Attachment ISAT Fixed-TF Supple

ISAT Fixed-TF Supple

LETTER submitted by ISAT US Inc.

Letter

2015-08-14

This document pretains to SES-LIC-20150625-00383 for License on a Satellite Earth Station filing.

IBFS_SESLIC2015062500383_1099624

1100 Connecticut Ave NW Suite 1200 Washington DC 20036 USA T +1 202 248 5100 W inmarsat.com August 14, 2015 VIA ELECTRONIC FILING IN IBFS Ms. Marlene H. Dortch Secretary Federal Communications Commission 445 12th Street, SW Washington, DC 20554 Re: ISAT US, Inc., Supplemental Submission; File No. SES-LIC-20150625- 00383, Call Sign E150097 Dear Ms. Dortch: ISAT US, Inc. (“ISAT US”) supplements the above-referenced application for a blanket license to operate fixed and temporary-fixed terminals with the following additional and corrected information. 24-Hour Point of Contact Attached hereto is Exhibit G, which identifies the 24-hour point of contact with the ability to shut down any of the proposed terminals immediately upon notification of harmful interference. Corrected Antenna Diameter Each of the antennas identified for Site 7 in the associated Form 312, Item E32 (antenna models Connect 100, Connect 100T and SKY98GX/01) has a diameter equivalent to 0.934 meters. The minor and major diameters of these elliptical antennas are correctly identified in the form as 0.877 meters and 0.97041 meters, respectively. Amended Radiation Hazard Analysis Attached hereto is an Amended Exhibit C Radiation Hazard Analysis. The calculations in the exhibit have been revised to reflect the antenna gain level and frequency as provided in the Form 312 Schedule B.

If you have any questions regarding this submission, please feel free to contact the undersigned. Respectfully submitted, /s/ Giselle Creeser Attachments cc: Paul Blais Trang Nguyen

ISAT US Inc. FCC Form 312 AMENDED Exhibit C Radiation Hazard Analysis 1.0 Introduction This Exhibit analyzes the non-ionizing radiation levels for the earth stations included in this application. The analysis and calculations performed in this Exhibit comply with the methods described in the FCC Office of Engineering and Technology Bulletin, No. 65 first published in 1985 and revised in 1997 in Edition 97-01. Bulletin No. 65 and the FCC R&O 96-326 specifies two Maximum Permissible Exposure (MPE) limits that are dependent on the situation in which the exposure takes place and/or the status of the individuals who are subject to the exposure. These are described below: • General Population/Uncontrolled environment MPE limit is 1 mW/cm2. The General Population / Uncontrolled MPE is a function of transmit frequency and is for an exposure period of thirty minutes or less. • Occupational/Controlled environment MPE limit is 5 mW/cm2. The Occupational MPE is a function of transmit frequency and is for an exposure period of six minutes or less. The analysis determined the power flux density levels of the earth station in the 1) far-field, 2) near- field, 3) transition region, 4) region between the feed and main reflector surface, 5) at the main reflector surface, and 6) between the antenna edge and the ground. The summary of results and discussion is provided in Section 2 and the detailed analyses are provided in Section 3. Section 2.0 – Summary of Results The terminals proposed in this application are for professional use and not for use by the general public. The analysis of the non-ionizing radiation levels provided in Section 3 assumed the maximum allowed input power to antenna of 5W and a 100% duty cycle resulting in worst case radiation levels. In a significant number of deployments the terminals duty cycle would be below 100% and the actual power required would be lower than the 5W maximum resulting in lower radiation levels than those calculated. As with any directional antenna the maximum level of non-ionizing radiation is in the main beam of the antenna that is pointed to the satellite. As one moves around the antenna to the side lobes and back lobes the radiation levels decrease significantly. So the maximum radiation level from an antenna occurs in a limited area in the direction the antenna is pointed to. The terminals proposed in this application are designed not to transmit if the receive signal from the satellite is blocked, which could be caused by a person standing in front of the terminal or from other blockage. If the receive signal is blocked the transmitter is shut down and will not resume operating until the signal from the satellite is reacquired. This operational feature of the terminal minimizes the potential for human radiation exposure. The terminals will be turned off prior to any maintenance being conducted when a person may need to be in close proximity to the feed flange and main reflector. The Tables below summarize the result for each antenna terminal type. As shown all but the two smaller antenna terminals meet the controlled environment limit of ≤ 5 mW/cm2 except at the feed flange. For the two smaller antennas the level is also exceeded at the main reflector. In a controlled environment technicians are trained and procedures are put in place to ensure that a safe distance is maintained from the antenna while in operation. These procedures can include fencing around the terminal, limits on the operation of the terminal, warning signs and other means of alerting workers, as appropriate, for the specific deployment scenario.

