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CVE: CVE-2010-0425 CWE: 416 ipc: note: answer: question: | Did the feature that this vulnerability affected use inter-process communication? IPC includes OS signals, pipes, stdin/stdout, message passing, and clipboard. Writing to files that another program in this software system reads is another form of IPC. Answer should be boolean. Explain your answer bugs: [] i18n: note: answer: instructions: | Was the feature impacted by this vulnerability about internationalization (i18n)? An internationalization feature is one that enables people from all over the world to use the system. This includes translations, locales, typography, unicode, or various other features. Answer should be boolean. Write a note about how you came to the conclusions you did. repo: vccs: - note: |- initial implementation of the file. Formerly 30ab960e20117ee6002a3297791427023440e0a7 before HTTPD rewrote Git history. commit: 9dd6e4455249d5a888aa5de3fb9cb227240d75fc - note: commit: fixes: - note: Formerly 2ca67ed8c2733ffc0d9a23c42d0e606a471833ed before HTTPD rewrote Git history. commit: 56b1703293f7c9f2dcc1622898586e8d656ca9f1 - note: Formerly e9602aecc484ce45779b1051987c826037d5ff29 before HTTPD rewrote Git history. commit: 1ea89a333a6f69e8c55459213c653b614dda5b7b bounty: amt: url: announced: lessons: yagni: note: Yagni applies here since the piece of code that was causing the vulnerability was simply deleted showing that the functionallity provided by this piece of code was not needed. applies: true question: | Are there any common lessons we have learned from class that apply to this vulnerability? In other words, could this vulnerability serve as an example of one of those lessons? Leave "applies" blank or put false if you did not see that lesson (you do not need to put a reason). Put "true" if you feel the lesson applies and put a quick explanation of how it applies. Don't feel the need to claim that ALL of these apply, but it's pretty likely that one or two of them apply. If you think of another lesson we covered in class that applies here, feel free to give it a small name and add one in the same format as these. serial_killer: note: applies: complex_inputs: note: applies: distrust_input: note: applies: least_privilege: note: applies: native_wrappers: note: applies: defense_in_depth: note: applies: secure_by_default: note: applies: environment_variables: note: applies: security_by_obscurity: note: applies: frameworks_are_optional: note: applies: reviews: [] upvotes: 4 CWE_note: mistakes: answer: This vulnerability was due to the developers overlooking it and not quite understanding what was happening in a piece of their code. The fix for the vulnerability was simply deleting 2 lines of code which unloaded the ISAPI.dll module in the middle of a request which created oprhaned callback pointers. Based on this fix it seems that the unloading of the ISAPI.dll method call at that point in the code was completely unecessary as the system seemed to work completely fine without it. The biggest takeaway from this vulnerability is, it is important to not add unnecessary pieces of code to a system and understand what unintended consequences adding additional functionality can have on the system. question: | In your opinion, after all of this research, what mistakes were made that led to this vulnerability? Coding mistakes? Design mistakes? Maintainability? Requirements? Miscommunications? Look at the CWE entry for this vulnerability and examine the mitigations they have written there. Are they doing those? Does the fix look proper? Use those questions to inspire your answer. Don't feel obligated to answer every one. Write a thoughtful entry here that those ing the software engineering industry would find interesting. nickname: reported: announced: 2010-03-05T19:30Z published: subsystem: name: arch answer: The subsystem appears to be in the arch subsystem in the mod_isapi file. question: | What subsystems was the mistake in? Look at the path of the source code files code that were fixed to get directory names. Look at comments in the code. Look at the bug reports how the bug report was tagged. discovered: date: '2010-02-09' answer: The vulnerability was found by Brett Gervasoni of Sense of Security who also proposed a fix for the vulnerability. There were no reported exploits created for this specific vulnerability and it was fixed before attackers could abuse it. google: contest: question: | How was this vulnerability discovered? Go to the bug report and read the conversation to find out how this was originally found. Answer in longform below in "answer", fill in the date in YYYY-MM-DD, and then determine if the vulnerability was found by a Google employee (you can tell from their email address). If it's clear that the vulenrability was discovered by a contest, fill in the name there. The "automated" flag can be true, false, or nil. The "google" flag can be true, false, or nil. If there is no evidence as to how this vulnerability was found, then you may leave this part blank. automated: description: The Apache mod_isapi (module that implements the internet