2AQUY-PGM001Protective Glass Monitoring with RFID-Reader

Operator's manual BEO D50 Operator's manual BEO D50 Original operator's manual Edition 2020-01 Order Information Please specify when ordering this document: Operator's manual BEO D50 Edition 2020-01 Document number 22-50-17-CRen Address for orders TRUMPF Laser GmbH Vertrieb Aichhalder Straße 39 78713 Schramberg Fon: +49 7422 515 - 0 Fax: +49 7422 515 - 436 Internet: http://www.trumpf-laser.com E-Mail: [email protected] Address for service TRUMPF Laser GmbH Technischer Kundendienst Aichhalder Straße 39 D-78713 Schramberg Fon: +49 7156 303 - 37 444 Fax: +49 7422 515 - 148 Internet: http://www.trumpf-laser.com E-Mail: [email protected] E-Mail: [email protected] © TRUMPF Laser GmbH Good to know These operating instructions contain important information on the focusing optics, its functions, the necessary adjustment work and upkeep. This information will help you operate the laser product safely, avoid any risks, reduce service costs and break- down times and increase its reliability and service life. In addition to the Operator's manual, observe the regional regu- lations regarding accident prevention, laser safety, and environ- mental protection. The laser product Operator's manual must be read and observed by every person who is commissioned with working on the laser product. Examples of work on the laser product: ■ Operation ■ Maintenance ■ Transport ■ Operator's manual for the laser device. ■ Software manual. ■ Interface descriptions. ■ Dimensional drawings. ■ Data sheets. ■ Acceptance protocol. ■ Operator's manual for a camera which is operated on focus- ing optics. 22-50-17-CRen2020-01 Good to know I What do the operating instructions contain? Other regulations Who is the operator's manual for? Documentation for further reference II Good to know 2020-0122-50-17-CRen Table of contents Safety 1For your safety1‐3 2Warning instructions1‐4 3Terms1‐5 4Hazards1‐8 4.1Laser light1‐8 4.2Gases, aerosols, dusts1‐9 4.3Thermal energy1‐10 Fire, explosion1‐10 Temperature of the workpiece1‐10 Hot surfaces on the focusing optics1‐10 4.4Noise1‐11 5Safety of the laser product1‐12 5.1Laser beam emission openings1‐12 5.2EMERGENCY STOP push-button1‐14 5.3Labels and warning signs1‐14 Labels on the focusing optics1‐15 Labels in the range of the focusing optics1‐17 6Measures of the user1‐19 6.1Intended use1‐19 6.2Technical measures1‐20 6.3Organizational measures1‐21 6.4Observing standards and regulations1‐22 6.5Behavior in certain operating stages1‐22 6.6Behavior in case of emergency1‐23 6.7Selecting and qualifying personnel1‐23 6.8Instructing the personnel1‐24 6.9Wearing personal safety equipment1‐24 22-50-17-CRen2020-01 Table of contents 0‐1 Chapter 1 Assembly and installation Assembly and installation2‐3 1Integration into a system environment2‐4 1.1Fastening2‐4 1.2Clearances2‐6 1.3Example2‐7 2Electrical insulation2‐10 2.1Measuring the insulation resistance2‐11 3Installation2‐12 3.1Overview of the connections2‐12 3.2Principles, general rules2‐14 3.3Safe combination of laser device, laser light cable and focusing optics 2‐15 Characteristics of safe combinations2‐15 Dangers due to impermissible combina- tions 2‐15 Information required to assess the safety of a combination 2‐17 Examples of safe combinations2‐19 3.4Connection of the laser light cable (LLK)2‐20 Connecting the laser light cable to the focusing optics 2‐22 3.5Connections for cooling unit2‐26 3.6Connections for crossjet, purging gas and MVE gas 2‐30 3.7Connection for proximity switch (BEO D50 only, without protective glass monitoring unit) 2‐34 3.8Lighting connection2‐35 3.9Connection for line laser2‐36 3.10Camera connection2‐36 3.11Other BEO D50 Smart connections2‐37 4Ambient conditions2‐40 4.1Determining the necessary cooling water tem- perature 2‐41 0‐2 Table of contents 2020-0122-50-17-CRen Chapter 2 5Using shielding gas2‐42 5.1Gases during laser welding2‐42 5.2What is shielding gas used for?2‐42 5.3Shielding gases2‐43 Nitrogen (N 2 )2‐44 Argon (Ar)2‐44 Helium (He)2‐44 Recommendations2‐44 5.4Shielding gas supply2‐45 Linear gas supply2‐46 Linear gas supply with a lateral MDE noz- zle 2‐47 Aerator nozzle gas supply2‐48 Other methods2‐49 