
Learn to train TensorFlow Lite models for iOS apps using regression, including house price, fuel efficiency, and other predictions, then deploy and analyze models in your apps.
Learn the full pipeline from basics of machine learning to deploying TensorFlow Lite models in iOS apps, including Python basics, data libraries, model training, conversion, and app integration.
Explore the fundamentals of machine learning, a branch of ai that uses data and algorithms to identify patterns and make predictions, from dog breed recognition to salary forecasting.
Explore unsupervised learning with unlabeled data and clustering to reveal purchase patterns and optimize product placement, then study reinforcement learning where agents learn by trial and error via rewards.
Explore how a neural network learns to predict house prices from area and rooms by feeding data, adjusting weights through backpropagation, and evaluating epochs for model training.
Explore machine learning concepts, including supervised and unsupervised learning, deep learning with neural networks, feed forwarding and back propagation, learning rate, loss function, and strategies like dropout to prevent overfitting.
Learn to create and delete Python numeric variables, assign values, and check types, then explore integer, long, float, and complex numbers with real and imaginary parts.
Explore Python lists, the most versatile data type in Python, including creating multi-type and nested lists, indexing, slicing, and using core methods like append, insert, remove, count, index, sort, and reverse.
Compare Python tuples and lists, noting that tuples are immutable and enclosed in parentheses, while lists use square brackets. Create dictionaries with unique keys and access values by key.
Learn Python file handling for saving tflite models for iOS apps, including opening files with modes r, w, wb, rb, and a, reading, writing, and closing files.
Learn numpy, a python library for creating and manipulating arrays for data preparation. Import numpy as np to build 1D and 2D arrays, inspect shape and size, and set dtype.
Explore the pandas library for Python, learn to create and manipulate data frames, and convert lists and dictionaries into tabular data for data analysis.
Load a csv into a pandas data frame using read_csv, upload nba.csv, and inspect 458-row, 9-column NBA players dataset with name, team, number, position, age, height, weight, college, and salary.
Compute means in TensorFlow Lite with tf.reduce_mean, using v1 or v2 as inputs. Use axis 0 for column means and axis 1 for row means on a 2D tensor.
Generate random tensors in TensorFlow with random normal and uniform, specifying shape, mean, stddev, and data type; seed for reproducibility; then add, concatenate, and identify min/max indices with argmin/argmax.
Learn how TensorFlow checkpoints save and restore thousands of variable values during model training, using tf.train.checkpoint to save and checkpoint.restore to recover progress.
Learn to train a simple linear regression model on data with the pattern 2x minus 1, and deploy it to an iOS app using TensorFlow Lite for on-device predictions.
Train your machine learning model on a simple regression task where y equals two into x minus one, using TensorFlow, Keras, and NumPy, convert it to TensorFlow Lite for mobile.
Import libraries, prepare a dataset with one input and one output, train a neural network with one layer and a single neuron, test it, and convert to tflite for iOS.
Build an iOS SwiftUI app that uses a TensorFlow Lite regression model to compute output from a single input (output = 2*input−1), displayed in a text view after tapping predict.
Add the linear.tflite model to the iOS project in a models group, install CocoaPods, install TensorFlow Lite Swift, and import TensorFlow Lite to load the model.
Load a TensorFlow Lite model in an iOS app by creating and initializing a TensorFlow Lite interpreter from the main bundle, then allocate tensors and confirm the runtime initializes.
Integrate a TensorFlow Lite model into an iOS app by loading with an interpreter, allocating tensors, processing input data, invoking the model, and displaying the output.
Train a regression model to predict fuel efficiency for iOS apps using Kaggle's auto mpg dataset, with features such as cylinders, displacement, horsepower, weight, acceleration, model year.
Apply one hot encoding to convert the origin categorical column into binary USA, Europe, and Japan columns, then remove the origin column and observe improved model accuracy.
Split the dataset into 80% training and 20% testing using sample and drop, then separate miles per gallon as the label and inspect features with describe for normalization.
Normalize numeric data in a data set via normalization to a common range before model training, preventing large features like area from dominating the model.
Normalize each column by subtracting its mean and dividing by its standard deviation using the train stat per column, applied via the norm function to training and test data.
Build and train a tf-keras sequential neural network with two 64-neuron hidden layers on normalized data, using activation, mse and mae metrics, then summarize and fit to monitor loss decline.
Build a Swift iOS GUI for a fuel efficiency prediction app, with input fields for cylinders, displacement, horsepower, weight, acceleration, year, region, and an mpg result after predict.
Learn to load a fuel efficiency tflite model in a Swift iOS app by adding automobile.tflite to the main bundle, importing TensorFlow Lite, and initializing the interpreter.
