone else experienced a similar issue with OctoPrint and Anycubic printers? Could it be a configuration problem or something else entirely?

I'd appreciate any insights or troubleshooting tips you all might have. Thanks in advance for the help!

In base alle vostre esperienze, quanto è difficile trovare lavoro come ingegnere chimico con solo la triennale in italia?

Hi everyone,

I'm looking for a database of all the CAN PIDs/packets used by my 2011 Peugeot 207. I'm hoping to use this information to do some custom diagnostics and programming.

I've done some searching online, but I haven't been able to find anything comprehensive. I've found a list of the standard PIDs are there other proprietary PIDs that have been implemented?

Thanks in advance

Hi everyone,

I'm looking for a database of all the CAN PIDs/packets used by my 2011 Peugeot 207. I'm hoping to use this information to do some custom diagnostics and programming.

I've done some searching online, but I haven't been able to find anything comprehensive. I've found a list of the standard PIDs but nothing more. Are there other proprietary PIDs that have been implemented?

Thanks in advance

Hi everyone!

I wanted to share a project I recently completed that has brought my time-lapse photography to a whole new level. I created a BLE DSLR trigger using an ESP32 as the brain of the project, and it has completely changed the way I capture time-lapses with my DSLR camera.

The ESP32 communicates with the DSLR camera using a GATT Server, allowing me to wirelessly control the camera's shutter remotely. This means I can set up my camera in a desired location and control it from a distance.

To make things even more convenient, I developed a web application that connects to the trigger, giving me a user-friendly interface to control the camera settings and start capturing photos. The web app is accessible from any device with a web browser, making it easy to use.

Currently, the trigger offers five different methods for capturing photos:

1. Single shot
2. Bulb mode (for long exposure shots)
3. Timer bulb mode (It takes a bulb exposure after a certain ammount of time)
4. Intervallometer (capture photos at regular intervals)
5. Bulb intervallometer (combine bulb mode with an intervallometer for extended time-lapse shots)

You can check out the entire project, including the hardware schematics, firmware code, and web app, on my GitHub repository: BLE DSLR Trigger GitHub Repository

I'm really proud of how this project turned out, and it has added a new level of flexibility and creativity to my photography workflow. I'd love to hear your thoughts and feedback on the project, and if you have any questions or suggestions for improvements, feel free to let me know!

Happy shooting, and I hope this inspires some of you to embark on your own DIY photography projects!

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[Image]

Hi everyone!

I wanted to share a project I recently completed that has brought my time-lapse photography to a whole new level. I created a BLE DSLR trigger using an ESP32 as the brain of the project, and it has completely changed the way I capture time-lapses with my DSLR camera.

The ESP32 communicates with the DSLR camera using a GATT Server, allowing me to wirelessly control the camera's shutter remotely. This means I can set up my camera in a desired location and control it from a distance.

To make things even more convenient, I developed a web application that connects to the trigger, giving me a user-friendly interface to control the camera settings and start capturing photos. The web app is accessible from any device with a web browser, making it easy to use.

Currently, the trigger offers five different methods for capturing photos:

1. Single shot
2. Bulb mode (for long exposure shots)
3. Timer bulb mode (It takes a bulb exposure after a certain ammount of time)
4. Intervallometer (capture photos at regular intervals)
5. Bulb intervallometer (combine bulb mode with an intervallometer for extended time-lapse shots)

You can check out the entire project, including the hardware schematics, firmware code, and web app, on my GitHub repository: BLE DSLR Trigger GitHub Repository

I'm really proud of how this project turned out, and it has added a new level of flexibility and creativity to my photography workflow. I'd love to hear your thoughts and feedback on the project, and if you have any questions or suggestions for improvements, feel free to let me know!

Happy shooting, and I hope this inspires some of you to embark on your own DIY photography projects!

​

[Image]

Hi everyone!

I wanted to share a project I recently completed that has brought my time-lapse photography to a whole new level. I created a BLE DSLR trigger using an ESP32 as the brain of the project, and it has completely changed the way I capture time-lapses with my DSLR camera.

The ESP32 communicates with the DSLR camera using a GATT Server, allowing me to wirelessly control the camera's shutter remotely. This means I can set up my camera in a desired location and control it from a distance.

To make things even more convenient, I developed a web application that connects to the trigger, giving me a user-friendly interface to control the camera settings and start capturing photos. The web app is accessible from any device with a web browser, making it easy to use.

Currently, the trigger offers five different methods for capturing photos:

1. Single shot
2. Bulb mode (for long exposure shots)
3. Timer bulb mode (It takes a bulb exposure after a certain ammount of time)
4. Intervallometer (capture photos at regular intervals)
5. Bulb intervallometer (combine bulb mode with an intervallometer for extended time-lapse shots)

You can check out the entire project, including the hardware schematics, firmware code, and web app, on my GitHub repository: BLE DSLR Trigger GitHub Repository

I'm really proud of how this project turned out, and it has added a new level of flexibility and creativity to my photography workflow. I'd love to hear your thoughts and feedback on the project, and if you have any questions or suggestions for improvements, feel free to let me know!

Happy shooting, and I hope this inspires some of you to embark on your own DIY photography projects!

[Image]

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