5.5Arrangement of the shielding gas nozzles2‐50 Pulsed lasers2‐50 cw lasers2‐51 Welding at edges2‐52 5.6Dosing shielding gas2‐52 5.7Effect of the shielding gas2‐55 Description 1Models and options3‐3 1.1Minimum configuration3‐3 1.2Available modules3‐4 2Components3‐6 2.1Focusing optics module overview3‐6 2.2Requirements3‐13 2.3Collimator with plug receptacle3‐14 2.4Protective sleeve3‐16 2.5Dual focus optics3‐17 2.6Connecting piece3‐18 2.7BEO D50 Smart interface module3‐19 2.8Observation optics3‐20 2.9Pyrometer outlet3‐22 22-50-17-CRen2020-01 Table of contents 0‐3 Chapter 3 2.10Interface for sensor module3‐23 2.11Lighting module3‐24 2.12External lighting3‐25 2.13Line laser3‐26 2.14Lenses for welding3‐26 BEO D50 Smart cassette receptacle with protective glass cassettes 3‐30 Crossjet and MVE nozzle3‐32 2.15Connection plates3‐34 2.16Focusing optics examples3‐36 3Functional description3‐41 3.1Beam guideway of the laser light3‐41 3.2Beam guideway in the observation optics3‐46 3.3Connection to the laser device3‐48 Adjustment work General notes on adjustment work4‐3 1Aligning the focusing optics4‐4 1.1Aligning the focusing optics4‐4 2Adjusting the focal position4‐6 2.1Setting zero position4‐7 2.2Taking objects out of the beam guideway4‐8 2.3Adjusting the working distance4‐8 Determining the focal position with the working laser 4‐10 Measuring the working distance4‐11 Adjusting the focal position by means of the line laser 4‐13 2.4Adjusting the distance caliper4‐13 2.5Adjusting the line laser4‐14 2.6Defocusing the focusing optics4‐16 2.7Adjusting the focusing optics in the x-y direc- tion. 4‐19 Adjusting the focusing optics, zero position4‐20 Adjusting the focusing optics to a new workpiece 4‐20 0‐4 Table of contents 2020-0122-50-17-CRen Chapter 4 3Adjusting the dual focus optics4‐21 3.1Turning the foc…

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Chapter 2 Assembly and installation Assembly and installation2‐3 1Integration into a system environment2‐4 1.1Fastening2‐4 1.2Clearances2‐6 1.3Example2‐7 2Electrical insulation2‐10 2.1Measuring the insulation resistance2‐11 3Installation2‐12 3.1Overview of the connections2‐12 3.2Principles, general rules2‐14 3.3Safe combination of laser device, laser light cable and focusing optics 2‐15 Characteristics of safe combinations2‐15 Dangers due to impermissible combina- tions 2‐15 22-50-17-CRen2020-01 Assembly and installation 2‐1 Information required to assess the safety of a combination 2‐17 Examples of safe combinations2‐19 3.4Connection of the laser light cable (LLK)2‐20 Connecting the laser light cable to the focusing optics 2‐22 3.5Connections for cooling unit2‐26 3.6Connections for crossjet, purging gas and MVE gas 2‐30 3.7Connection for proximity switch (BEO D50 only, without protective glass monitoring unit) 2‐34 3.8Lighting connection2‐35 3.9Connection for line laser2‐36 3.10Camera connection2‐36 3.11Other BEO D50 Smart connections2‐37 4Ambient conditions2‐40 4.1Determining the necessary cooling water tem- perature 2‐41 5Using shielding gas2‐42 5.1Gases during laser welding2‐42 5.2What is shielding gas used for?2‐42 5.3Shielding gases2‐43 Nitrogen (N 2 )2‐44 Argon (Ar)2‐44 Helium (He)2‐44 Recommendations2‐44 5.4Shielding gas supply2‐45 Linear gas supply2‐46 Linear gas supply with a lateral MDE noz- zle 2‐47 Aerator nozzle gas supply2‐48 Other methods2‐49 5.5Arrangement of the shielding gas nozzles2‐50 Pulsed lasers2‐50 cw lasers2‐51 Welding at edges2‐52 5.6Dosing shielding gas2‐52 5.7Effect of the shielding gas2‐55 2‐2 Assembly and installation 2020-0122-50-17-CRen Assembly and installation Commissioning of the focusing optics: ■ is done by a service engineer of TRUMPF during the com- missioning of a laser device, if the focusing optics is deliv- ered together with a laser device. ■ is done by the user after start-up of an existing laser device, if you purchased the focusing optics afterwards. The following conditions must be fulfilled: ■ The necessary safety equipment must have been installed and must be ready for operation. ■ Suitable laser safety glasses must be at hand. ■ If additional media are required, they must be provided: − Shielding gas ■ There must be enough samples for the commissioning proce- dure. A suitable workpiece holder for the samples must be provided. 