Mohammed Al-Jabari

•Collaborate closely with the Technology Development and Process Integration teams to introduce and configure new technologies in production, while also refining wafer inspection procedures to effectively identify yield-detracting defects during production steps. •Utilize strong data analysis and programming skills, including in AI/Machine Learning and programming languages such as Python/MATLAB, to analyze large-scale data and optimize defect detectability. •Oversee automatic optical inspection (AOI) and monitor product quality, continuously enhancing the technical aspects of the process area. •Innovate by creating new tests to improve performance parameters further and work with Defect Metro engineers to optimize and identify the best inline defects detectability on the silicon wafers. •Set up and optimize wafer inspection steps and recipes to ensure the detection of yield-detracting defects in line at each step, while executing and producing a wafer inspection strategy to protect yield and quality at maximum productivity and lowest cost. •Demonstrate problem-solving techniques with strong self-initiative and self-learning capabilities, working effectively with multi-functional, multi-cultural teams and solid written and verbal communication skills.

Chemical fertilizers have been applied to soil as essential sources of nutrients for intensive agricultural production. But the excessive use of these substances can lead to runoff of nutrients into surface and ground water, causing an environmental impact. Accumulation of nutrients in excess of crop needs may also increase the potential for eutrophication of surface waters. Standard laboratory methods for measurement of soil nutrients use various procedures and instruments to analyze soil samples taken from the field and transported to the laboratory. Concerns with these procedures range from delays in measurement time, the high cost of soil sampling and analysis, and the need to aggregate samples. With recent advances in using ISE (Ion-Selective Electrode) soil nutrients can now be measured directly, rapidly, accurately, at low cost, at a fine scale, and in real-time right in the field. This thesis work aims towards designing and simulating conditioning circuit for 8 sensors (ISE), Realizing of the hardware, testing and characterizing the hardware and comparing the results with commercial ion meter, ISFET (Ion-Selective Field Effect Transistor), and spectrophotometer results. Main tasks • Simulation (Conditioning circuit and motor board Simulation using LTspice) • Hardware design and development (PCB design and development using Altium Designer; PCB soldering ) • Software development (Embedded Software development for 32-bit Arm Cortex-M3 PSoC 5LP microcontroller): Firmware for reading external analog-to-digital converter and component control using SPI, UART, GPIO interfaces • Statistical analysis for the results: Implementation of mathematical methods for signal processing at microcontroller level • Implementation of communication protocol for data exchange between microcontroller and GUI on the computer

Key Responsibilities: • Structure design for Blood Brain Barrier (BBB) • Wafer mask design • Printing the mask on the wafer then etching the wafer using Reactive Ion Etching (RIE) • Evaluation and analysis of the results

I act as a technical resource for Operations personnel, applying technical/leadership skills to manage production, to optimize plant operations, resolve plant problems and enable production of low cost, quality products. This role is to provide a technical resource to assist work teams on daily operations and process performance in order to operate a low cost, on specification, reliable, optimized operation, thereby maximizing value to the business. Key Responsibilities: • Understands all applicable process technology, equipment and control technology. Provides leadership and works with Technical Advising and Operate Plant personnel to optimize operations, meet Business and plant goals (Environmental Health &Safety, quality, production, cost). • Participates in advanced troubleshooting and coaches others to learn these skills. • Implements best practices in operations in order to optimize operations. Ensures Most Effective Technology (MET) and specific Operating Discipline requirements are in place • Production planning and execution as per sales requirement. • Ordering and following up different supplies of raw materials and equipment to ensure in-time availability. • Monitors and takes action on suppliers’ logistics performance regarding capacities, delivery performance, lead time, order fulfillment and delays. • Actively involves in matters of replenishment solutions, lead times, and transport and logistics cost optimization. • Following up day to day production problems. • Coordinate different machines maintenance with the maintenance department. • Rescheduling the production according to the machines' capacity.

As a production engineer, I have an extremely important role as I must ensure the company’s manufacturing process runs as efficiently as possible. I must regularly check equipment to see it is in good working order; this helps create as much product as possible with a minimum of leftover scrap. Key Responsibilities: • Plan and coordinate production on daily basis to produce high quality products • Develop process improvements to effectively utilize equipment and materials to maximize production • Develop operational strategies to achieve production and financial objectives • Identify unsafe operations and practices and report the same to Manager immediately • Establish safety procedures and environmental regulations for employees • Provide engineering support for production and maintenance activities to ensure maximum production • Perform engineering analysis to reduce downtime and outages • Evaluate current production activities and make recommendations for improvements • Implement cost reduction initiatives while maintaining high quality standards • Develop operating instructions and equipment specifications for production activities • Provides training and guidance to team members to accomplish production goals • Stay current with product specifications, engineering technology and production processes • Develop best practices to improve production capacity, quality and reliability • Investigate problems, analyze root causes and derive resolutions

Intern at the Research and Development Dept. • Milling different types of Clinker using the Beta-mill • Analyzing measurements results • Applying theoretical and empirical procedures for tuning the Beta-mill parameters • Assisting in the outcomes presentation and decision making during the department meetings • The documentation of all results and data • The detailed documentation of all procedures for succeeding interns

Internship in the automotive maintenance department of Nuqul Automotive. I was enrolled in the Audi team, and performed basic maintenance operations on Audi vehicles.

• Manage Responsibly: Strategic Management, Ethics & CSR • Master Change: Marketing Fundamentals, Organizational Behavior & Change Management • Understand the Organization: Financial Accounting, Operations Management • Crunch the Numbers: Corporate Finance, Macroeconomics • Manage Financial Impacts: Capital Markets & Investment, Mergers & Acquisitions • Leverage Data for Strategic Decision-Making: From Data to Insights, People Analytics • Create & Lead Markets: Innovation, Digital Strategy, Sales, Key Account Management

Smart systems are devices that collect information over sensors, make independent decisions based upon this information, then act upon it accordingly. Security aspects, reliability, miniaturization, energy consumption and intelligent data processing, all play a critical role. To find successful solutions, it is therefore necessary to consider the smart system and its environment as a whole. Key Points: • Analog and digital electronics • Micro-technology (MEMS and IC design) • Advanced control theory • Optics