A pretrained tire wear classifier that sorts an image into one of 10 categories — the level of wear on different types of tires.. Use the tire wear API immediately, no training required, then adapt it to your own data when you need more.
Drop in a photo and get the prediction back. No signup, no setup.
A sample of the 14 labels this pretrained classifier chooses between.
Need a label that isn't here? Clone the classifier into your Nyckel console and edit the label set to fit your data.
Once you've added this classifier to your console, you get your own copy of it behind your own endpoint. Invoke it with any HTTP client:
curl
curl -X POST "https://www.nyckel.com/v1/functions/YOUR_FUNCTION_ID/invoke" \
-H "Authorization: Bearer $NYCKEL_ACCESS_TOKEN" \
-H "Content-Type: application/json" \
-d '{"data": "https://example.com/photo.jpg"}'
Python
import requests
# Get an access token: https://www.nyckel.com/docs/api/overview/authentication/
token = "YOUR_ACCESS_TOKEN"
response = requests.post(
"https://www.nyckel.com/v1/functions/YOUR_FUNCTION_ID/invoke",
headers={"Authorization": "Bearer " + token},
json={"data": "https://example.com/photo.jpg"},
)
print(response.json())
Example response
{
"labelName": "Bald Spots",
"labelId": "label_...",
"confidence": 0.92
}
Trained on a Nyckel-curated dataset covering 10 tire wear categories, served on Nyckel's own infrastructure — your image stays on Nyckel.
Send an image URL or file to the invoke endpoint; the response is a label with a confidence score.
Clone it, then correct predictions and add your own samples in the console — Nyckel retrains automatically, turning this into a custom model tuned to your data.
Fleet operators can utilize the tire wear identifier to monitor the condition of tires across their vehicles. By identifying tires that show signs of excessive wear, operators can schedule maintenance more efficiently, reduce breakdowns, and enhance overall fleet performance.
Automotive service centers can leverage the tire wear classification function to implement predictive maintenance programs. By analyzing tire wear patterns, service providers can proactively advise customers on timely tire replacements, thereby preventing accidents and improving vehicle safety.
Online automotive retailers can enhance customer experience by integrating the tire wear identifier into their platforms. When customers purchase tires, the system can analyze their current tire conditions and suggest options that meet their needs, ultimately driving sales and customer satisfaction.
Insurance companies can benefit from this technology by evaluating the wear of tires in claim assessments. By acquiring tire condition data, insurers can better assess risk and decide on premiums, which could lead to fairer and more accurate pricing for policyholders.
Tire manufacturers can use tire wear identification to refine their production processes and improve sustainable practices. By understanding wear patterns, companies can develop tires that last longer, reducing waste and promoting eco-friendly policies within the industry.
Government and safety organizations can implement tire wear identification in public awareness campaigns. By educating drivers on the importance of tire maintenance and using real-time data to demonstrate wear impacts, they can effectively promote safe driving behaviors and reduce road accidents.
Automotive component manufacturers can use tire wear data to analyze the performance of their products under different conditions. By correlating tire wear with various driving habits and environmental factors, they can improve product design, contributing to longer-lasting tires and better driving performance.
A zero-shot classifier uses a large foundation model's general knowledge to pick between your labels — no task-specific training, so new or edited labels work immediately. A Nyckel-trained classifier has been trained on labeled examples and runs on Nyckel's own infrastructure, which typically makes it faster, cheaper per call, and more accurate on data that resembles its training set. The "Under the hood" section on this page shows which kind this classifier is, and any classifier can be adapted into a trained one by adding your own examples.
Honestly: we can't know in advance — it depends on your data stream and how closely it resembles what this classifier has seen. The reliable way to find out is to measure it on your own data: start invoking the classifier with real traffic, or upload and annotate a set of images in the console — make sure they look like your production data, not idealized examples. Nyckel's evaluation metrics then show you exactly how it performs on that data before you rely on it.
No classifier is perfect, so Nyckel is built around the correction loop: invokes can be captured for review, you confirm or correct predictions in the console, and corrections become training data. Over time the model adapts to your data distribution — accuracy on your traffic improves with use rather than staying fixed.
No. This tire wear classifier works out of the box — clone it into your console and you'll have your own API endpoint in under a minute. Training data only enters the picture when you want to adapt it: your corrected predictions and uploaded samples improve the model, and you can also edit the label set to match your needs.
Trying the classifier on this page is free with no signup. Cloning it requires a free account, and the free tier covers your first API calls each month — see nyckel.com/pricing for current limits and paid tiers.
Add this pretrained classifier to your Nyckel console — you'll get a live API endpoint in under a minute, and a path to a custom model when you need one.