Comparison Overview
Next Generation by DTU Skylab

Next Generation by DTU Skylab
Centrifugevej 374, Kongen Lyngby, 2200, DK
Last Update: 10/04/2026
Next Generation City Action combines international forces of entrepreneurs, students and influencers, who represent the next generation of leaders for the future of inclusive and sustainable cities. Through a hybrid engagement, 100 driven change-makers tackle the most p...

Temple University
1801 N Broad St, Philadelphia, Pennsylvania, US, 19122
Last Update: 02/04/2026
As the largest university in one of the nation’s most iconic cities, Temple educates diverse future leaders from across Philadelphia, the country and the world who share a common drive to learn, prepare for their careers and make a real impact. Founded as a night school...
Compliance Ranges Comparison

Next Generation by DTU Skylab







Temple University






Benchmark & Cyber Underwriting Signals
Incidents vs Higher Education Industry Avg (This Year)
No incidents recorded for Next Generation by DTU Skylab in 2026.
Incidents vs Higher Education Industry Avg (This Year)
No incidents recorded for Temple University in 2026.
Incident History - Next Generation by DTU Skylab (X = Date, Y = Severity)
Next Generation by DTU Skylab cyber incidents detection timeline including parent company and subsidiaries.
Incident History - Temple University (X = Date, Y = Severity)
Temple University cyber incidents detection timeline including parent company and subsidiaries.
Notable Incidents

Next Generation by DTU Skylab

Temple University
FAQ
Latest Global CVEs
The CONS_HISTORY ioctl handler did not adequately validate the requested history size. A large value caused an integer overflow in the buffer size calculation, resulting in a heap allocation smaller than expected. Subsequent initialization of the buffer wrote beyond the end of the allocation. An unprivileged local user with access to a vt(4) device can trigger an out-of-bounds write in the kernel, potentially escalating privileges.
The ELF image activator cleared per-process ASLR preference flags for setuid binaries after the code that computes the PIE base address, rather than before. As a result, a user-requested ASLR disable was still in effect at the point where the base address was chosen. An unprivileged local user can disable ASLR for a setuid PIE binary by calling procctl(2) before execve(2). This makes exploitation of any separate memory corruption vulnerability in that binary significantly easier.
Second, the audio buffer backing a mapping could be freed when the device was closed even though the mapping remained valid. The freed memory could then be reused elsewhere while still accessible through the stale mapping. The /dev/dsp device nodes are world-accessible by default. On a system with an audio device, either issue allows an unprivileged local user to read and write kernel memory, which can be used to escalate privileges, potentially gaining full control of the affected system. At a minimum, an attacker can crash the kernel, resulting in a Denial of Service (DoS).
The Linuxulator determined whether a binary was set-user-ID or set-group-ID by checking the P_SUGID process flag. During execve(2), this flag is not yet set at the point where the auxiliary vector is constructed, so AT_SECURE was incorrectly set to zero for set-user-ID and set-group-ID executables. An unprivileged local user can inject a shared library via LD_PRELOAD into a set-user-ID or set-group-ID Linux binary, gaining the privileges of that binary.
The kernel handler for IPV6_MSFILTER dropped a serializing lock in order to copy the source-filter list from userspace, then reacquired the lock. During this window another thread could free the multicast filter structure, leaving the handler with a stale pointer to freed memory. An unprivileged local user can exploit this use-after-free to escalate privileges.