Deep learning

Efficient DL Model Extracts Data Accurately Using Keyboard Keystrokes

Introduction:

Deep learning models have recently been trained by researchers to steal sensitive data from keyboard inputs. By monitoring keystrokes, these models can collect private information like usernames, passwords, and messages. The accuracy of the model, developed by a group of researchers from British universities, reached 95% when using a sound-recognition system to record and decode keystrokes through a microphone. However, when evaluated with popular video conferencing services such as Zoom and Skype, the accuracy dropped to 93% and 91.7% respectively. This research highlights the potential for deep learning to create new forms of malware that can listen to keyboard input and steal confidential data including credit card numbers and private conversations. Recent advancements in machine learning and the availability of high-quality microphones have made sound-based attacks more practical. To protect against such attacks, users can alter their typing habits, use complex random passwords, introduce white noise or use software that simulates keyboard sounds.

Full Article: Efficient DL Model Extracts Data Accurately Using Keyboard Keystrokes

Deep Learning Model Successfully Steals Data from Keyboard Inputs

By monitoring keyboard inputs, researchers have trained a deep learning model that can collect private data such as usernames, passwords, and messages. This sound-recognition system can record and decode keystrokes captured from a microphone with an impressive 95% accuracy rate, as demonstrated by a group of researchers from British universities.

Using video conferencing services like Zoom and Skype, the researchers evaluated the model’s accuracy. The results showed a slight decrease in accuracy, with 93% for Zoom and 91.7% for Skype. This study sheds light on the potential use of deep learning in creating new forms of malware capable of spying on keyboard input and stealing sensitive information such as credit card numbers, private messages, and conversations.

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Sound-based attacks present a more feasible solution compared to other methods, thanks to recent advancements in machine learning and the availability of affordable, high-quality microphones on the market.

How Does It Work?

To train the sound-recognition system, the researchers recorded data by pressing each of the 36 keys on a MacBook Pro 25 times while capturing the sound produced. The sound was recorded using an iPhone 13 mini positioned 17 centimeters away from the laptop.

Through waveform and spectrogram analysis, the recorded sounds were processed to identify each key’s unique sound. This information was then used to train the “CoAtNet” image classifier, which could accurately identify the pressed key on the keyboard.

Interestingly, this method does not necessarily require access to the device’s microphone. Threat actors can also infiltrate a Zoom session as a participant to eavesdrop on users’ typing activity and capture the sound of their keystrokes.

According to the research article, users can protect themselves against such attacks by modifying their typing habits or using complex random passwords. Additionally, introducing white noise or employing software that simulates keyboard sounds can potentially decrease the model’s accuracy. However, simply switching to silent switches on a mechanical keyboard or shifting to membrane keyboards may not provide effective safeguards against this type of attack, as the model demonstrated remarkably high accuracy even with silent keyboards commonly used in Apple laptops over the past two years.

In conclusion, the successful training of a deep learning model capable of stealing data from keyboard inputs highlights the need for individuals and organizations to remain vigilant in protecting their sensitive information. Implementing secure typing practices and utilizing advanced password strategies can help mitigate the risk posed by such attacks.

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The post DL Model Accurately Extracts Data via Keyboard Keystrokes appeared first on Analytics Insight.

Summary: Efficient DL Model Extracts Data Accurately Using Keyboard Keystrokes

Deep learning models have been successfully trained by researchers to steal data from keyboard inputs. By monitoring keystrokes recorded from a microphone, these models can collect private data such as usernames, passwords, and messages with high accuracy. This technique demonstrates how deep learning can be used to create innovative forms of malware that can listen to keyboard input and steal sensitive information. Recent advancements in machine learning and the availability of inexpensive, high-quality microphones have made sound-based attacks more practical. Users can protect themselves by altering their typing habits or using complex random passwords.

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