Bergen County Utilities Authority Little Ferry, NJ

Slides:



Advertisements
Similar presentations
Capital Improvement Program (CIP) Overview Dean Fisher, P.E., PMP, CCM July 25, 2013.
Advertisements

HURRICANE SANDY PASSAIC VALLEY SEWAGE COMMISSION AIR MONITORING PROJECT JEFF MEYER NORTHERN REGIONAL OFFICE AIR COMPLIANCE AND ENFORCEMENT.
Bergen County Utilities Authority Bergen County Utilities Authority Little Ferry, New Jersey Rain Derived Infiltration/Inflow Reduction and Sanitary Sewer.
Why Does the Lake Community Need a Sewer Septic tanks are failing. The life expectancy of a septic tank in “ideal” conditions is 20 years. In many cases.
KING COUNTY & BROWN GREASE Local sewer agencies have a need to address restaurant grease trap waste. In response, there is the potential of a renewable.
Installation of New CHP system at the Old Aberdeen Campus.
Anchorage Regional Landfill Landfill Gas-to-Energy Project
DISTRICT HEATING: AN OVERVIEW PRESENTED BY: NIELSEN SYSTEMS APRIL 8, 2011.
G LASGOW R EGIONAL L ANDFILL M ETHANE R ECOVERY TO E LECTRIFICATION P ROJECT GOVERNOR’S ENERGY CONFERENCE By Mayor Rhonda Riherd Trautman.
NARUC 2015 Winter Meeting February 16, 2015 Combined Heat and Power and the Clean Power Plan Bruce Hedman Institute for Industrial Productivity.
Integration of CHP Into Waste Water Treatment Processes London 5 th November 2014 Peter Bense.
1 District of Columbia Water and Sewer Authority George S. Hawkins, General Manager July 17, 2012 DC WATER Hosted by: DBIA-MAR Monthly Luncheon Water Wastewater.
Dallas Water Utilities Southside Wastewater Treatment Plant Cogeneration and Co-Digestion Projects May 9, 2011 Turning Waste Into Energy.
Capital Improvement Program (CIP) Overview Nick Kanetis, P.E. June 14, 2013.
Combined Heat and Power (CHP) The Draft New Jersey Energy Energy Master Plan calls for the development of 1,500 MW of CHP generation over the next ten.
Southwark’s New District Heating Network.
The Potential for CHP in the Northeast Provided by the Industrial Energy Consumers Group, 1/18/07 Source: Energy and Environmental Analysis, Inc.
Combined Heat and Power and Air Quality - Guidance for Local Authorities Ed Dearnley Policy Officer.
FIFTH ANNUAL FEDERAL ENERGY WORKSHOP & DEFENSE ENERGY PARTNERSHIP FORUM | PAGE 2 Bruce Hedman, Institute for Industrial Productivity September 16, 2014.
SUSTAINABLE SEWAGE Melissa K. Scanlan Associate Dean & Associate Professor Vermont Law School.
1 Nassau County NY United Water Partnership The US Conference of Mayors Mayors Water Council April 30 – May 1, 2015 Rob Walker Chief Deputy County Executive,
Neeharika Naik-Dhungel, EPA CHP Partnership Program Central Pennsylvania AEE Meeting January 26, 2012 Combined Heat and Power: CHP Partnership and the.
Katrina Pielli U.S. Environmental Protection Agency CHP Partnership
Physical Plant Department Physical Plant Department Salvatore Chiarelli Director Of Physical Plant UVM 284 East Avenue, Burlington VT 05405
Bergen County Utilities Authority Bergen County Utilities Authority Little Ferry, NJ Superstorm Sandy: BCUA’s Little Ferry WPCF Hazard Mitigation Plan.
Siemens sans siemens sans bold siemens sans italic siemens sans italic bold siemens sans black siemens black italic Siemens Building Technologies.
SUSTAINABLE ENERGY REGULATION AND POLICY-MAKING FOR AFRICA Module 13 Energy Efficiency Module 13: SUPPLY-SIDE MANAGEMENT.
1 CHP – The Concept Presented At: Methane Recovery from Farm & Food Processing Waste Peru, Indiana June 6 th, 2006 Presented By: John Cuttica Midwest CHP.
Energy & Emissions Strategic Plan EWA’s Roadmap to Energy Independence.
© 2011 Pearson Education, Inc. AP Environmental Science Mr. Grant Lesson 74 Wastewater and Its Treatment.
Co-Generation: Today’s Reality Larry McFall Plant Operations Manager Rock River Water Reclamation District Rockford, IL
Lansing Board of Water & Light REO Town Headquarters & Cogeneration Plant REO Town Cogeneration: Concept to Commercial Operation.
Cheri Cousens, P.E. – Executive Director September 15, 2010.
1 Renewable Energy for the Wastewater Industry: the Office of Water Perspective WEFTEC 07 Workshop October 13, 2007 Jim Wheeler, USEPA Office of Wastewater.
