Ecology and Environment Inc.
Ecology and Environment Inc.
News Article | July 20, 2017
LANCASTER, NY--(Marketwired - July 20, 2017) - The Board of Directors of Ecology and Environment, Inc. (E & E) ( : EEI) has declared a six month dividend of 20 cents per share. This is the 61st consecutive dividend E & E has declared since becoming a publically traded company in 1987. The dividend is payable on or before August 11, 2017 to shareholders of Class A and Class B common stock on record as of July 31, 2017. About Ecology and Environment, Inc. E & E is a global network of innovators and problem solvers, dedicated professionals and industry leaders in scientific, engineering, and planning disciplines working collaboratively with clients to develop technically sound, science-based solutions to the leading environmental challenges of our time. The company is listed on the NASDAQ Stock Exchange under the ticker symbol EEI and the information in this release can be found online at www.ene.com.
News Article | June 14, 2017
LANCASTER, NY--(Marketwired - June 14, 2017) - Ecology and Environment, Inc., ("E & E" or the "Company") ( : EEI) reported earnings of $0.19 per share for the nine months ended April 29, 2017, an increase of 138% from earnings of $0.08 per share reported for the same period of the prior year. A significantly reduced effective tax rate associated with South American operations and lower operating expenses in the U.S. and South America more than offset reductions in domestic and foreign revenues during the first nine months of fiscal year 2017. Management has continued to improve efficiency and reduce costs throughout the Company's domestic and foreign operations. These ongoing initiatives have offset the impact of global economic trends affecting oil, natural gas, and other commodity prices in E & E's major markets, trends that continue to negatively affect project activity and revenues within the Company's U.S. and South American operations. Quarterly earnings improved by 50% to net income of $0.06 per share for the third quarter of fiscal year 2017 from net income of $0.04 per share for the third quarter of the prior year, as lower operating expenses more than offset lower revenues. During the most recent quarter, the Company also recorded a net $0.6 million non-recurring legal and consulting expense associated with a contested election of directors that was settled amicably prior to the Company's Annual Meeting of Shareholders held in April 2017. "We are pleased to report meaningfully improved earnings results in the quarter and remain vigilant about expense control and operating efficiency as our markets remain highly competitive," said newly appointed Chairman Marshall Heinberg. "I am excited to join the Board of this outstanding company and look forward to working with the entire Board and Management to seek avenues of profitable growth in new and existing market segments." "Our improved quarterly results reflect ongoing strategic efforts to build a stronger and more efficient company," said E & E president and CEO Gerard A. Gallagher III. "Our new directors are bringing valuable experience and fresh perspectives to the Board and we look forward to working together to implement E & E's growth strategy and increase shareholder value." About Ecology and Environment, Inc. E & E is a global network of innovators and problem solvers, dedicated professionals and industry leaders in scientific, engineering, and planning disciplines working collaboratively with clients to develop technically sound, science-based solutions to the leading environmental challenges of our time. The company is listed on the NASDAQ Stock Exchange under the ticker symbol EEI and the information in this release can be found online at www.ene.com.
News Article | June 7, 2017
LANCASTER, NY--(Marketwired - June 07, 2017) - The Board of Directors of Ecology and Environment, Inc. (E & E) ( : EEI) has appointed Marshall A. Heinberg Board Chairman. Former Chairman and company co-founder Frank B. Silvestro will continue to serve on the Board. "Marshall Heinberg's leadership style and extensive investment banking and operational experience make him well suited to help execute E & E's corporate growth initiatives," said E & E president and CEO Gerard A. Gallagher III. "We welcome Marshall to the Board and look forward to working together with him and with all of our Board members to move E & E forward." "I am pleased to have the opportunity to work alongside my fellow Board members to assist the executive team of E & E in setting its strategic direction and implementing its growth plans," said Mr. Heinberg. "E & E has a long tradition of professional excellence and I am excited to be working with such a high quality team of professionals." Mr. Heinberg has served as Head of the Investment Banking Department and as a Senior Managing Director of Oppenheimer & Co. Inc. and has also served as the U.S. Head of Investment Banking at CIBC World Markets. During his career, he has worked on numerous financings and merger and acquisition transactions with many leading environmental engineering and consulting firms. About Ecology and Environment, Inc. E & E is a global network of innovators and problem solvers, dedicated professionals and industry leaders in scientific, engineering, and planning disciplines working collaboratively with clients to develop technically sound, science-based solutions to the leading environmental challenges of our time. E & E's U.S. offices are headquartered and incorporated in New York State. The company is listed on the NASDAQ Stock Exchange under the ticker symbol EEI and the information in this release can be found online at www.ene.com.
