2ADQEMDLH1Wireless Follow Focus System

Quick Start Guide BATTERY INSTALLATION AND POWER CONNECTION Open the battery hatch on the back side of the Lenzhound controller unit and install four AAA batteries. Plug one end of the DC power cable into the power Jack on the DB-1 and the other into the 12V battery (supplied) or another compatible 12VDC power source on your camera rig. SETUP The DB-1 Receiver/Motor Unit mounts up to your camera’s rod support system. Slide the DB-1 onto your rod support system. For the Standard Lenzhound system place a belt around your lens and the pulley, then pull the DB-1 away from the lens until the belt is secure and tighten the clamp handle to secure the DB-1 and belt to your rig. With the Cine-Standard Lenzhound system engage the gears of the DB-1 with your lens and tighten the clamp handle. BASIC USAGE • Calibration On completion of power-up, the encoder LED will illuminate a steady RED indicating calibration is active. All other motor control is overridden while in this state. To set the first end-position of the lens, dial the encoder knob until the desired motor position is achieved and press the encoder button. The encoder will flash green and then red indicating the second end-point can be entered. Again dial the encoder knob until the opposite end-position is obtained and again press the button. The encoder will flash green and the system exits the calibration state. Successful calibration effectively maps the desired lens movement range to the full range of the main focus knob. If desired, the motor direction may be reversed, relative to the main knob direction, by calibrating the near and far focus points in reverse order. • Free Run After calibration, operation of the lens ring with the main focus knob is achieved by placing the unit in Free Run mode. Flip the mode toggle switch to the right, i.e. the Run position. While in Free Run mode, up to four specific focus knob positions may be stored (set) in memory by pressing any of the four Set/ Recall Buttons. • Playback A stored memory position that is “Set” in Run mode, may be recalled in Playback Mode. In this mode any of the four recall buttons can be pressed in any order and the motor will immediately move to that position. MOTOR POWER SETTINGS The DIP switches are accessed through the larger hole in the receiver box face and will attenuate power to the motor. Lower power provides smoother, quieter operation but sacrifices torque in the process. We recommend starting at full power (switch one and two off) and turning down if you need to. Power Level !Full!Medium!Low!Very Low SW1!!off!on!off!on SW2!!off!off!on!on For more in depth documentation please visit http://www.motiondogs.com. INSTALLATION DES PILES ET ALIMENTATION CONNEXION Ouvrez la trappe de la batterie sur le côté arrière de l'unité de commande Lenzhound et installer quatre piles AAA. Branchez une extrémité du câble d'alimentation CC dans la puissance Jack sur le DB-1 et l'autre dans la batterie 12V (fourni) ou une autre source d'alimentation 12VDC compatible sur votre appareil photo gréement. INSTALLER Le récepteur DB-1 / Unité moteur monte jusqu'à le système de support de tige de votre appareil photo. Faites glisser le DB-1 sur votre support de tige système. Pour que le système standard Lenzhound placer une ceinture autour de votre objectif et de la poulie, puis tirez le DB-1 loin de la objectif jusqu'à ce que la ceinture est sécurisé et serrer la poignée de serrage pour fixer le DB-1 et ceinture pour votre plate-forme. Avec le système Cine-Standard Lenzhound engager les vitesses de la DB-1 avec votre objectif et serrer le collier manipuler. UTILISATION DE BASE • Calibration À l'issue de la mise sous tension, la LED de l'encodeur se allume un étalonnage de RED indiquant constante est active. Tous les autres commande du moteur est remplacé dans cet état. Pour définir la première extrémité-position de la lentille, composer le bouton de l'encodeur jusqu'à ce la position du moteur souhaitée est atteinte et appuyez sur le bouton de l'encodeur. Le codeur clignote en vert puis rouge indiquant le deuxième point final peut être saisie. Encore une fois composer le bouton de l'encodeur jusqu'à la fin-position opposée est obtenu et appuyer de nouveau sur le bouton. Le codeur clignote en vert et le système quitte l'état d'étalonnage. Étalonnage réussi maps efficacement la gamme de mouvement de l'objectif souhaité à la gamme complète de la molette de mise au point principale. Si on le désire, le sens de rotation peut être inversé, par rapport à la direction de la poignée principale, en calibrant le proche et lointain concentrer les points dans l'ordre inverse. • Free Run Après le calibrage, le fonctionnement de la bague de l'objectif avec le bouton principal de mise au point est obtenue en plaçant l'appareil dans Free Run Mode. Basculez l'interrupteur mode bascule vers la droite, ce est à dire la position Run. En mode Free Run, jusqu'à quatre positions spécifiques de bouton de mise au point peuvent être stockés (ensemble) dans la mémoire en appuyant sur l'une des les quatre boutons Set / Recall. • La lecture Une position de mémoire stockée qui est "Set" en mode Run, peut être rappelé en mode lecture. Dans ce mode, l'un des quatre boutons de rappel peuvent être activées dans ne importe quel ordre et le moteur se passer immédiatement à cette position. REGLAGES MOTEUR DE PUISSANCE Les commutateurs DIP sont accessibles via le plus grand trou dans le visage de la boîte de réception et seront atténuer l'alimentation du moteur. Puissance inférieure fournit lisse, un fonctionnement plus silencieux, mais sacrifices couple dans le processus. Nous vous recommandons de commencer à plein puissance (un interrupteur et deux au large) et en tournant vers le bas si vous avez besoin. Niveau de puissance!Plein!Moyen Faible!Très faible SW1!!de!sur!de!sur SW2!!de!de!sur!sur Pour de plus dans la documentation de la profondeur se il vous plaît visitez http://www.motiondogs.com. COMPLIANCE STATEMENTS US FCC This…

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! ! ! Long Term Confidentiality Request Letter ! ! ! ! 12/10/2014 ! Motion Dogs PO Box 930 San Luis Obispo, CA 93406 ! RE: CONFIDENTIALITY REQUEST FOR MODELS: RTX-1/DB-1, FCC ID: 2ADQEMDLH1 To Whom It May Concern: ! This letter serves as an official request for confidentiality under sections 0.457 and 0.459 of CFR 47. We have requested that the Block Diagram, Schematics, and Parts List required to be submitted with this application be permanently withheld from public review. ! Motion Dogs request these documents be kept confidential as our product is of a custom design and disclosing this information may benefit our competitors. ! ! Please contact me if there is any information you may need. ! Sincerely, ! !

Short Term Confidentiality Request Letter 1/14/2014 Motion Dogs PO Box 930 San Luis Obispo, CA 93406 RE: Short Term Confidentiality Request For MODELS: RTX-1/DB-1, FCC ID: 2ADQEMDLH1 To Whom It May Concern: In accordance with sections 0.457 and 0.459 of CFR 47, Motion Dogs. requests short-term Confidentiality of following sections of this application for a period of 45 days after grant is issued. External photos Internal photos Test setup photos These documents contain detailed system and equipment descriptions and related information about the product, which Motion Dogs considers to be proprietary, confidential, and a custom design and otherwise, would not release to the general public. Since this design is a basis from which future technological products will evolve, Motion Dogs feels that this information would be of benefit to its competitors, and that the disclosure of the information in these documents would give our competitors an unfair advantage in the market. Please contact me if there is any information you may need. Sincerely,

Operational Description! ! The TX unit receives user input from several interfaces including; a potentiometer, rotary encoder, 4 momentary buttons, and a 3-position toggle switch. The TX unit operates off 5 volt DC and can be powered by 4 AAA batteries, or with 5 volt USB power. A power regulator is used to drop voltage to 3.3 volts DC for the wireless module. The user input is received by the micro-controller operating at 16Mhz and is translated into position and acceleration values which are sent wirelessly to the RX unit with a Nordic NRF24L01+ transceiver module that features a PCB planar meandering inverted-F antenna. A planar inverted-F antenna includes a ground element, a shorting element, a radiating element, and a feeding element. The shorting element extends upwardly from the ground element. The radiating element is disposed above the ground element, and extends transversely from the shorting element. The radiating element includes a meandering strip and a flat plate. The meandering strip has opposite first and second ends. The first end of the meandering strip is coupled to the shorting element. The flat plate has a connecting side that is connected to the second end of the meandering strip and that has a length different from that of the second end of the meandering strip. The feeding element has a first end that is connected to the radiating element, and a second end that extends through and that is free from electrical contact with the ground element.! ! ! The RX unit receives information from the controller unit and moves a stepper motor to the corresponding position. The RX unit is powered by a 12 volt DC battery pack to provide direct power to the stepper driver. Onboard power regulators drop voltage to 5 volts DC for the micro-controller and 3.3 volts DC for the wireless transceiver. This device has a micro-controller operating at 16Mhz and utilizes a Nordic NRF24L01+ transceiver with SMD chip antenna to receive wireless transmissions from the controller. The Fusca SMD chip antenna is intended for use with all 2.4 GHz applications. The antenna uses a ground plane in order to radiate efficiently, but this ground plane must not extend underneath the antenna itself.

