After you’ve done that, you can easily get your client id and client secret.Watch this tutorial on getting your device’s local key and device id.Obtain Tuya local key, client id, client secret, and device id You should see a device called Air Purifier which is your P1.If you already added the device to HomeKit, in the Tuya app you’ll want to select Me > HomeKit Information. ![]() If I remember correctly, when you open the app for the first time, it will ask for permission to allow the app to access devices in the Home app.Download the Tuya Smart app on your phone.Connect the Smartmi P1 to the Tuya Smart app I use the Home app as my front end (I like the UI) and HA as my backend (all automations are in node red) so I like being able to see and control all of my devices manually through the Home app. This isn’t necessary if your only goal is to get the device in Home Assistant. It also allows access to various settings and features that you would only be able to access/change through the Tuya/Smartmi app (for example, you can’t turn off the sound or adjust the display brightness in HomeKit).Communication between HA and the P1 are instantaneous. I’ve used this integration for a week now and have setup advanced automations in node red and it’s worked extremely well.Though according to the LocalTuya GitHub:Ĭloud API calls are performed only at startup, and when a local_key update is needed. However, this process involves setting up a Tuya cloud developer account. The Tuya integration is not necessary (I’m not using it).Quick notes before embarking on this journey: How to Integrate Smartmi P1 into Home Assistant via LocalTuya I like having it in HomeKit for easily controlling the fan speed via the UI and to quickly see air quality but this opens up a lot of advanced automations for me in node red (HomeKit may send a notification when it’s time to change the filter but I’m not sure - just got the purifier yesterday). ![]() Having access to the filter lifespan and filter use will also open up a really useful notification automation when it’s time to replace the filter.Īll updates are instantaneous between HA and the Smartmi Air Purifier P1. My favorite features that I now have access to are being able to turn off the annoyingly loud sound when interacting with the device and being able to automate the screen brightness! It’s the small things. Let me know if anyone is interested in getting this setup in HA and I’ll provide the mappings. Examples include dust storms 1, snow surge avalanches 2, 3, and pyroclastic density currents 4, 5, 6, 7.Thanks to comment, I attempted to get it into HA via LocalTuya and was able to get it integrated□.Īfter much trial and error, I got all of the Tuya IDs of the device mapped out to HA entities (except for one, which I don’t think is useful anyway). Similar content being viewed by othersĭilute mixtures of particles in a gas are common in industry and in nature. This differs from the current hypothesis according to which the critical concentration coincides with the onset of cluster formation. Finally, analysis of the temporal fluctuations of the locally measured solid volume fraction, suggests that high density regions (clusters) are present even in suspensions with concentrations below the critical concentration. Moreover, we find that this critical \(\phi\) increases with the size of the particles. We show that, for a characteristic air velocity \(U^*\), the locally measured \(\phi\) reaches a critical value, in agreement with a recent study on turbulent gas–particle mixtures. For the frequency ranges and suspensions considered here, the viscous dissipation dominates over scattering and thermal conduction losses. Next, setting the air velocity at \(U^*\), we increase the mass of particles and monitor acoustically the local solid volume fraction, \(\phi\), by measuring the ultrasound wave attenuation coefficient and phase velocity as a function of frequency on the basis of classical scattering and hydrodynamic models. First, we determine the minimal air velocity, \(U^*\), necessary to suspend the particles from the maximum decrease in the transmitted wave amplitude and velocity of ultrasound propagating through the suspension. ![]() ![]() To overcome this difficulty, we develop ultrasonic spectroscopy to monitor the local particle concentration \(\phi\) of glass particles (with diameters \(d\sim\) 77 \(\upmu\)m or 155 \(\upmu\)m) suspended in air. One fundamental issue that limits our understanding of such systems is the difficulty to obtain information on the particle concentration inside these often optically opaque suspensions. Dilute gas–particle suspensions in which the particles are carried by the fluid are found in various industrial and geophysical contexts.
0 Comments
Leave a Reply. |
AuthorWrite something about yourself. No need to be fancy, just an overview. ArchivesCategories |