server extension API. Allows Internet Server extensions) module can be forced to unload a specific library before the processing of a request is complete, resulting in memory corruption. This vulnerability may allow a remote attacker to execute arbitrary code. unit_tested: fix: code: answer: It does not appear automated unit tests were involved. question: | Were automated unit tests involved in this vulnerability? Was the original code unit tested, or not unit tested? Did the fix involve improving the automated tests? For the "code" answer below, look not only at the fix but the surrounding code near the fix and determine if and was there were unit tests involved for this module. For the "fix" answer below, check if the fix for the vulnerability involves adding or improving an automated test to ensure this doesn't happen again. specification: answer: answer_note: instructions: | Is there mention of a violation of a specification? For example, an RFC specification, a protocol specification, or a requirements specification. Be sure to check all artifacts for this: bug report, security advisory, commit message, etc. The answer field should be boolean. In answer_note, please explain why you come to that conclusion. curation_level: 1 CWE_instructions: | Please go to cwe.mitre.org and find the most specific, appropriate CWE entry that describes your vulnerability. (Tip: this may not be a good one to start with - spend time understanding this vulnerability before making your choice!) autodiscoverable: answer: answer_note: instructions: | Is it plausible that a fully automated tool could have discovered this? These are tools that require little knowledge of the domain, e.g. automatic static analysis, compiler warnings, fuzzers. Examples for true answers: SQL injection, XSS, buffer overflow Examples for false: RFC violations, permissions issues, anything that requires the tool to be "aware" of the project's domain-specific requirements. The answer field should be boolean. In answer_note, please explain why you come to that conclusion. yaml_instructions: bounty_instructions: | If you came across any indications that a bounty was paid out for this vulnerability, fill it out here. Or correct it if the information already here was wrong. Otherwise, leave it blank. interesting_commits: answer: | I didn't find any commits that were very interesting or pertained to this vulnerability in the time between when it was introduced and the time that it was fixed. In the time between the vcc and the fix there was a lot of work done on the file that contained the vulnerability such as bug fixes, introducing new functionallity(such as accepting HTTP/1.1 status results). I did find it interesting though that the developer who wrote the vccs was also the one who implemented the fix. commits: - note: commit: - note: commit: question: | Are there any interesting commits between your VCC(s) and fix(es)? Write a brief (under 100 words) description of why you think this commit was interesting in light of the lessons learned from this vulnerability. Any emerging themes? curated_instructions: | If you are manually editing this file, then you are "curating" it. Set the entry below to "true" as soon as you start. This will enable additional integrity checks on this file to make sure you fill everything out properly. If you are a student, we cannot accept your work as finished unless curated is set to true. upvotes_instructions: | For the first round, ignore this upvotes number. For the second round of reviewing, you will be giving a certain amount of upvotes to each vulnerability you see. Your peers will tell you how interesting they think this vulnerability is, and you'll add that to the upvotes score on your branch. nickname_instructions: | A catchy name for this vulnerability that would draw attention it. If the report mentions a nickname, use that. Must be under 30 characters. Optional. reported_instructions: announced_instructions: | Was there a date that this vulnerability was announced to the world? You can find this in changelogs, blogs, bug reports, or perhaps the CVE date. A good source for this is Chrome's Stable Release Channel (https://chromereleases.googleblog.com/). Please enter your date in YYYY-MM-DD format. fixes_vcc_instructions: | Please put the commit hash in "commit" below (see my example in CVE-2011-3092.yml). Fixes and VCCs follow the same format. published_instructions: description_instructions: | You can get an initial description from the CVE entry on cve.mitre.org. These descriptions are a fine start, but they can be kind of jargony. Rewrite this description in your own words. Make it interesting and easy to read to anyone with some programming experience. We can always pull up the NVD description later to get more technical. Try to still be specific in your description, but remove Chromium-specific stuff. Remove references to versions, specific filenames, and other jargon that outsiders to Chromium would not understand. Technology like "regular expressions" is fine, and security phrases like "invalid write" are fine to keep too. |
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