Antennas for Wireless M2M Applications 1 Product Specification 06MD-0002-8-PS Fusca 2.4 GHz SMD Antenna Part No. A10192 Product Specification 1 Features • Designed for 2.4 GHz applications: Bluetooth ® , Wi-Fi ® (802.11a/b/g/n), ZigBee ® , etc. as well as 2.3 GHz WiMAX ™ , 2.5 GHz WiMAX ™ and WiBro. • Easy to integrate • Low profile design for use with no ground beneath the antenna • High efficiency • Light weight • Intended for SMD mounting • Supplied in tape on reel 2 Description Fusca is intended for use with all 2.4 GHz applications. The antenna uses a ground plane in order to radiate efficiently, but this ground plane must not extend underneath the antenna itself. 3 Applications • Mobile phones • PDAs • PNDs • Headsets • PMPs / MP3s • Laptops • PC-Cards • Medical devices • Sensors Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 2 Product Specification 06MD-0002-8-PS 4 Part number Fusca: A10192 150 5 General data 6 Electrical characteristics Typical performance Conditions Peak gain 0.8 dBi All data measured on Antenova’s reference board, part number A10192-U1 Data given for the 2.4 – 2.5 GHz frequency range Average gain -1.9 dBi Average efficiency 65% Maximum Return Loss -10 dB Maximum VSWR 2:1 Product name Fusca 2.4 GHz Part Number A10192 Frequency 2.4 – 2.5 GHz Polarization Linear Operating temperature -40 ºC to +85 ºC Impedance with matching 50 Ω Weight < 0.03 g Antenna type SMD Dimensions 4 x 3 x 1.1 [mm] Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 3 Product Specification 06MD-0002-8-PS 7 Electrical performance 7- 1 Return Loss 2200 2300 2400 2500 2600 2700 -40 -30 -20 -10 0 ∇ ∇ [MHz] [dB] 7- 2 VSWR 2200 2300 2400 2500 2600 2700 1 2 3 4 5 ∇ ∇ [MHz] Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 4 Product Specification 06MD-0002-8-PS 7- 3 Antenna patterns dBi 5 -35 -15 XY plane ZY plane XZ plane Z X Y Patterns show combined polarisations measured on reference board A10192-U1 Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 5 Product Specification 06MD-0002-8-PS 8 Antenna dimensions Fusca L W H Length Width Height 4.0 ± 0.2 3.0 ± 0.2 1.1 ± 0.2 Dimensions in mm 9 Antenna footprint Fusca (Part No: A10192) * CAD files of the antenna footprint are available from Antenova M2M on request. Please contact [email protected] for further details. I S O J M K 1.0 ± 0.1 0.8 ± 0.1 ≥0.9 ± 0.1 1.7 ± 0.1 0.6 ± 0.1 2.0 ± 0.1 Dimensions in mm Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 6 Product Specification 06MD-0002-8-PS 10 Electrical interface 10-1 Transmission lines • All transmission lines should be designed to have a characteristic impedance of 50 Ω • The length of the transmission lines should be kept to a minimum • Any other parts of the RF system like transceivers, power amplifiers, etc, should also be designed to have an impedance of 50 Ω Once the material for the PCB has been chosen (PCB thickness and dielectric constant), a coplanar transmission line can easily be designed using any of the commercial software packages for transmission line design. For the chosen PCB thickness, copper thickness and substrate dielectric constant, the program will calculate the appropriate transmission line width and gaps on either side of the track so the characteristic impedance of the coplanar transmission line is 50 Ω. 10-2 Matching circuit The antenna requires a matching circuit that must be optimized for each customer’s product. The matching circuit will require up to three components and the following pad layout should be designed into the device so the correct circuit can be installed: The antenna feed pad is indicated in the drawing above. Additional pads are for mechanical attachment only and should not be grounded. Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 7 Product Specification 06MD-0002-8-PS In addition to the matching circuit, a separate DC blocking capacitor will also be required between the radio and the antenna matching circuit. Note: The component values for the matching circuit will vary depending on the size of the PCB and surrounding components. The impedance of the antenna should be measured before selecting suitable matching components. Antenova M2M offers this service on request. Contact [email protected] for further information. 10-3 Antenna placement Antenova M2M strongly recommends placing the antenna near the edge of the board. Maximum antenna performance is achieved by placing the antenna towards one of the corners of the PCB and with the feed point of the antenna as close to same corner of the PCB as possible. Additional ground and components near the antenna should be at a distance of at least 2 mm. Where possible the antenna should be clear of ground from both sides, although the antenna can work well with a minimum clearance of D ≥ 2 mm as shown in the drawing above. Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 8 Product Specification 06MD-0002-8-PS 10-4 Reference boards The reference board has been designed for evaluation purposes of Fusca 2.4 GHz and it includes a SMA female connector Fusca Dimensions in mm To order a reference board contact [email protected] . Fusca 2.4 GHz SMD Antenna Part No. A10192 Antennas for Wireless M2M Applications 9 Product Specification 06MD-0002-8-PS 11 Soldering This antenna is suitable for lead free soldering. The reflow profile should be adjusted to suit the device, oven and solder paste, while observing the following conditions: - The maximum temperature should not exceed 240 ºC - However for lead free soldering, a maximum temperature of 255 ºC for no more than 20 seconds is permitted. - The antenna should not be exposed to temperatures exceeding 120 ºC more than 3 times during the soldering process. 12 Hazardous material regulation conformance The antenna has been tested to confo…

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MET Laboratories, Inc. Safety Certification - EMI - Telecom Environmental Simulation 914 WEST PATAPSCO AVENUE • BALTIMORE, MARYLAND 21230 • PHONE (410) 354-3300 • FAX (410) 354-3313 33439 WESTERN AVENUE • UNION CITY, CALIFORNIA 94587 • PHONE (510) 489-6300 • FAX (510) 489-6372 3162 BELICK STREET • SANTA CLARA, CALIFORNIA 95054 • PHONE (408) 748-3585 • FAX (510) 489-6372 13301 MCCALLEN PASS • AUSTIN, TEXAS 78753 • PHONE (512) 287-2500 • FAX (512) 287-2513 The Nation’s First Licensed Nationally Recognized Testing Laboratory March 23, 2015 Motion Dogs 719 Pismo St San Luis Obispo, CA 93401 Dear David Thayer, Enclosed is the EMC Wireless test report for compliance testing of the Motion Dogs, Lenzhound as tested to the requirements of Title 47 of the CFR, Ch. 1 (10-1-06 ed.), Part 15, Subpart B, ICES-003, Issue 5 August 2012 for a Class B Digital Device and FCC Part 15 Subpart C, RSS-210, Issue 8, December 2010 for Intentional Radiators. Thank you for using the services of MET Laboratories, Inc. If you have any questions regarding these results or if MET can be of further service to you, please feel free to contact me. Sincerely yours, MET LABORATORIES, INC. Jennifer Warnell Documentation Department Reference: (\Motion Dogs\EMCS84248-FCC249 Rev. 1) Certificates and reports shall not be reproduced except in full, without the written permission of MET Laboratories, Inc. Electromagnetic Compatibility Motion Dogs Cover Page Lenzhound CFR Title 47, Part 15B, 15.249; RSS-210, Issue 8, December 2010 & ICES-003 MET Report: EMCS84248-FCC249 Rev. 1 © 2015, MET Laboratories, Inc. Page i of vi Electromagnetic Compatibility Criteria Test Report for the Motion Dogs Lenzhound Verified under the FCC Certification Rules contained in Title 47 of the CFR, Parts 15 Subpart B & ICES-003 for Class B Digital Devices & 15.249 Subpart C & RSS-210, Issue 8, December 2010 for Intentional Radiators MET Report: EMCS84248-FCC249 Rev. 1 March 23, 2015 Prepared For: Motion Dogs 719 Pismo St San Luis Obispo, CA 93401 Prepared By: MET Laboratories, Inc. 914 W. Patapsco Ave. Baltimore, MD 21230 Electromagnetic