Prepare nine input features for a TensorFlow Lite model in a Swift iOS app by converting user entries to floats and using one-hot encoding for USA, Europe, and Japan.
Pass inputs to the tflite model in the exact training order—cylinders, displacement, horsepower, weight, acceleration, model year, and origin USA/Europe/Japan—and convert to data format before reading the fuel efficiency.
Ensure the input order matches the training data, apply the same normalization, and handle categorical columns with one-hot encoding by creating separate variables for each category (USA, Europe, Japan).
Collect and preprocess a house price dataset with longitude, latitude, house median age, rooms, income, and ocean proximity. Train a multi-layer neural network and deploy a tflite model in iOS.
train a house price prediction model using a provided dataset in Colab, loading data with pandas and TensorFlow, handling missing values, one-hot encoding, and an 80/20 train-test split.
Normalize the dataset, build a three-hidden-layer neural network, train and evaluate it for house price prediction, convert to tflite, and compare models in a Swift iOS app.
Retrain the price prediction model by adding more neural network layers and increasing neurons, convert to tflite, and compare training and testing loss to identify overfitting.
Create a house price prediction iOS app by starting a new Xcode SwiftUI project, replacing ContentView.swift, and wiring inputs for longitude, latitude, age, rooms, bedrooms, population, income, and ocean proximity.
Explore the gui of a house price prediction iOS app built with SwiftUI, featuring a scroll view, vstack, longitude and latitude inputs, a five-option dropdown, and a predict button.
Test a house price prediction application in a simulator using a test dataset with longitude, latitude, age, rooms, bedrooms, population, income, and ocean proximity inland; verify predictions against actual prices.
Do you want to train different Machine Learning models and build smart iOS Swift applications? Then welcome to this comprehensive course!
My name is Muhammad Hamza Asif, and I am the leading Mobile Machine Learning instructor on Udemy. In this course, we'll embark on a journey to combine the power of predictive modeling with the flexibility of iOS app development using Swift and SwiftUI. Whether you're a seasoned iOS developer or new to the scene, this course has something valuable to offer you.
Course Highlights:
Training Your First Machine Learning Model:
Use TensorFlow and Python to create a simple Machine Learning (regression) model.
Convert the model into TFLite format, making it compatible with iOS Swift.
Learn to integrate the TFLite model into iOS Swift apps.
Fuel Efficiency Prediction in iOS Swift:
Apply your knowledge to a real-world problem by predicting automobile fuel efficiency.
Seamlessly integrate the model into an iOS Swift app for an intuitive fuel efficiency prediction experience.
House Price Prediction in iOS Swift:
Master the art of training regression models on substantial datasets.
Utilize the trained model within your iOS Swift app to predict house prices confidently.
Regression is one of the fundamental techniques in Machine Learning which can be used for countless applications. Inside this course, you will learn to train your custom machine learning models in TensorFlow Lite and build smart iOS Swift applications.
Course Overview: We'll begin by exploring the basics of Machine Learning and its various types, then dive into the world of deep learning and artificial neural networks, which will serve as the foundation for training our TensorFlow Lite models for iOS Swift Applications.
The iOS-ML Fusion: After grasping the core concepts, we'll bridge the gap between iOS Swift and Machine Learning. We’ll kickstart our journey with Python programming, a versatile language that will pave the way for our Machine Learning model training.
Unlocking Data's Power: To prepare and analyze our datasets effectively, we'll dive into essential data science libraries like NumPy, Pandas, and Matplotlib. These powerful tools will equip you to harness data's potential for accurate predictions.
TensorFlow for Mobile: Next, we'll immerse ourselves in the world of TensorFlow, a library that not only supports model training using neural networks but also caters to mobile devices.
The iOS Development Advantage: By the end of this course, you'll be equipped to:
Train advanced regression models for accurate predictions.
Seamlessly integrate ML models into your iOS Swift applications.
Analyze and use existing TFLite models effectively within the iOS Swift ecosystem.
Who Should Enroll:
Aspiring iOS Swift developers eager to add predictive modeling to their skillset.
Beginner iOS Swift developers with very little knowledge of mobile app development.
Intermediate iOS Swift developers wanting to build powerful Machine Learning-based applications in iOS Swift.
Experienced iOS Swift developers wanting to use Machine Learning models inside their iOS applications.
Enthusiasts seeking to bridge the gap between Machine Learning and iOS development.
Step into the World of iOS Development and Predictive Modeling: Join us on this exciting journey and unlock the potential of iOS Swift and Machine Learning. By the end of the course, you'll be ready to develop iOS Swift applications that not only look great but also make informed, data-driven decisions.
Enroll now and embrace the fusion of iOS Swift and Machine Learning!