The terminals when operating with maximum input power and a 100% duty cycle vary in meeting the uncontrolled environment limit of ≤ 1 mW/cm2. For the 1.8 m antenna the limit is met except at the feed flange, however for most of the other antennas the level is exceeded except in the far field. As described above the maximum radiation levels occur in a limited area in the direction the antenna is pointed to and the automatic shut off capability of the terminal when the satellite receive signal is blocked will reduce potential human exposure. In addition these terminals are for professional use so the operators will be trained in how to operate the terminal safely. Furthermore the manuals for these terminals will explicitly indicate that precautions, such has not standing in front of the terminal, are required to limit potential exposure. The terminals will also clearly be marked to ensure that the terminal operator and the general public are aware of the potential radiation exposure and the need to avoid physical proximity to the terminal. It is noted that the highest radiation levels are at the feed flange and main reflector. The feed flange is a very small area of the terminal antenna and it is extremely unlikely that a person would be near the feed flange or the main reflector while the terminal is in operation. Cobham 3075 & 5075 Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 13.9 2.2 Meets Limit Exceeds Limit Far Field 33.5 0.9 Meets Limit Meets Limit Transition Meets Limit 2.2 Exceeds Limit Region 13.9 Feed Flange NA 1370.9 Exceeds Limit Exceeds Limit Main Reflector NA 4.5 Meets Limit Exceeds Limit Cobham 7100 Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 24.8 1.6 Meets Limit Exceeds Limit Far Field 59.5 0.7 Meets Limit Meets Limit Transition Meets Limit 1.6 Exceeds Limit Region 24.8 Feed Flange NA 698.0 Exceeds Limit Exceeds Limit Main Reflector NA 2.5 Meets Limit Exceeds Limit L3 GCS Chettah II Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environmen (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 17.9 2.5 Meets Limit Exceeds Limit Far Field 43.0 1.1 Meets Limit Exceeds Limit Transition Meets Limit 2.5 Exceeds Limit Region 17.9

Feed Flange NA 873.3 Exceeds Limit Exceeds Limit Main Reflector NA 3.5 Meets Limit Exceeds Limit L3 GCS Hawkeye III Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 35.7 1.1 Meets Limit Exceeds Limit Far Field 85.7 0.5 Meets Limit Meets Limit Transition Meets Limit 1.1 Exceeds Limit Region 35.7 Feed Flange NA 873.3 Exceeds Limit Exceeds Limit Main Reflector NA 1.8 Meets Limit Exceeds Limit Paradigm/SWT Connect70 Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 11.8 3.5 Meets Limit Exceeds Limit Far Field 28.3 1.5 Meets Limit Exceeds Limit Transition Meets Limit 3.5 Exceeds Limit Region 11.8 Feed Flange NA 679.9 Exceeds Limit Exceeds Limit Main Reflector NA 5.3 Exceeds Limit Exceeds Limit SWT ATOM 65/GX/01 ATOM 65AAGX/01 Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 10.5 2.8 Meets Limit Exceeds Limit Far Field 25.1 1.2 Meets Limit Exceeds Limit Transition Meets Limit 2.8 Exceeds Limit Region 10.5 Feed Flange NA 1471.5 Exceeds Limit Exceeds Limit Main Reflector NA 6.0 Exceeds Limit Exceeds Limit Paradigm/SWT Connect 100, 100T, Sky 98 Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 21.6 1.5 Meets Limit Exceeds Limit Far Field 51.9 0.7 Meets Limit Meets Limit Transition 21.6 1.5 Meets Limit Exceeds Limit