22-50-17-CRen 2020-01 Assembly and installation 2‐3 1.Integration into a system environment The focusing optics is composed by modules according to the requirements of your application. This means that each focusing optics has different specifications: ■ for the dimensions of the focusing optics ■ for the fastening of the focusing optics. ■ for the spaces which have to be kept free around the focus- ing optics. Dimensional details about the focusing optics and the clearan- ces that have to be maintained are described in the following documents: ■ in the dimensional drawing of the focusing optics ■ in the installation instructions for focusing optics D50, doc. no.: 22-50-17-A1-DH. These documents have been delivered together with your laser device or with the separately delivered focusing optics. The dimensional drawing contains: ■ all dimensions in millimeters [mm] ■ Clearances to be maintained in millimeters (mm). ■ Letters as a reference to the installation guideline. How to deal with dimensional drawings and installations instruc- tions is described by means of an example in the following sec- tions: 1.1Fastening Fastening of the focusing optics is determined by the modules built in. There are the following fastening methods for the focusing optics: ■ on the empty cube. ■ At the cube with its different versions: − 0° cube. − 90° cube. ■ At the 2 x 90° double deflection. The fastening screws (4 x M4) have to be tightened to a torque of 2.5 Nm. 2 ‐4 Integration into a system environment 2020-0122-50-17-CRen Documents Dimensional drawing and installation guideline Note The focusing optics BEO D50 Smart must always be fastened so that they are electrically insulated. To fasten focusing optics to a robot, a DIN-ISO connection plate is available. A fastening plate D50 - D70 is also available for fastening focus- ing optics D50 compatibly with focusing optics D70. For insulated fastening, there is an insulated fastening plate, D50 - D70. The following picture informs you how to find information on the fastening in the relevant dimensional drawing or in the installa- tion instructions. Dimensional drawing of focusing optics (example: BEO D50 Basic) Fig. 2-1 In addition to the dimensions, you will also find letters on the drawing. The arrow points to the letter "d". 22-50-17-CRen 2020-01 Integration into a system environment 2‐5 Fastening elements Fastening specifications "d" is a reference to the installation instructions, document no.: 22-50-17-A1-DH, the dimensional drawing for the bores "0° cube". Dimensional drawing for "d" in the installation instructionsFig. 2-2 1.2Clearances Keep free the environment around the focusing optics for the fol- lowing: ■ Unimpeded emission of the laser light. ■ Compliance with the working distance at different focal lengths of lens. ■ for adjustment work: − for aligning the focusing optics. − for adjusting the focal position. − for adjusting the picture sharpness of the camera. − for adjusting the cross hairs. − for defocusing the focusing optics. ■ for maintenance and service work: − for connecting and disconnecting the LLK. − for connection of the supply lines, such as for the cool- ing unit. − for removing and fitting the lens protection. − for removing and pushing in the protective glass cas- settes. − for positioning tools. − for attaching measuring devices. Clearances must also be considered for the following operations: ■ Design of the carrier system, particularly if the focusing optics is used as a mobile system. ■ Attaching a protective cover. 2 ‐6 Integration into a system e…

