## On the Cover

Liberty, the newest dragline owned by BNI Coal. Inside the Young Station control room – the “nerve center” of the plant. The Young 2 turbine generator.

### 1 The Milton R. Young Station is located four miles east and three miles south of Center, N.D.

capac ity, began producing electricity in 1977. It is owned by Square Butte Elec tric Cooperative and operated by Minnkota.Square Butte was formed by the Minnkotaasso ciated cooperatives to meet the increasing elec trical demand of their consumer-owners and to provide electricity to Minnesota Power, an investor-owned utility based in Duluth, Minn. Named for the late senator from North Dakota, the Milton R. Young Station consistently ranks among the lowest cost, coal- fi red power plants in the United States. An abundant, low-cost coal supply from the nearby mine, owned and operated by BNI Coal, has played a key role in the plant’s

success. 

# T he Milton R. Young Station, a minemouth, electric generating plant located near Center, N.D., is a primary source of electrical generation for Minnkota Power Cooperative. Headquartered in Grand Forks, N.D., Minnkota provides adequate, reliable andaffordable electric energy to 11 associated distribution cooperatives, three in eastern North Dakota and eight in northwestern Minnesota. The Young Station consists of two units. Young 1, which began producing electricity in 1970, is owned and operated by Minnkota. It has the capacity to produce 250,000 kilowatts (kW) of electricity and is a main source of generation for more than 110,000 cus tomers served by the associated co operatives. Young 2, with a 455,000-kW generating

### 2 

## Young 1
Faced with a need for additional power, Minnkota began researching in 1959 the idea of building an electric generating plant in western North Dakota. In 1964, of fi cials from Minnkota met with then North Dakota Senator Milton R. Young to discuss the idea. A year later, Minnkota applied for a loan to the Rural Electri fication Administration (REA) in Washington, D.C. The REA ultimately announced the approval of the loan on July 12, 1966. Construction soon started on the 15-story steel structure as well as Nelson Lake, which provides cooling water for plant operations. The Milton R. Young Station is located on the shores of Nelson Lake, which provides cooling water for the electrical generating station. The lake, formed by an earthen dam across Square Butte Creek, covers 660 surface acres and is a popular recreational site.



# The Milton R. Young Station

### 3 

## Young 2
Young 2 of the Young Sta tion, completed in 1977, has a nameplate rating of 438,626 kW and a net maximum output of 455,000 kW. Known as the Square Butte power project, Young 2 was a concerted effort to meet the growing load requirements of Minnesota Powerand the 11 Minnkota member-owner cooperatives. Under the arrangements, Minnkota and the associated cooperatives formed the Square Butte organization to facilitate the project’s fi nancing, and to ob tain options for Minnkota to acquire power from the new station. Total construction cost of the plant, which began commercial operation in 1970, was $44.9 million. The plant’s turbine-generator unit was manufactured by General Electric and has anameplate rating of 234,550 kW. Its cyclonefi red boiler was manufactured by Babcock & Wilcox. Young 1 has a net maximum output of 250,000 kW. It consumes approximately 4,400 tons of lignite coal daily, or about 1.5 million tons annually. When the Young Station was dedicated in 1971, it incorporated many innovations at the time, including a cyclone boiler, allowing it to overcome the challenges of using lignite, a low Btu, high moisture and low sulfur coal. To provide cooling water for the facility, Nelson Lake was created in 1968 by a dambuilt across Square Butte Creek. The earthfi lled dam, 45 feet high and 1,500 feet long, created a 415-surface-acre impoundment. Electricity generated by Young 1 fl ows over a 214-mile, alternating current 345,000- volt transmission line to the Maple River substation near Fargo, N.D.From that point, it is distributed to a subtransmission system to serve the needs of customers who receive their power from the 11 Minnkota-associated cooperatives. Currently, the output from Young 2 is purchased under contract by Minnkota and Minnesota Power of Duluth, Minn. Minnkota began exercising options in 2006 to increase its share of the Young 2 generation from 30 to 50 percent by 2009. Electricity generated by Young 2 fl ows over a direct current, 465-mile transmission line to Duluth, where it is con verted back to alternating current. The energy supplied by Young 2 powersfarms, schools, businesses, taconite producers, paper and pulp mills, and other industrial facilities, as well as many residential homes. The construction cost of Young 2, which resulted in the expansion of Nelson Lake to 660 surface acres, was $251.7 million. Its cyclone- fi red boiler was also manufactured by Babcock & Wilcox. Westinghouse supplied theturbine-generator unit. Young 2 consumes approximately 8,500 tons of lignite daily, or about 2.8 million tons annually.

