News:

CTC has moved to 3915 Research Park Drive. Suite A-8, Ann Arbor, MI 48108.
CTC has moved to 3915 Research Park Drive. Suite A-8, Ann Arbor, MI 48108.

Electrical Engineering

60+

Years of Experience

Electrical Engineering

Our hands-on expertise in all aspects of electrical engineering is a significant reason for CTC’s success since 2005. Our specific capabilities are listed below. Please call us for more detailed information. 

Substations

From Concept to Commissioning™ affordable and expandable.

The efficiency of every power system, stems from a well-designed substation. For industrial, commercial and municipal applications ranging up through 345kV, CTC Engineering has the knowledge and experience you’re looking for.

A feasability study to determine:
  • Capacity of Existing and Proposed Electrical Systems
  • Site Assessment and Ease of Installation
  • Estimated Cost of Labor and Materials
Perform Studies and Analysis for:
  • Load Flow
  • Voltage Drop
  • Fault Analysis
  • Protective Device Coordination
  • Arc Flash and Shock Hazard Risk Assessments
  • Power Factor Correction
Physical Design, Protection, and Control:
  • Electrical Equipment and  Cable Sizing
  • Electrical Monitoring and Metering
  • Communication and Control Wiring
  • Equipment Grounding
  • Lightning Protection
Project Management and Documents:
  • Electrical Schematics and Site Plans
  • Electrical Specifications
  • Calculations and Conclusions
  • Arc Flash and Shock Hazard Labels
Commissioning and Training
  • A record set of drawings and specifications
  • The relay calculations manual
  • The submittals, instruction and maintenance manuals in a complete and orderly package
  • An electronic copy that includes all the above materials

Protective Relay Systems

We design new and retrofit older protective relay systems for our commercial, industrial and utility clients. The protection we design can either be electromechanical or micro-processor. Electromechanical systems’ technology, while older, remains quite effective. However, microprocessor-based relays’ digitized technology is now the preferred option and typically is our design standard. 

DC Systems

The 48/125/250VDC systems we design are critical components of our overall substation design blueprint. They serve as critical backup in case of a power failure or AC circuit fault.

Emergency/Standby and Parallel Generation

We design and develop backup power systems strategically placed in hospitals, airports, refineries – wherever the loss of the main source of power can cause catastrophic issues. Generators are built to our specifications and tested on site by CTC engineers to ensure functionality. We work with our clients to help them generate their own electrical power which can be used for demand response programs for a creative income stream.

Cogeneration

CTC’s broad skill set includes helping our clients develop cogeneration systems that using a single power source, typically natural or landfill gas

Low Voltage Power Distribution System

CTC’s low voltage systems are designed to effectively provide power to manufacturing plants, hospitals, educational, airports and other industrial facilities.

Electrical substation
Photovoltaic solar panels

Renewable and Microgrid Power System [wind, solar, hydro]

For our clients interested in Green power sources, we design systems utilizing solar, wind and hydro that meet all current environmental and clean energy standards.

NERC/FERC Document Preparation

CTC works with its power plant and other power-generating clients that are considered critical assets to the Bulk Electric System (BES) to complete NERC/FERC documents, in compliance with their regional operator.  These include the FAC, MOD, PER and PRC standards.  CTC can assist in putting together an initial program to complete these documents and defend them, if required.  These include PRC 005, PRC 019, PRC 024, FAC 008, MOD 032.

Electrician with Protective Workwear

Case study No. 1: Electrical Engineering Western Michigan University

Issue

Utilizing its cogeneration system, WMU’s Robert M. Beam Power Plant, it is necessary by the local utility to maintain an acceptable power factor. This required the University to generate certain reactive power component which reduced the real power that this system could generate, reducing the rate of return on these assets.

Solution

WMU retained CTC Engineering to solve the problem. Research carried out by CTC engineers measured real power versus reactive power needs. Subsequently, they developed a design for a reactive power solution through the use of an automatic variable capacitor system. CTC directed the installation and commissioning of this medium voltage system from start to finish making sure deadlines and budgets were met.

While all of this was being done, our engineers designed the substation’s renovation schedule. Working with two contractors, a work scope of underground and overhead work was developed by CTC, directing the project from start to finish with its engineers regularly on site.

Results

CTC analysis of the problem and the ultimate design of the of the variable capacitor system resolved the problem and as a result, the University was able to gain full capacity of their generators’ assets, improving the system’s rate of return.

“This was a big project. Everything has worked flawlessly. Glenn Keates is our hero. There is no one better to work with. He has been working on projects here since 1994. If there are issues he figures it out and gets the job done right. I wouldn’t work with any other company.”
– George Jarvis, director, WMU Power Plant