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Chapter 3 Description 1Models and options3‐3 1.1Minimum configuration3‐3 1.2Available modules3‐4 2Components3‐6 2.1Focusing optics module overview3‐6 2.2Requirements3‐13 2.3Collimator with plug receptacle3‐14 2.4Protective sleeve3‐16 2.5Dual focus optics3‐17 2.6Connecting piece3‐18 2.7BEO D50 Smart interface module3‐19 2.8Observation optics3‐20 2.9Pyrometer outlet3‐22 2.10Interface for sensor module3‐23 2.11Lighting module3‐24 2.12External lighting3‐25 2.13Line laser3‐26 22-50-17-CRen2020-01 Description 3‐1 2.14Lenses for welding3‐26 BEO D50 Smart cassette receptacle with protective glass cassettes 3‐30 Crossjet and MVE nozzle3‐32 2.15Connection plates3‐34 2.16Focusing optics examples3‐36 3Functional description3‐41 3.1Beam guideway of the laser light3‐41 3.2Beam guideway in the observation optics3‐46 3.3Connection to the laser device3‐48 3‐2 Description 2020-0122-50-17-CRen 1.Models and options The focusing optics has a modular design. Various modular sys- tem components can be combined, depending on the application. Special applications may require special models. 1.1Minimum configuration 1 3 4 5 6 7 2 C T - 0 0 4 6 4 1 Plug receptacle 2 Collimation 3 Collimation lens 4 Empty cube extension 5 Lens 6 Focusing lens 7 Lens protection Minimum configuration of a focusing optics D50 with drawn- in beam path Fig. 3-1 22-50-17-CRen2020-01 Models and options 3‐3 Laser light is generated in the laser device and coupled into the laser light cable. Plug receptacle (1) is for mounting the optical plug of the LLK. Conical laser light is emitted from the LLK. The collimator lens (3) forms the collimated laser beam from this, which runs virtu- ally parallel. The collimation is connected to the objective (4) via the empty cube extension (5). The focusing lens (6) in the objective focuses the laser beam on one point on the processing plane. This generates the high power density required for material processing. The lens protection (7) prevents soiling of the focusing lens. 1.2Available modules The modules available for the focusing optics D50 are listed below: ■ Plug receptacle A with defocusing, focal length f35. ■ Plug receptacle D with defocusing, focal length f35. ■ Plug receptacle A. ■ Plug receptacle D. ■ Plug receptacle D SCL. ■ Adapter LLK-B on LLK-D. ■ Collimators f100, f125. ■ X-Y offset. ■ Beam formation module e.g. bifocal optics with fixed point distance. ■ Connectors. − Empty cube. − 0° cube for fastening of the viewing optics. − 90° cube for deflecting the laser beam by 90°. − 90° cube for deflecting the laser beam by 90° and for fastening of viewing optics. − 2 x 90° double deflection for deflecting the laser beam and for mounting the observation optics. ■ Objective for welding applications. − Objective, focal lengths f150, f200, f250, f300 (other focal lengths available on request). − BEO D50 Basic cassette receptacle with objective protec- tive glass cassette and process protective glass cassette 3 ‐4 Models and options 2020-0122-50-17-CRen Laser light Plug receptacle with defocusing Empty cube extension Lens Lens protection and sensor block (proximity switch for presence of proc- ess protective glass cassette). − BEO D50 Smart cassette receptacle with objective pro- tective glass cassette and process protective glass cas- sette and protective glass monitoring module. − Lens protection receptacle with protective glass holder. − Crossjet f150-f300. ■ Optional modules for BEO D50 Smart. − Interface module (incl. cooling water monitoring module) − Gas monitoring module ■ Coaxial lighting. ■ Observation optics. − Observation optics for camera. − Observation optics for camera and sensor system outlet. − Observation optics for camera and pyrometer outlet. − Observation optics for sensor system outlet. − Observation optics for pyrometer outlet. ■ Fastening plates. − Fastening plate D50 - D70. − Insulated fastening plate D50 - D70. ■ Accessories. − Gas supply. − Adapter plate for KR30 TK100. − Adapter DIN ISO plate cpl. − DIN-ISO connection plate cpl. − Fastening plate for accessories. − External LED spot lighting. − Line laser. The description of the individual components is subdivided into: ■ Shielding gas supply lines (see "Shielding gas supply", pg. 2‐45). ■ all other components. 22-50-17-CRen 2020-01 Models and options 3‐5 2.Components In the following section you will find: ■ the various demands on the focusing optics. ■ a description of the various focusing optics modules. 2.1Focusing optics module overview Focusing optics are composed of modules according to the requirements of the respective processing task. The following figures show the most important modules available for focusing optics. 