Castaneda-Moya E.,Louisiana State University |
Twilley R.R.,Louisiana State University |
Rivera-Monroy V.H.,Louisiana State University |
Marx B.D.,Louisiana State University |
And 2 more authors.
Ecosystems | Year: 2011
Patterns of mangrove vegetation in two distinct basins of Florida Coastal Everglades (FCE), Shark River estuary and Taylor River Slough, represent unique opportunities to test hypotheses that root dynamics respond to gradients of resources, regulators, and hydroperiod. We propose that soil total phosphorus (P) gradients in these two coastal basins of FCE cause specific patterns in belowground biomass allocation and net primary productivity that facilitate nutrient acquisition, but also minimize stress from regulators and hydroperiod in flooded soil conditions. Shark River basin has higher P and tidal hydrology with riverine mangroves, in contrast to scrub mangroves of Taylor basin with more permanent flooding and lower P across the coastal landscape. Belowground biomass (0-90 cm) of mangrove sites in Shark River and Taylor River basins ranged from 2317 to 4673 g m-2, with the highest contribution (62-85%) of roots in the shallow root zone (0-45 cm) compared to the deeper root zone (45-90 cm). Total root productivity did not vary significantly among sites and ranged from 407 to 643 g m-2 y-1. Root production in the shallow root zone accounted for 57-78% of total production. Root turnover rates ranged from 0.04 to 0.60 y-1 and consistently decreased as the root size class distribution increased from fine to coarse roots, indicating differences in root longevity. Fine root biomass was negatively correlated with soil P density and frequency of inundation, whereas fine root turnover decreased with increasing soil N:P ratios. Lower P availability in Taylor River basin relative to Shark River basin, along with higher regulator and hydroperiod stress, confirms our hypothesis that interactions of stress from resource limitation and long duration of hydroperiod account for higher fine root biomass along with lower fine root production and turnover. Because fine root production and organic matter accumulation are the primary processes controlling soil formation and accretion in scrub mangrove forests, root dynamics in the P-limited carbonate ecosystem of south Florida have a major controlling role as to how mangroves respond to future impacts of sea-level rise. © 2011 Springer Science+Business Media, LLC.
Huq P.,University of Delaware |
Franzese P.,Ecology and Environment Inc.
Boundary-Layer Meteorology | Year: 2013
Water-tunnel measurements of velocity, turbulence and scalar concentration for three model urban canopies with aspect ratios Ar of building height-to-width of 0. 25, 1 and 3 are presented. The measurements for the canopies with Ar = 1 and 3 are new, while the measurements for Ar = 0. 25 were previously published. A passive scalar was continuously released from a near-ground point source, and the concentration was measured at several distances from the source and at different heights above the ground. Plume spreads, concentration and distance from the source were non-dimensionalized using length, time and velocity scales reflecting the geometry of the buildings. The scaling collapses the data for all aspect ratios and is valid when the vertical extent of the plume is smaller than the canopy height. The observed plume spreads are compared with analytical relations, which predict linear growth in both transverse and vertical directions. The observed mean concentration is compared with a Gaussian dispersion model that predicts a -2 power-law decay with distance from the source. © 2012 Springer Science+Business Media Dordrecht.
Roy D.,Nicholls State University |
Roy D.,North Dakota State University |
Hassan K.,Ecology and Environment Inc. |
Boopathy R.,Nicholls State University
Journal of Industrial Microbiology and Biotechnology | Year: 2010
The United States Marine Shrimp Farming Program (USMSFP) introduced a new technology for shrimp farming called recirculating raceway system. This is a zero-water exchange system capable of producing high-density shrimp yields. However, this system produces wastewater characterized by high levels of ammonia, nitrite, and nitrate due to 40% protein diet for the shrimp at a high density of 1,000 shrimp per square meter. The high concentrations of nitrate and nitrite (greater than 25 ppm) are toxic to shrimp and cause high mortality. So treatment of this wastewater is imperative in order to make shrimp farming viable. One simple method of treating high-nitrogen wastewater is the use of a sequencing batch reactor (SBR). An SBR is a variation of the activated sludge process, which accomplishes many treatment events in a single reactor. Removal of ammonia and nitrate involved nitrification and denitrification reactions by operating the SBR aerobically and anaerobically in sequence. Initial SBR operation successfully removed ammonia, but nitrate concentrations were too high because of carbon limitation in the shrimp production wastewater. An optimization study revealed the optimum carbon to nitrogen (C:N) ratio of 10:1 for successful removal of all nitrogen species from the wastewater. The SBR operated with a C:N ratio of 10:1 with the addition of molasses as carbon source successfully removed 99% of ammonia, nitrate, and nitrite from the shrimp aquaculture wastewater within 9 days of operation. © Society for Industrial Microbiology 2010.