Plant manager of maintenance Tom Anseth, left, and plant manager of operations Stu Libby coordinate production at the Milton R. Young Station, which consistently ranks as one of the lowest-cost, coal-fi red electric generators in the United States.

## Environmental controls
Minnkota is committed to maintaining a clean and healthy environment now and long into the future. Emission control equipment at the Young Station has enabled Minnkota to meet North Dakota’s strict environmen tal standards.



## Air quality
Approximately $100 million has been spent on emission control equipment and subsequent up grades to comply with the nation’s Clean Air laws. Each of the two units is equipped with electrostatic precipita tors for removal of ash from the boiler’s exhaust gases. Precipitators have a removal ef fi ciency inexcess of 99 percent to meet the Federal Environmental Emission Standard of 0.1 pound of particulate per million Btu in put. To comply with environmental regu lations,Young 2 was equipped with a scrubber to remove sulfur dioxide from the exhaust stream. The scrubber con struction costs and modi fications total approximately $79 million. The scrubber consists of two absorber towers, each 170 feet high and 40 feet in diameter. The towers meet the opera tionalneeds of Young 2, ensuring long-term availability. The plant’s emissions are monitoredcontinuously by plant employees and equipment to ensure that emission requirements are being met.



## Environmental enhancements
In the next several years, Minnkota will be installing new emission control equipment at the Young Station to comply with the nation’s Clean Air laws. Signi fi cant reductions of sulfur dioxide and nitrogen oxides will be achieved. Emission control systems, such as the sulfur dioxide scrubber on Young 2, help maintain a clean air environment for all residents of the region to enjoy.



### 4Other on-site water discharges, such as rain and snow runoff, are handled through settling basins. This water is tested as well. So, before any water at the plant site returns to Nelson Lake, it is treated and determined to be environmen tally compatible.



## Sludge disposal
Three permanent burial cells are used to separate the scrubber sludge and water. The fi rst of three burial cells was put into operation in 1997. The scrubber sludge is sent to the cell,where water and solids separ ate and the water returns for reuse in the scrubber system. The solids remain in the cell.

The cells are lined with clay and then monitored to assure no leakage of waterthrough the sludge material into the underground water supply. When the fi rst cell is full of solids, the water will be removed and the cell will be permanently covered with clay and native soil. At that point, the sludge will be piped to the second disposal cell and the process will be repeated.

Prior to its return to Nelson Lake, water used in the electric generation process is tested and treated. Here, Chris Pozarnsky, laboratory technician, prepares a water sample for analysis.A new scrubber having a removal effi ciency of 90-95 percent will be installed on Young 1 in 2011. The current Young 2 scrubber system will be upgraded in 2010 to increase its removal ef fi ciency to 90 percent. The installation/upgrade of controls will result in annual reductions of approximately 19,000 tons of sulfur dioxide from Young 1 and an additional 6,000 tons of sulfur dioxide from Young 2. Nitrogen oxides will be reduced in two phases. The first phase will require the installation of Over-Fired Air (OFA) on both units. It is anticipated that nitrogen oxides will be reduced by approximately 37 percent per year (3,100 tons) on Young 1 and approximately 40 percent per year (6,000 tons) on Young 2. The installation of OFA on Young 1 is scheduled in 2009 and on Young 2 in 2007. In the second phase, additional reductions will be made in the years 2010 and 2011, pursuant to a BestAvailable Control Technologies (BACT) determination for nitrogen oxides.The cost for these environmental enhancements is estimated at more than $135 million.



## Water quality
Approximately $25 million has been spent at the YoungStation on waste water treat ment facilities to ensure compliance with the Clean Water Act. All water used in the plant processes and designated for return to Nelson Lake is tested and treated until its quality meetsall prescribed standards. The fi rst sludge disposal pond, which was put into operation in 1997, measures approximately 1,500 feet by 800 feet at the top and is 75 feet deep. A total of three ponds will be created over a 30-year time frame.



### 5

# C reating electricity is as simple as moving a magnet past a wire. However, the actual production process at the Young Station is much more complex.