Region Feed Flange NA 679.9 Exceeds Limit Exceeds Limit Main Reflector NA 2.9 Meets Limit Exceeds Limit Paradigm/SWT Connect 180, Sky 180GX/01 Limit Limit Calculated Controlled Distance Uncontrolled Region Power Density Environment (m) Environment (mW/cm2) ≤ 5 mW/cm2 ≤ 1 mW/cm2 Near Field 80.3 0.4 Meets Limit Meets Limit Far Field 192.8 0.2 Meets Limit Meets Limit Transition Meets Limit Meets Limit 0.4 Region 80.3 Feed Flange NA 1327.4 Exceeds Limit Exceeds Limit Main Reflector NA 0.8 Meets Limit Meets Limit

Section 3.0 – Detailed calculations 3.1 Cobham 3075/5075 "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 0.75 m D Antenna Transmit Gain 44.2 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 4.31 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 0.4418 m² A πD²/4 Area of Antenna Flange 14.5892 cm² a πd²/4 Antenna Efficiency 0.4818 real η gλ²/(π²D²) Gain Factor 26302.6799 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 13.9453125 m Rnf D²/(4λ) Distance to Far-Field 33.46875 m Rff 0.6D²/λ Distance of Transition Range 13.9453125 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 2.1812 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 0.9343 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 2.1812 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 1370.8767 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 4.5272 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 1.1318 mW/cm² Sg P/A

3.2 Cobham 7100 "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 1 m D Antenna Transmit Gain 47.9 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 6.04 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 0.7854 m² A πD²/4 Area of Antenna Flange 28.6517 cm² a πd²/4 Antenna Efficiency 0.6353 real η gλ²/(π²D²) Gain Factor 61659.5002 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 24.8 m Rnf D²/(4λ) Distance to Far-Field 59.5 m Rff 0.6D²/λ Distance of Transition Range 24.8 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 1.6179 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 0.6930 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 1.6179 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 698.0380 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 2.5466 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 0.6366 mW/cm² Sg P/A

3.3 L3 Cheetah II "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 0.85 m D Antenna Transmit Gain 46.9 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 5.4 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 0.5674 m² A πD²/4 Area of Antenna Flange 22.9015 cm² a πd²/4 Antenna Efficiency 0.6985 real η gλ²/(π²D²) Gain Factor 48977.8819 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 17.91197917 m Rnf D²/(4λ) Distance to Far-Field 42.98875 m Rff 0.6D²/λ Distance of Transition Range 17.91197917 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 2.4619 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 1.0545 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 2.4619 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 873.3039 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 3.5246 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 0.8812 mW/cm² Sg P/A

3.4 L3 Hawkeye III "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 1.2 m D Antenna Transmit Gain 49.4 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 5.4 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 1.1309 m² A πD²/4 Area of Antenna Flange 22.9015 cm² a πd²/4 Antenna Efficiency 0.6232 real η gλ²/(π²D²) Gain Factor 87096.3590 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 35.7 m Rnf D²/(4λ) Distance to Far-Field 85.68 m Rff 0.6D²/λ Distance of Transition Range 35.7 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 1.1021 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 0.4721 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 1.1021 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 873.3039 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 1.7684 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 0.4421 mW/cm² Sg P/A