Freeport Generating Project Project Description Modernization projects at Power Plant #2 Developers – Freeport Electric and Selected Development Company.
By Brian Kish and David Buck Study of the Utilization of Bio-Gas (Methane) for the Coors Brewing Company.
Cypress Restoration of the Bayou Bienvenue Central Wetland Unit Sarah K. Mack Environmental Scientist.
FY 2005/06 Accomplishment Eastern Maine Medical Center (EMMC) Receives “Critical Power Reliability” from CHP System CHP System Construction Project is.
And the Technologies to use it. Tina Kaarsberg, PhD House Science Committee, Energy Subcommittee For For Producing Energy:
The Future of Sludge Disposal: A Fresh Perspective after Sandy Jim Meehan – Executive Director Rahway Valley Sewerage Authority.
SEWAGE TREATMENT.  Sewage is the mainly liquid waste containing some solids produced by humans, typically consisting of washing water, urine, feces,
FOR SIXTY YEARS WE HAVE BEEN TAKING THE POWER FROM WATER AND HANDING IT OVER TO NATIONS LINKING THE DOTS Bucharest, February 20, 2014.
Low carbon heat international showcase Edinburgh The Public Sector Role in Developing Area-wide Low to Zero Carbon Heat 18 th November 2014.
Alaska Municipal League 59th Annual Local Government Conference The Programs of the Alaska Energy Authority Energy and Empowerment for Your Communities.
ENERGY AGENCY LITHUANIA Perspective for the EU Structural Assistance to the Energy Projects in Lithuania for the period Marijus Franckevičius.
CHP & DG METERING & MONITORING IN NEW YORK STATE CASE STUDIES AND IMPLEMENTATIONS Presented By: STEPHEN STONE, PE DSM ENGINEERING ASSOCIATES, PC
Utah State University Logan Utah. Founded 1888 as a Land Grant Institution Host City – Logan, Utah (48,ooo+ population) ~ 15,000 Students (~ 28,700 students.
Hanock Megenta 8 th Hour. What is Alternative Energy?  Alternative Energy is the use of non- conventional energy sources to generate electrical power.
January 28, A new power station, privately owned, is established in the Gaza Strip The Israel Electric Company receives a concession.
Using New Jersey’s State Revolving Fund to Reduce Combined Sewage Flooding in Camden City Andrew Kricun, P.E., BCEE Executive Director / Chief Engineer.
Environmental Science  Mid-1800s, 25,000 people living along the River Thames in London died of cholera  River was declared “dead” by 1950  Walk.
London 2062 Symposium London’s Energy Future Peter North 19 th March 2012.
DC Water 的项目合作与职业 发展机会 Chein-Chi Chang ( 張建祺 ), Ph. D., P. E. D. C. Water and Sewer Authority, USA University of Maryland, Baltimore County, USA Environmental.
Town of Enfield : Upgrading the Water Pollution Control Facility & Collection System Jay Sheehan, PE Michael Burns, PE.
Power Resiliency at Water Utilities: What States Can Do Lauren Wisniewski U.S. Environmental Protection Agency ASDWA Webinar August 5, 2015.
Cogeneration at UC March 09, Welcome Central Utility Plant.
Session: Enabling Technologies for Energy Resiliency
First in Service First in Value
UMCP Learning Objectives
Perris Water Filtration Plant Membrane Upgrade – Phase I
NYU Cogeneration and Microgrid John Bradley ITP Spring2016
Victor Valley Water Reclamation Authority Biogas to Energy Project with Omnivore™ Digester Demonstration May 30th, 2013.
One Utility’s Path to Climate Change Readiness
Pacific Power Seismic Preparedness Update
Using Energy Conservation, Green Energy, Green Infrastructure and EPA’s CREAT Program, to Reduce Carbon Footprint & Vulnerability to Climate Change Andrew.
Energy Conservation CERD /12/2017
City of Janesville Wastewater Facility Plan Amendment Public Hearing
The Collapse of Gaza's Electricity System – Well-Planned and
Effects of Disasters on Wastewater Treatment and Collection Systems
The Project Overview and Status Report
Presentation transcript:

Bergen County Utilities Authority Little Ferry, NJ Superstorm Sandy & BCUA’s Energy Resiliency Plan Dominic L. DiSalvo, PE, BCEE Richard M. Cestone, PE, CHMM Water and Energy Nexus in Disaster Workshop November 6, 2013 Welcome Intros