Compatibility Motion Dogs Cover Page Lenzhound CFR Title 47, Part 15B, 15.249; RSS-210, Issue 8, December 2010 & ICES-003 MET Report: EMCS84248-FCC249 Rev. 1 © 2015, MET Laboratories, Inc. Page ii of vi Electromagnetic Compatibility Criteria Test Report for the Motion Dogs Lenzhound Tested Under the FCC Certification Rules contained in Title 47 of the CFR, Parts 15 Subpart B & ICES-003 for Class B Digital Devices & 15.249 Subpart C & RSS-210, Issue 8, December 2010 for Intentional Radiators Ajaz Khan, Project Engineer Jennifer Warnell Electromagnetic Compatibility Lab Documentation Department Engineering Statement: The measurements shown in this report were made in accordance with the procedures indicated, and the emissions from this equipment were found to be within the limits applicable. I assume full responsibility for the accuracy and completeness of these measurements, and for the qualifications of all persons taking them. It is further stated that upon the basis of the measurements made, the equipment tested is capable of operation in accordance with the requirements of the FCC Rules Parts 15B, 15.249 and Industry Canada standards ICES-003, Issue 5 August 2012, RSS-210, Issue 8, December 2010 under normal use and maintenance. Asad Bajwa, Director Electromagnetic Compatibility Lab Electromagnetic Compatibility Motion Dogs Report Status Lenzhound CFR Title 47, Part 15B, 15.249; RSS-210, Issue 8, December 2010 & ICES-003 MET Report: EMCS84248-FCC249 Rev. 1 © 2015, MET Laboratories, Inc. Page iii of vi Report Status Sheet Revision Report Date Reason for Revision  February 10, 2015 Initial Issue. 1 March 23, 2015 Revised to reflect engineer corrections. Electromagnetic Compatibility Motion Dogs Table of Contents Lenzhound CFR Title 47, Part 15B, 15.249; RSS-210, Issue 8, December 2010 & ICES-003 MET Report: EMCS84248-FCC249 Rev. 1 © 2015, MET Laboratories, Inc. Page iv of vi Table of Contents I. Executive Summary .................................................................................................................................................1 A. Purpose of Test ........................................................................................................................................... 2 B. Executive Summary .................................................................................................................................... 2 II. Equipment Configuration .......................................................................................................................................3 A. Overview .................................................................................................................................................... 4 B. References .................................................................................................................................................. 4 C. Test Site ...................................................................................................................................................... 5 D. Description of Test Sample ......................................................................................................................... 5 E. Equipment Configuration ........................................................................................................................... 6 F. Support Equipment ..................................................................................................................................... 6 G. Ports and Cabling ........................................................................................................................................ 6 H. Mode of Operation ...................................................................................................................................... 7 I. Monitoring Method ...................…

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Radiated Emissions, Test Setup