NEW YORK – According to a new salary survey by the American Society of Mechanical Engineers (ASME) and the American Society of Civil Engineers (ASCE), the average salary for engineers in 2012 is $95,603, an increase of $2,877 over last year. Annual income for engineers, including commissions and fees, increased nearly 4 percent from 2011 to 2012.
The data were compiled from an online survey of 12,720 engineers in multiple age groups and employed in varied industry sectors and technical disciplines. Nearly 72 percent of the respondents indicated a salary increase.
– Engineers working in the field of ocean engineering represent the highest full-time salaried median income, $169,000.
– The median annual income is the highest in California, Nevada and Hawaii, and lowest in the Upper Mountain states.
– Nearly 57 percent of respondents are recipients of a standard benefits plan from their employers; the remaining group receives flexible benefits.
“There has never been a more exciting time to be an engineer, and the results of the 2012 Engineering Income and Salary Survey confirm what we already know: Careers in engineering are rewarding on many levels,” said Thomas Loughlin, executive director of ASME.
“We hope the survey will be a resource to the many organizations that track employment and salary data on engineers,” said Alicia Karwoski, P.E., Director of Professional Activities at ASCE. “We are encouraged to see engineering salaries on the rise at a time when more engineers are needed to spur technological innovation in the United States and around the world.”
ASME and ASCE have been collaborating on the salary survey report for the last five years. The firm enetrix, a division of Gallup Inc., prepared The Engineering Income and Salary Survey, a broad report which breaks down key income data and trends based on length of experience, supervisory responsibility, education level, gender, ethnicity, work location, and other criteria.
Download the The Engineering Income and Salary Survey at http://files.asme.org/asmeorg/Jobs/Manage/32673.pdf.
Crossing the Gap: Civil Engineers Develop Improved Method for Detecting, Measuring Bridge Damage
ScienceDaily (July 19, 2012) – A ratings system developed by a group of Kansas State University researchers could keep bridges safer and help prevent catastrophic collapses.
Hayder Rasheed, associate professor of civil engineering, and Yacoub Najjar, professor of civil engineering, are collaborating to better detect and measure damage in concrete bridges. Ahmed Al-Rahmani, doctoral student in civil engineering, United Arab Emirates, has also been involved in the project.
The researchers have created a bridge health index, which is a rating system that more accurately describes the amount of damage in a bridge. Additionally, the health index can extend beyond bridges and apply to other structures, such as gas pipelines, dams, buildings and airplanes.
The engineers have developed ways to take bridge measurements and use finite element analysis and neural network modeling to back-calculate and detect bridge damage. The researchers combined this process of inverse problem solving with Najjar’s expertise in neural networks to create the bridge health index.
Current methods of inspecting bridges are very subjective, Rasheed said. Experienced inspectors from the Federal Highway Administration in the U.S. Department of Transportation visually inspect bridges and determine damage amounts. Problems can arise because one inspector may determine a bridge to be 70 percent damaged, while another inspector maybe determine the same bridge to be 80 percent damaged.
“It varies from inspector to inspector,” Rasheed said. “They measure the cracks in the bridge, but they have no objective way to calculate how much it is damaged. Because the inspectors decide which bridges are repaired first, it’s very important to make the process objective across the board.”
The bridge health index provides a more objective way to determine and compare bridge damage to decide which bridges most need repairs. The network allows inspectors to input parameters, such width, depth and location of cracks in a bridge, and the network will tell the health index of the bridge.
According to the bridge health index, a new, undamaged bridge has a health index of 100. The health index of a bridge goes down as it gets older or as damage occurs.
“The health index is one systematic approach in a sense,” Najjar said. “Inspectors gather information about the bridge, put in the information and they receive the health index of the bridge. It makes it easier to study the bridge because you bring all of these dimensions into one number. But when you have multiple dimensions, it is difficult to rate them.”
Currently, the researchers and several graduate students have been building and training the health index system with synthetic bridges, which can simulate how bridges will act under certain conditions. The researchers have built the network based on thousands of simulations.
“We take these measurements and we run them through two cycles of analysis,” Rasheed said. “We come up with damage detection of where we expect the cracks to be and how deep and how wide they are. It’s a very intelligent system.”
The next step is to build bridge beams. The engineers will create cracks in the beams and then enter measurements into their network modeling system to determine how well the system can detect and predict cracks. After working with bridge beams, the researchers will test bridges throughout the state.
The researchers said the health index system could lead to safer bridges and prevent catastrophic events, like the 2007 collapse of the I-35W Mississippi River bridge in Minneapolis, from reoccurring.
“If a system like this had existed, inspectors might have foreseen there would be a problem with the Minneapolis bridge,” Najjar said. “It might have been weak in certain areas, but other elements might have been very healthy. If you don’t have a health index to reflect that, you won’t be able to rate it.”
The engineers have also discovered numerous applications of the health index because the same network modeling system can be applied to other structures — including dams, buildings and airplanes.
“Using this system on airplanes is especially effective because you deal with specific material and you can understand its behavior even better,” Najjar said. “You can test the wing of an airplane and find its health index.”
The researchers have received financial support from the Kansas Department of Transportation and want to develop the network model into a tool that can be used by the Department of Transportation.