Agenda Overview of BCUA’s Little Ferry Water Pollution Control Facility (WPCF) Overview of Superstorm Sandy Impacts Overview of BCUA Mitigation Approach and Energy Resiliency Details on the Combined Heat and Power (CHP) System Upgrade and Additional CHP Black Start Capabilities Questions

BCUA Little Ferry Water Pollution Control Facility In service since 1951 Expanded through the 1970s, 80s and 90s. Design Capacity: 109 MGD Maximum Month Provides secondary treatment. Discharges treated water into the Hackensack River. The BCUA owns and operates seven pumping stations in the Little Ferry WPCF collection (sewer) system. (Municipalities in service area own sewers and combined sewer overflows.) BCUA BCUA Info

BCUA Service Area Little Ferry WPCF Serves about 536,000 residents. 46 municipalities Commercial/Industrial METLIFE Stadium Others Map of the BCUA Service Area

Impacts of Superstorm Sandy 100-Year Flood Impacts Loss of Service Costs: $1M per hour Systems Power/Alternate Power BCUA Preparedness and Successes during Response Explain the impacts of HS The FEMA value of lost wastewater service should be included as follows:  The value of the downtime of Little Ferry WPCF facility in terms of costs per hour during a wastewater service outage will be (540,000 x $45) / 24 based on the following: Service population x FEMA dollar value per capita per day for lost wastewater service / hours per day, or $1.01 Million dollars per hour Lessons learned BCUA Successes Unresolved Issues?

Restoration Asset inventory of damage Systems level plan for restoration Scopes of work and cost estimates submitted to FEMA Restoration Restoration Steps Estimated costs

Superstorm Sandy and the Future Flood Elevations Superstorm Sandy and the Future Estimated Superstorm Sandy Elevation on site: 9.0 + feet Proposed 100-Year Storm Elevation for the Area: 9.0 feet Proposed 500-Year Storm Elevation: 12.0 feet Design Storm for Mitigation: 100-Year (9.0 feet) + 2-foot freeboard + 1-foot Sea Level Rise = 12.0 feet Flood level protection

Plant–wide Mitigation Plan for improvements to mitigate future impacts Tiered prioritization of “at risk” components Scopes of work and cost estimates submitted to FEMA Mitigation Steps Estimated costs

Mitigation Tiers Tier 1: Moving wastewater (WW) out of the collection system Tier 2: Conveyance through the plant and disinfection Tier 3: Primary and secondary treatment Tier 4: Operations Tier 5: Ancillary

BCUA Power Supply Power supply is critical to maintaining service to the community. Loss of power supply: No wastewater (sewage) treatment Wastewater will remain in the collection system. Backup into the community Local health and safety issues According to FEMA, lost wastewater service is equivalent to $45/person/day: - At 536,000 residents = $24M per day ($1M per hour) Poor power quality: Potential damage to plant equipment Power supply mitigation This is the most critical initiative for which we are pursuing funding. Overview of this plan.

BCUA Power Supply Existing BCUA Power Supply: PSE&G electrical grid Biogas powered generators (natural gas from PSE&G available) Backup emergency generators (kerosene fuel) During Superstorm Sandy: Power fluctuations in PSE&G electrical grid Equipment damage BCUA took itself off the PSE&G electrical grid BCUA operated emergency generators

Power Supply Mitigation Goal: Maintain wastewater service at all times, including outage/fluctuations in the PSE&G electrical power grid. Approach: Create a new power supply microgrid as the primary source of electricity. The PSE&G electrical power grid will be the secondary or standby source. Based on the expansion of existing biogas powered CHP electric generator system. Use sustainable primary fuel – Biogas from the on-site digestion of sewage sludge (biosolids), brown grease and food organics. Use natural gas from the PSE&G piping network as the secondary or standby fuel for CHP. Power supply mitigation This is the most critical initiative for which we are pursuing funding. Overview of this plan.

Power Supply Backup Mitigation New Power Supply Microgrid Project will include: New third CHP electric generator New energy efficient aeration blowers Upgrades to the digester system to enhance on-site biogas fuel production and provide storage New brown grease and food waste receiving and processing system to augment biogas production Power Supply Mitigation New Power Supply Microgrid to maintain Wastewater service at all times including during outage of PSE & G power grid. New third Biogas powered Combined Heat and Power electric generator New energy efficient aeration blowers Upgrades to sewage sludge digester system to provide on-site  biogas fuel production and storage Accept and process brown grease and food organics from outside sources to produce biogas fuel for CH & P electric generators New power supply microgrid will be the lead source of power and on continuously, and the PSE & G power line grid will be the lag, or standby source of electricity to run the facility. In a similar philosophy, the biogas produced from digesting sewage sludge, brown grease, and food organics will be the lead source of sustainable fuel for the C H & P electric generators, and purchased piped in natural gas from the PSE & G piping grid will be the lag or standby fuel. The exact language and format is flexible.