## Control room
The entire generating process is monitored and controlled from the Young Station control room – the mechanical and electrical nerve center of the plant. From here, operators monitor the boilers, turbine generators and other plant equipment used in the production of electricity 24 hours a day, 365 days a year. Advanced instrumentation and control systems enable station operators to view and The control room is the nerve center of the Young Station. Computers allow operators like Jim Klein to monitor and control plan t equipment used in the production of electricity.



# The production of electricity

6

### 7 control the current status of plant processeswithout having to leave their locations. Monitors display levels, fl ows, temperatures andelectrical outputs. Should an abnormal condition occur, an alarm will sound alerting the operator to the source of the trouble.



## Lignite coal fuels cyclone-fi red boilers
The Young Station’s fuel source – lig nite coal – is mined and transported from the nearby BNI mine to the plant site and dumped into the primary crusher, which reduces the three-foot size chunks of coal into eight-inch pieces. Next, the coal passes through the secondary crusher, further reducing its size to 11⁄4-inch pieces. The coal is then directed to active storage facilities, where it awaits transport into the plant. When needed, the coal is conveyed tostorage silos, and, as required, moved by conveyor belt through the fuel condi tioner/crusher, where it is crushed to 1⁄4- inch size pieces on its way to the boiler cyclones. To increase British Thermal Units (Btus) and reduce eventual slag on boiler surfaces, the coal is transported through coal transport lines from the fuel conditioners/crushers using high-velocity, 750-degree air. This process removes as much moisture as possible from the coal before it goes into the cyclones. Hereit is mixed with heat ed air and combustion occurs, resulting in a temperature of up to 3,000 degrees Fahrenheit.The combustion process in the boiler produces heat, which boils water in vertical pipes along the walls and top of the boiler, turning it to steam. The exhaust gas from the boiler is cleaned by the plant’s emission control devices and is then vent ed to the atmosphere through the stack. The plume visible above the stack consists mostly of con densed water vapor. The cyclone furnace was developed to burn low-grade coal in a cyclonic action to overcome ash slagging on heat transfer surfaces. Not all coal is suitable for cyclone- fi r ing. The ash formed by the coal when burned musthave a moderately low ash- melting temperature to fl ow freely. Much of the lignite mined near the Young Station has this characteristic. Lignite coal contains about 38 percent moisture and 10 percent ash. Fifty per cent of the ash produced during combus tion is called bottom ash and is removed as a molten slag that fl ows out the bottom of the boiler.

After the coal is crushed, it is conveyed to storage piles for use at the Young Station. Lignite coal is transported in 180-ton haulers from the nearby BNI mine to the plant site, where it is dumped into underground hoppers and moved along feeder chains to the primary crusher.

## Water systems
Water drawn from the adjacent Nelson Lake is screened to keep fi sh and debris out of the plant cooling system. In the generationprocess, this water is primarily used for condensing the steam that has passed through the turbine. Water treatment facilities near the plant filter and treat the water, removing solid materials. Treatment facilities within the plant further condition water that will be used in the boiler. The boiler water must be pure to prevent mineral deposits and corrosion from building up on the inside of the boiler tubes, which can result in overheating and subsequent tube failure.


## Turbine generator
The high-pressure, superheated steam produced in the boiler may reach more than 1,000 degrees Fahrenheit. It travels at a rate of 10,000 miles per hour through the turbine,causing its blades to spin at 3,600 revolutions per minute (rpm). The spent steam then leaves the turbine, is cooled and condensed back to water, and pumped back into the boiler. After being reheated, the entire cycle is repeated. The spinning turbine blades rotate a shaft, which turns a large magnet in theadjacent generator. As the magnet passes stationary wire coils in the generator, an electric alternating current is produced. Because of their sensitivity, each of theturbine generators is mounted on its own foundation and fl oor. This guards against vibration from other plant equipment and structural shifting that might affect its operation.



### 8 The remaining 50 percent travels through the boiler as fly ash. An electrostatic precipitator captures in excess of 99 percent of all fl y ash before the ex haust gas is released to the atmosphere. Sulfur dioxide (S0 2 ) is produced in the combustion process. A scrubber on Young 2 is operated to maintain compliance with federal and state emission limits as well as federal ambient air quality standards. A lime and fl y ash mixture is sprayed into exhaust gases as they rise through an absorption tower. The Each of the two units at the Young Station has a turbine generator. Inside each generator, a huge spinning magnet surrounded by coils of copper wire creates a magnetic fi eld which, in turn, creates a fl ow of electricity. result ing lime, fl y ash and sulfur dioxide slurry mixture is transported to a disposal pond. When solids in the slurry have settled to the bottom, the water is returned and re used in the scrubber system.

