Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Affected versions of the urllib3 package are vulnerable to Denial of Service (DoS) due to improper handling of highly compressed HTTP response bodies during streaming decompression. The urllib3.HTTPResponse methods stream(), read(), read1(), read_chunked(), and readinto() may fully decompress a minimal but highly compressed payload based on the Content-Encoding header into an internal buffer instead of limiting the decompressed output to the requested chunk size, causing excessive CPU usage and massive memory allocation on the client side.

Affected versions of the urllib3 package are vulnerable to Denial of Service (DoS) due to allowing an unbounded number of content-encoding decompression steps for HTTP responses. The HTTPResponse content decoding pipeline in urllib3 follows the Content-Encoding header and applies each advertised compression algorithm in sequence without enforcing a maximum chain length or effective output size, so a malicious peer can send a response with a very long encoding chain that triggers excessive CPU use and massive memory allocation during decompression.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.

Ecdsa does not protects against side-channel attacks. This is because Python does not provide side-channel secure primitives (with the exception of hmac.compare_digest()), making side-channel secure programming impossible. For a sophisticated attacker observing just one operation with a private key will be sufficient to completely reconstruct the private key.
https://pypi.org/project/ecdsa/#Security

The python-ecdsa library, which implements ECDSA cryptography in Python, is vulnerable to the Minerva attack (CVE-2024-23342). This vulnerability arises because scalar multiplication is not performed in constant time, affecting ECDSA signatures, key generation, and ECDH operations. ECDSA signature verification remains unaffected. The project maintainers have stated that there is no plan to release a fix for this vulnerability, citing their security policy:
"As stated in the security policy, side-channel vulnerabilities are outside the scope of the project. This is not due to a lack of interest in side-channel secure implementations but rather because the main goal of the project is to be pure Python. Implementing side-channel-free code in pure Python is impossible. Therefore, we do not plan to release a fix for this vulnerability."
NOTE: The specs we include in this advisory differ from the publicly available on other sources. That's because research by Safety CLI Cybersecurity Team confirms that there is no plan to address this vulnerability.