Kauffman-Axelrod J.L.,Ecology and Environment Inc. |
Steinberg S.J.,Humboldt State University
Wetlands | Year: 2010
Recent geographic information system (GIS) mapping of Oregon's tidal wetlands identified over 2,000 potential restoration areas. Given the large number of restoration opportunities, we developed automated GIS tools to assist resource managers in prioritizing areas with less hydrologic alteration and more favorable landscape scale metrics. The Coos estuary and watershed was used as an example of a regional application. We developed nine GIS tools using scripting techniques to prioritize among 530 potential restoration sites using widely available state-wide datasets. Parameters evaluated were limited to factors affecting a site's hydroperiod at multiple scales and reflecting consideration of ecological principles. Tabular model output was used to prioritize potential restoration sites. Prioritization ranks were calculated using a three-tier weighted summation designated by Coos estuary restoration practitioners. Standardized ranks ranged from 0.479-1.000 on a zero to one scale. Higher ranks indicate more favorable landscape scale metrics and less cumulative hydrologic alteration. Model output, standardized parameter scores, and prioritized rankings of potential restoration sites were stored in a Microsoft Access database coupled with a geodatabase containing spatial geometry. These automated tools present repeatable and flexible methods for evaluation and prioritization of a large number potential restoration sites in Oregon. © 2010 Society of Wetland Scientists.
Chen H.,South Florida Water Management District |
Vaughan K.,Ecology and Environment Inc.
Wetlands | Year: 2014
The influence of inundation depth on phytomass, shoot density, photosynthesis, elongation, and nutrients of Typha domingensis in Stormwater Treatment Area-1East (STA-1East) was examined and results were evaluated relative to phosphorus (P) treatment from 2006 to 2011. Biomass and nutrient concentrations of T. domingensis were not related to inundation depth. Necromass and belowground/leaf biomass ratio increased with increasing inundation depth from 30 to 80 cm. Shoot density, photosynthesis, and elongation decreased with inundation depth. The contents of necromass nutrients and phytomass nitrogen increased with inundation depth. Annual total P (TP) concentration increase (-) or decrease (+) from inflow to outflow was -21 %, -3 %, + 8 %, -54 %, +41 %, and +29 % in 2006-2011, respectively. Decreases in soluble reactive P (SRP), total dissolved P (TDP), dissolved organic P (DOP), and/or particulate P (PP) from inflow to outflow were low or did not occur annually. Prolonged inundation damaged T. domingensis community and thus adversely impacted the capacity of the system to treat P. Inundation depths in the STAs can be categorized into optimal, subtle stress, and lethal stress zones. This study stressed the importance in maintaining vegetation within an optimal zone of inundation for a sustainable system. © Society of Wetland Scientists 2013.
Ecology and Environment Inc. | Date: 2010-06-04
A computer based system for managing vehicles, including: a memory unit for at least one specially programmed computer, for storing a request from a first user regarding a trip including a starting point, destination, and schedule. The system includes a processor for the computer for receiving a request from a second user regarding a trip including a starting point, a destination, and a schedule. The processor calculates whether the requests are compatible by calculating whether the following are true: the starting points are within a range of each other; the destinations are within a range of each other; and the schedules are within a range of each other. If the requests are compatible, the processor is for: assigning a vehicle from a plurality of vehicles to the requests; and displaying a notification regarding the assignment of the vehicle.
Ecology and Environment Inc. | Date: 2013-09-11
A computer-based method for gamifying ride sharing, including: storing computer readable instructions in at least one memory element of at least one computer; and executing, using at least one processor for the at least one computer, the computer readable instructions to: accept a first input including a sign-up by a user for a game; accept a second input including information regarding single occupant vehicle trips reduced by the user; assign, according to the information, a position of the user on a virtual board for the game, a ranking of the user in the game and at least one reward to the user; and transmit, for display, a graphical representation of the virtual board including the position of the user.