## Transmission system
The electricity generated is sent to the main transformers on the plant site and stepped up to a higher voltage. It then movesto a switchyard where it enters the transmission grid through high-voltage transmission lines. However, there is a vast difference in the method by which electricity is delivered from the two units at the Young Station. The electricity produced in Young 1 is stepped up to 230,000 volts and ultimately to345,000 volts before it is sent overa 214-mile alternating current (AC) transmission line to the Maple River substation near Fargo, N.D. From this point, the voltage is stepped down and the electricity is delivered to substa tions in theMinnkota service area. At this point, the electricity is sold to the 11 distri bution cooperatives who distribute the power on their own lines to their customers.



## DC transmission
A unique feature of Young 2 is the longdistance transmission of electricity by directcurrent (DC), rather than the traditional alternating current system that Young 1 uses. Electricity produced in Young 2 is stepped up to 230,000 volts by the main transformer. The electricity travels to the Square Butte switchyard, and fi nally to the direct current terminal, where it is converted from 230,000 volts AC to +/- 250,000 volts DC.



### 9 The power then flows over a DC transmission line to Duluth, Minn., a distance of 465 miles. At the fi nal destination point, an inverter station changes the DC electricity back to AC for distribution in the Minnesota Power service area and for delivery back to the Minnkota service area. The cost of the two AC/DC converter terminals was approximately $49 million. Theter minals use high-voltage, high-current thyristors for the conversion process. The Square Butte DC line was the fi rst built in the United States for moving large power blocks over long distanc es using solid-state thyristors. Direct current transmission is less costly on the 465-mile stretch because it requires only two conductors, rather than the three re quired for an AC line. Also, less right of wayis required for the placement of each transmission line structure, with a correlating reduction in landowner inconvenience. DC is ideally used in this situation, where the energy needs to travel long distances with no transmission taps along the route.

Electricity generated by Young 2 fl ows over a 465-mile direct current transmission line to Duluth, Minn., where it is converted back to alternating current. Electricity generated by Young 1 travels 214 miles along an alternating current 345,000-volt transmission line to the Maple River substation near Fargo, N.D.

### 10 

## BNI Coal
In the early 1960s, Minnkota obtained coal reserves for the Young Station that covered about 16,000 acres in Oliver County, N.D., containing 155 million tons of lignite. These leases were assigned to the prede cessor of BNI Coal.The company continued to lease additional land, which now totals more than 50,000 acres. The land contains an estimated 350 million tons of lignite dedicated to the Young Station. With more than 60 years of operating experience in the lignite industry, BNI has the distinction of being the lowest-cost producer to a major lignite user in the state. BNI beganoperating in 1930 as Baukol-Noonan, with operations near Noonan, N.D. In 1988, BaukolLiberty, an electric dragline with a 77-cubic yard bucket, removes overburden from the coal seam. Its boom length is 355 feet or longer than a football fi eld.Noonan became a wholly-owned subsid iary of Minnesota Power. BNI has coal supply agreements with Minnkota and Square Butte until 2027. Minnkota’s contract has an optional 15-year extension clause. Each year, BNI supplies the two units at the Young Station with about 4.3 million tons of coal, which is equivalent to approximately 200 mined acres per year. The mining and permitting process is a long and laborious one. Volumes of pre-mining data are compiled and sub mitted to the North Dakota Public Ser vice Commission for review.After permit approval, large rocks are removed from the area to be mined and dams are constructed to control runoff and sediment. Once scrapers remove the topsoil and subsoil, the soils are segre gated and stockpiled or directly spread on prepared areas. Large electric walking draglines removethe overburden from the coal seam. BNI operates two drag lines, one with a 77-cubic-yard bucket and the other with a 65-cubic-yard bucket. Two coal seams are found 25-140 feet below ground level and average about 14 feet in total thickness. Tracked dozers rip the coal, which is loaded into 180-ton coal haulers withan electric loading shovel or front-end loaders. The coal is then transported to the coal crusher at the plant site. When mining is completed, BNI replaces the overburden and shapes and contours the area to its fi nal topography. The sub soil and topsoil are replaced, surface rocks areremoved and the area is reveg etated according to the approved plan. 