Other Power Supply Mitigation Protect key power supply assets from flooding at the design flood elevation. Main Substation: Raise electrical components. Switchgear Building and Cogeneration Building: Dry proof walls. Install flood-resistant entrances. Install a flood wall around the building. Raise the transformer outside the Cogeneration Building. P

BCUA’s History of Biogas Use In 1995, the BCUA installed 1.3 MW caterpillar gas fired engines for their air blower system providing air to their aeration tanks. The engines were designed to burn natural gas and biogas. The BCUA cut a deal with PSEG. This Standard Offer Agreement with PSEG would provide a cost savings if biogas was used in the engines. When the engines started, however, silicon dioxide – a product of combustion of siloxanes – caused increases of NOx and CO emissions and PSEG considered revoking the Standard Offer. The BCUA installed a carbon absorption system removing the siloxanes, thus lowering emissions and the Standard Offer remained.

BCUA’s History of Biogas Use

BCUA’s History of Biogas Use

CHP Cogeneration Facility The BCUA blower engine success was the model for installation of other engines burning biogas. Based on the lessons learned from the blower engines, the BCUA constructed an CHP Cogeneration Facility at their Little Ferry WPCF in 2006. Two 1.4 MW General Electric (GE) Jenbacher internal combustion engines were installed and have the capability of burning both natural gas and biogas generated from the anaerobic digesters. This resulted in…

CHP Cogeneration Facility

CHP Cogeneration Facility The CHP plant located next to the Blower Engine Building commenced operation in 2008. The plant was able to save over $11 million to date in what would’ve been the cost for natural gas and electricity. In 2009, the BCUA developed an Energy Master Plan to examine energy savings throughout the facility. The centerpiece of the Energy Master Plan was the CHP plant. The BCUA CHP facility was deemed a great success and won awards from the NJDEP, Association of Environmental Authorities (AEA) and Board of Public Utilities (BPU). However, there is always room to improve.

CHP Cogeneration Facility Earlier in 2013 after an 18-year run, the BCUA decided to decommission the gas-fired blower engines. The BCUA currently has three electric engines powering the blowers. The BCUA decided to add a third engine for the CHP unit and located it in the vacated area of the gas-fired blower engines. The engine will be the same 1.4 MW size and will most likely be a GE Jenbacher engine or an engine equivalent in nature.

Additions to the CHP Facility Two reasons the BCUA decided to add a third engine: Two engines can constantly operate while one can be serviced. The BCUA is setting up a receiving station for fats, oils and grease (FOG) to inject into the anaerobic digester and burn biogas. The BCUA has also planned to receive food wastes, such as whey, to inject into the anaerobic digester to generate additional biogas.

Additions to the CHP Facility Even though there are cost savings due to the CHP facility and tipping fees for FOG and food wastes, the BCUA still needed additional funding to install the third CHP engine. In 2013, the BCUA applied for a grant through the New Jersey BPU’s Renewable Energy Incentive Program (REIP).

Additions to the CHP Facility On October 25, 2013, the BCUA was awarded a $2.5 million grant to help fund the installation of the third CHP engine. With the engine located in the blower building, the third engine will already have natural gas and biogas lines to be connected easily to this engine. The gas pretreatment system used for the blower engines will be used for the third engine. Expected completion and operation commencement is late April 2015.

Black Start Capabilities Currently, the BCUA has three kerosene- fired back-up turbines to operate the plant in case of a power outage. The engines have the capability of operating the wastewater treatment areas and sludge processing while the CHP unit is turned off. The CHP engines can operate during extended power outages if kerosene is depleted and cannot be delivered.

Conclusion The BCUA can operate with limited outside fuel sources with an CHP system and energy savings based on the tasks provided in their Energy Master Plan. The BCUA will continue to find ways to reduce costs and conserve energy to operate the facility and survive emergency situations.

Contact Information Dominic L. DiSalvo, PE, BCEE ARCADIS U.S., Inc. (914) 641-2829 dominic.disalvo@arcadis-us.com Richard M. Cestone, PE, CHMM Remington & Vernick Engineers (856) 795-9595 Richard.Cestone@rve.com

Questions? BCUA Info