$47K - $64K/yr
... that exploit photovoltaic (capacitive) and photothermal stimulation to enhance somatic versus ... D. in Bioengineering, Neuroscience, Neurobiology, Biomedical Engineering, Electrical Engineering ...
$47K - $64K/yr
... that exploit photovoltaic (capacitive) and photothermal stimulation to enhance somatic versus ... D. in Bioengineering, Neuroscience, Neurobiology, Biomedical Engineering, Electrical Engineering ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities.??? * Reverse engineer malicious code in support of ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities.??? * Reverse engineer malicious code in support of ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site +1
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Performs manual and automated testing to identify, exploit, and validate vulnerabilities ... Proficiency in at least one programming or scripting language (e.g., Python, Java). * Preferred ...
Performs manual and automated testing to identify, exploit, and validate vulnerabilities ... Proficiency in at least one programming or scripting language (e.g., Python, Java). * Preferred ...
Performs manual and automated testing to identify, exploit, and validate vulnerabilities ... Proficiency in at least one programming or scripting language (e.g., Python, Java). * Preferred ...
Performs manual and automated testing to identify, exploit, and validate vulnerabilities ... Proficiency in at least one programming or scripting language (e.g., Python, Java). * Preferred ...
Performs manual and automated testing to identify, exploit, and validate vulnerabilities ... Proficiency in at least one programming or scripting language (e.g., Python, Java). * Preferred ...
Performs manual and automated testing to identify, exploit, and validate vulnerabilities ... Proficiency in at least one programming or scripting language (e.g., Python, Java). * Preferred ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities.? * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities.? * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
Pittsburgh, PA · On-site
Apply these approaches to understanding vulnerabilities in AI systems and how attackers adapt their tradecraft to exploit those vulnerabilities. * Reverse engineer malicious code in support of high ...
$17.11 - $23
8% of jobs
$23 - $28.89
3% of jobs
$28.89 - $34.79
6% of jobs
$40.47 is the 25th percentile. Wages below this are outliers.
$34.79 - $40.68
7% of jobs
$40.68 - $46.57
14% of jobs
$46.57 - $52.46
9% of jobs
The median wage is $53.10 / hr.
$52.46 - $58.36
15% of jobs
$63.09 is the 75th percentile. Wages above this are outliers.
$58.36 - $64.25
15% of jobs
$64.25 - $70.14
12% of jobs
$70.14 - $76.03
7% of jobs
$76.03 - $81.93
3% of jobs
$17
$52
$81
Exploit Developers often encounter complex and evolving security architectures, which require continuous learning and adaptation to stay ahead of new safeguards and patch mechanisms. Collaborative troubleshooting, regular knowledge sharing, and working closely with security researchers and penetration testers are common approaches teams use to overcome obstacles. Many organizations foster a supportive environment, providing access to the latest research, tools, and test labs to encourage innovation and success. This collaborative and dynamic atmosphere helps Exploit Developers keep their skills sharp and deliver high-impact results.
An Exploit Developer is a cybersecurity professional who researches and develops exploits to identify security vulnerabilities in systems, applications, or networks. They analyze software and hardware for weaknesses, create proof-of-concept exploits, and work with security teams to patch vulnerabilities before malicious hackers can exploit them. This role requires deep knowledge of programming, reverse engineering, and security protocols. Some exploit developers work in ethical hacking or penetration testing, while others conduct research for security firms, government agencies, or cybersecurity vendors.
To thrive as an Exploit Developer, you need a strong background in computer science, reverse engineering, low-level programming (C/C++, Assembly), and vulnerability analysis. Familiarity with tools such as IDA Pro, Ghidra, Metasploit, and debuggers, along with relevant certifications like OSCP or GREM, is highly beneficial. Analytical thinking, persistence, excellent problem-solving, and clear documentation skills set outstanding professionals apart in this field. These abilities are essential for identifying and leveraging system weaknesses effectively and collaborating securely within advanced security teams.
$47K - $64K/yr
Other
Posted 9 hours ago
The B.I.O.N.I.C. Lab seeks a Post Doctoral Associate to resolve how intracortical microstimulation (ICMS) and next-generation photoresponsive electrodes evoke specific somatosensory and visual percepts, working across the two grant-aligned threads below.
The first thread operationalizes the Bidirectional Translation Framework in Kozai et al., JNE 2026 ("Solving the Problem of Inception"), pairing reverse-translation experiments (ICMS in individuals with spinal cord injury implanted with microelectrode arrays in primary somatosensory cortex during real-time BCI control, with the Gaunt and Collinger groups) with forward-translation experiments in NHP visual cortex (Gharbawie) and mouse visual cortex (Vazquez, Hooks, Kozai), thereby converting human perceptual reports into testable circuit hypotheses and returning optimized stimulation parameters to clinical BCI users.
The second thread, R01 NS105691 (MPI Kozai/Li, NINDS, PO Doe Kumsa), develops untethered boron-doped diamond Wireless Axon microelectrodes (MCD and NCD) that decouple the skull-to-tissue mechanical tether, reducing chronic micromotion-driven inflammation, and that exploit photovoltaic (capacitive) and photothermal stimulation to enhance somatic versus axonal selectivity relative to faradaic ICMS, with chronic in vivo validation in mouse visual cortex via two-photon calcium imaging, intrinsic signal optical imaging, and electrophysiology.
Both threads converge on a single mechanistic question, how spatially patterned current or photonic delivery recruits identified neuronal populations in sensory cortex across acute and chronic timescales, with secondary opportunities to extend the platform to gliomodulation, AD, MS, and neuroinflammation as career-development directions.
Key Responsibilities
The postdoc will cross-train across the labs of Robert Gaunt and Jennifer Collinger (human somatosensory BCI), Omar Gharbawie (NHP visual cortex), Alberto Vazquez (mouse visual cortex hemodynamics and two-photon), Bryan "Mac" Hooks (mouse visual and sensorimotor circuits), Chengcheng Huang (computational modeling), and Wen Li (MSU, diamond device fabrication), under the University of Pittsburgh Neural Engineering Cross-Translation (UP NExT) initiative.
Qualifications
Required:
Preferred (one or more):
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Pittsburgh, PA, US
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