## Reclamation
Minnkota and BNI are dedicated to properly reclaiming all the land disturbed by the mining of lignite coal for the Young Station. Sound land use and reclamation practices are em ployed at the Center-based BNI mine. Converting lignite to electric energy requires only a temporary disturbance of the land.North Dakota has one of the best reclamation laws in the nation, which is administered and enforced by the North Dakota Public Service Commission. All phases of reclamation are conducted with the approval of the PSC. Every acremined is restored to better than original condition. Before bond release, BNI must statistically prove that the land is reclaimed to a level of production equal to or greater than that which existed prior to mining.Depending upon vegetation establishment, the reclaimed areas are man aged byBNI and the landowner in a joint effort. However, the land must re main under a performance bond for a minimum of 10 years from the date of initial seeding. BNI’s land reclamation costs are approximately $20,000 per acre.



### 11 Jeff

Forsberg, director of safety for BNI Coal, works closely with BNI employees to ensure a safe working environment.

After the coal is harvested, BNI restores the land to its original or better condition with native plant species re-established. Grazing antelope shown here are one example of how generating electricity is compatible with the environment.

# N elson Lake is a 2.5-mile-long, manmade reservoir created in 1968 with a 45-foot high, earth- fi lled dam. The 415- surface-acre lake grew to 660 surface acres in 1977 when Young 2 came on line and the impoundment was made eight feet higher. The site for the lake, created by an earthen dam across Square Butte Creek, was selected because the Young Station requires a large supply of water for cooling, boiler makeup and other station uses in the power production process. To better manage lake levels, Minnkota is able to augment the normal water supply from the Square Butte Creek watershed with



### 12 Nelson Lake, the cooling reservoir for the Young Station, is a popular recreational area for fi shing, swimming, boating and wat er-skiing. It is home to some of the state’s largest crappies and largemouth bass, including record-size catches.


# Nelson Lake

## Nelson Lake Statistics

■Dam Construction: Earth fi lled; 53 feet high, 2.5 miles long.

■Volume of Dam: 382,000 cubic yards fi ll.

■Service Spillway: Two 215-foot con duits containing two 10-by-10-foot gates, one two-by- fi ve foot gate, one six-inch gate.

■Spillway Construction: 35,000 cubic yards steel-reinforced concrete.

■Size of Lake: 660 acres; 10,500 acre feet.

■Watershed Area: 137 square miles.

■Watershed Runoff: 9,000 acre feet per year, average.



### 13 Golfi ng on the nine-hole, grass-greens course adjacent to Nelson Lake is a popular pastime. Missouri River water. Minnkota operates a pumping station on the south bank of the Missouri River and runs a 13-mile, 30-inch diameter pipe line from the river to the lake. This is especially bene fi cial during drought or low runoff periods. The warm water discharged from the Young Station means Nelson Lake rarely freezes, making it unique among North Dakota’s lakes for fi shing and year-round water sports. Because of the warmer watertemperatures, Nelson Lake is a popular recreational area for fi shing, swimming, boating and water-skiing enthusiasts. It is home to the state’s largest crappies and largemouth bass, including record-size catches. The lake also has many bluegills, sun fi sh, bullheads, northern pike and perch. Public areas along the lake are used forcamping, boating, picnics and other recreational purposes. Minnkota granted the NorthDakota Game and Fish Department an easement ensuring public access to Nelson Lake. This was necessary before the lake couldbe placed under the Game and Fish Department’s fi sheries management program. The nine-hole Square Butte Creek Golf Course is adjacent to Nelson Lake. Minnkota leased the land for the course to the city of Center and Oliver County park boards. It was developed through a cooperative effort ofcommunity-spirited organizations and individuals, businesses and govern ment entities. Nelson Lake’s warm water makes it an ideal site for the North Dakota Association for the Disabled (NDAD) to hold their annual “Escape to the Lake” event. Nelson Lake is a popular spot for fi shing enthusiasts of all ages.