3.5 Paradigm/SWT Connect 70 "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 0.69 m D Antenna Transmit Gain 44.8 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 6.12 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 0.3739 m² A πD²/4 Area of Antenna Flange 29.4157 cm² a πd²/4 Antenna Efficiency 0.6536 real η gλ²/(π²D²) Gain Factor 30199.5172 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 11.8033125 m Rnf D²/(4λ) Distance to Far-Field 28.32795 m Rff 0.6D²/λ Distance of Transition Range 11.8033125 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 3.4958 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 1.4974 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 3.4958 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 679.9079 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 5.3488 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 1.3372 mW/cm² Sg P/A

3.6 SWT ATOM 65/GX/01 ATOM 65AAGX/01 "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 0.65 m D Antenna Transmit Gain 42.8 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 4.16 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 0.3318 m² A πD²/4 Area of Antenna Flange 13.5914 cm² a πd²/4 Antenna Efficiency 0.4647 real η gλ²/(π²D²) Gain Factor 19054.6072 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 10.47447917 m Rnf D²/(4λ) Distance to Far-Field 25.13875 m Rff 0.6D²/λ Distance of Transition Range 10.47447917 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 2.8009 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 1.1997 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 2.8009 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 1471.5203 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 6.0273 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 1.5068 mW/cm² Sg P/A

3.7 Paradigm/SWT Connect 100, 100T, Sky 98 "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 0.934 m D Antenna Transmit Gain 46.5 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 6.12 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 0.6851 m² A πD²/4 Area of Antenna Flange 29.4157 cm² a πd²/4 Antenna Efficiency 0.5276 real η gλ²/(π²D²) Gain Factor 44668.3592 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 21.62715917 m Rnf D²/(4λ) Distance to Far-Field 51.905182 m Rff 0.6D²/λ Distance of Transition Range 21.62715917 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 1.5401 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 0.6597 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 1.5401 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 679.9079 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 2.9192 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 0.7298 mW/cm² Sg P/A

3.8 Paradigm/SWT Connect 180, Sky 180 "Input Parameters" Table from page 51 Input Parameter Value Units Symbol Antenna Diameter 1.8 m D Antenna Transmit Gain 52.4 dBi G Transmit Frequency 29750 MHz f Antenna Feed Flange Diameter 4.38 cm d Power Input to the Antenna 5 Watts P "Calculated Parameters" table from page 52 Calculated Parameter Value Units Symbol Formula Antenna Surface Area 2.5446 m² A πD²/4 Area of Antenna Flange 15.0669 cm² a πd²/4 Antenna Efficiency 0.5526 real η gλ²/(π²D²) Gain Factor 173780.0829 real g 10^(G/10) Wavelength 0.0101 m λ 300/f "Antenna Field Definitions" table from page 54 Calculated Parameter Value Units Symbol Formula Near-Field Distance 80.325 m Rnf D²/(4λ) Distance to Far-Field 192.78 m Rff 0.6D²/λ Distance of Transition Range 80.325 m Rt Rt=Rnf Power Flux Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density in the Near Field 0.4344 mW/cm² Snf 16ηP/(πD²) Power Density in the Far Field 0.1861 mW/cm² Sff gP/(4πRff²) Power Density in the Transition Region 0.4344 mW/cm² St Snf*Rnf/Rt Flange Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at the Feed Flange 1327.4088 mW/cm² Sfa 4P/a Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density at Main Reflector 0.7860 mW/cm² Ssurface 4P/A Main Reflector Power Density table from page 54 Calculated Parameter Value Units Symbol Formula Power Density between Reflector and Ground 0.1965 mW/cm² Sg P/A

ISAT US Inc. FCC Form 312 Exhibit G 24-Hour Point of Contact The 24-hour point of contact with the ability to shut down any of the terminals immediately upon notification of harmful interference is at Inmarsat’s Lino Lakes Gateway, call sign E120072: Kevin Baker 6211 Glen Circle Lino Lakes, MN 55014 Tel: (808) 469-7104


Document Created: 2015-08-14 17:06:21
Document Modified: 2015-08-14 17:06:21
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