# The community of Center

B efore Minnkota’s arrival on the scene, Center, like many small com munities in North Dakota, owed its ex istence to agriculture, the primary industry of the region. Since the early 1970s, the Center area has also been home to the Young Station. The small, rural community, ap proximately 40 miles northwest of the capital city of Bismarck, is the county seat of Oliver County. Center is a community with a population of nearly 700, one-third of the county’s 2,400 residents. Center and the Oliver County areaare home to almost one-third of the 152 employees work ing at the Young Station. Center maintains a full-time dentist, and the Coal Country Community Health Center in the downtown area remains staffed byphysicians from a Bismarck clinic. The community has the protection of a vol unteer fi re department and an ambu lance service, which operates out of the clinic. A civic center and the county court house are two other examples of Center’s fine community facilities. The civic center, constructed in 1981 and expanded in 1991, includes a community room suit able for dances and other large gather ings, a library, a racquetball court, city of fi ces, and additional meeting rooms for



### 14 The school system, which includes an elementary school and a high school with an indoor swimming pool, is another asset of the Center community.

### 15 public use. The courthouse and the seniorcitizens center play an active role in the community as well. The school system is another strong point of the community. The elementary school was built in 1956 and the high school in 1967, with additions in 1978 and 1981. Center residents are proud of their elementary and high school with its indoor swimming pool, which was built in 1980. The pool was fi nanced with bonds, a federal grant and a loan from the state coal impact fund. The city operates the facility for the public, making it available to the school’s physical education program. The city is home to several busi nesses, including a bank, a cafe, two taverns, twobeauty shops, a gas station with a convenience store, a machine shop, a cabinet craftsman shop, a crafts store, a grocery store and an automotive repair shop. The establishment of an 80-acre in dustrial park on the southwest edge of town is an example of Center’s eco nomic development efforts. The indus trial park houses a machineshop, rental storage facilities, a construction company, a North Dakota Department of Transportation shop and a trucking company. The population of Center enjoys a thriving community, thanks to a quality work force and ongoing energy development in the region.BELTRAMI NORTH STAR ROSEAU

PKM

RED LAKE

WILD RICE

RED RIVER CLEARWATER - POLK CASS COUNTY NODAK CAVALIER

Bagley

● Halstad

● Grafton ● Warroad ● Roseau ●

Park River ● ● Stephen

● Warren ● Baudette

● Fosston

● Hawley ● Thief River Falls



### 16 

## Municipal Utilities
Bagley Public Utilities Bagley, Minn. Baudette Municipal Utilities Baudette, Minn. Fosston Municipal Utilities Fosston, Minn. Grafton Municipal Utilities Grafton, N.D. Halstad Municipal Utilities Halstad, Minn. Hawley Public Utilities Hawley, Minn. Park River Municipal Utilities Park River, N.D. Roseau Municipal Utilities Roseau, Minn. City of Stephen Municipal Utilities Stephen, Minn. Thief River Falls Municipal Utilities Thief River Falls, Minn. Warren Municipal Utilities Warren, Minn. Warroad Municipal Utilities Warroad, Minn. 

## Distribution Cooperatives

Beltrami Electric Cooperative Bemidji, Minn. Cass County Electric Cooperative Kindred, N.D

. Cavalier Rural Electric Cooperative Langdon, N.D. Clearwater-Polk Electric Cooperative Bagley, Minn. Nodak Electric Cooperative Grand Forks, N.D. North Star Electric Cooperative Baudette, Minn. PKM Electric Cooperative Warren, Minn. Red Lake Electric Cooperative Red Lake Falls, Minn. Red River Valley Cooperative Power Association Halstad, Minn

. Roseau Electric Cooperative Roseau, Minn. Wild Rice Electric Cooperative Mahnomen, Minn. NORTH DAKOTA

MINNESOTA

In addition to meeting the electric power supply needs ofthe 11 member-owner distribution cooperatives, Minnkota is also the operating agent for the Northern Municipal Power Agency (NMPA), an organization of 12 municipal utilities in the same region. Together, the distribution cooperatives and municipal utilities serve more than 125,000 customers. 

# Associated systemsSQUARE BUTTE ELECTRIC COOPERATIVE

P.O. Box 13200 • Grand Forks, N.D. 58208-3200 Headquarters: P.O. Box 13200 • Grand Forks, N.D. 58208-3200 Phone 701-795-4000

Milton R. Young Station: P.O. Box 127 • Center, N.D. 58530-0127 Phone 701-794-8711 www.minnkota.com