3‐6 Components 2020-0122-50-17-CRen Modular system 1 Plug receptacle A with defocus- ing, focal length f35 2 Plug receptacle D with defocus- ing, focal length f35 3 Plug receptacle A 4 Plug receptacle D 5 Adapter LLK-B on LLK-D 6 X-Y offset 7 Collimator with cooling block 8 Bifocal optics 9 External lighting 10 Empty cube 11 0° cube 12 Lighting module 13 Observation optics 14 Interface for sensor system 15 Fastening plate D50 - D70 16 Lens 17 Sensor block 18 Cassette holder with protective glass cassettes 19 Lens protection 20 Crossjet Module overview, focusing optics BEO D50 Basic 0°Fig. 3-2 22-50-17-CRen2020-01 Components 3‐7 Module overview for BEO D50 Basic 0° and 90° 1 Plug receptacle A with defocus- ing, focal length f35 2 Plug receptacle D with defocus- ing, focal length f35 3 Plug receptacle A 4 Plug receptacle D 5 Adapter LLK-B on LLK-D 6 X-Y offset 7 Collimator with cooling block 8 Bifocal optics 9 External lighting 10 Lighting module 11 90° cube 12 Fastening plate D50 - D70 13 Observation optics 14 Interface for sensor system 15 Lens 16 Sensor block 17 Cassette holder with protective glass cassettes 18 Lens protection 19 Crossjet Module overview, focusing optics BEO D50 Basic 90°Fig. 3-3 3‐8 Components 2020-0122-50-17-CRen 1 Plug receptacle A with defocus- ing, focal length f35 2 Plug r…

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Intertek Report No: 2235011KAU-006b 03-August-2020 Version: 25-January-2018 Page 10 of 35 EMC_FCCpart15_ICES003 Transmitter frequency range: 13.56 MHz Frequency agile or hopping: Yes No Antenna: Internal antenna External antenna Antenna connector: None Yes, type Type of modulation: AM Type of used TAG: One RFID-Transceiver Unit per cassette slot, according to ISO/IEC 15693 in the 13,56 MHz band for communication with RFID-Tags attached to a Protective Glass Temperature range: FCC requirement: -20°C to +50°C Customers spec. of EUT (just upper limit defined): +65°C Testing range: -20°C to +65°C Transmitter stand by mode supported: Yes No 6.1.1 Label artwork (general)

PGM module XX_Internal photos 35011 IC: 24193-PGM001 2020-08-06

Reference No. 2235011KAU-007 www.intertek.com This Statement of Compliance is for the exclusive use of Intertek's client and is provided pursuant to the agreement between Intertek and its Client. Intertek's responsibility and liability are limited to the terms and conditions of the agreement. Intertek assumes no liability to any party, other than to the Client in accordance with the agreement, for any loss, expense or damage occasioned by the use of this Statement. Only the Client is authorized to permit copying or distribution of this Statement of Compliance. Any use of the Intertek name or one of its marks for the sale or advertisement of the tested material, product or service must first be approved in writing by Intertek. 1(2) STATEMENT ON EXPOSURE TO ELECTROMAGNETIC FIELDS EQUIPMENT Type of equipment: Protective Glass Monitoring Unit Brand name: Trumpf Laser GmbH Type / Model: Protective Glass Monitoring (PGM) Manufacturer: Trumpf Laser GmbH STANDARD 47 CFR §2.1091, 47 CFR §1,1307, 47 CFR §1.1310 KDB 447498 D01 v06 Evaluation Maximum input power to the transmitter is ... mW. We can assume that the transmitter is ideal and all ... mW are sent to the antenna. Magnetic coil antenna gain has maximum 0 dBi gain. Maximum output power of the transmitter is 230 mW (according to form 731). Magnetic coil antenna gain has maximum 0 dBi gain. A worst case MPE calculation is as follows:
   ∗ EIRP = 230 mW r = 20 cm S = 0,183 mW / cm 2 Reference No. 2235011KAU-007 www.intertek.com This Statement of Compliance is for the exclusive use of Intertek's client and is provided pursuant to the agreement between Intertek and its Client. Intertek's responsibility and liability are limited to the terms and conditions of the agreement. Intertek assumes no liability to any party, other than to the Client in accordance with the agreement, for any loss, expense or damage occasioned by the use of this Statement. Only the Client is authorized to permit copying or distribution of this Statement of Compliance. Any use of the Intertek name or one of its marks for the sale or advertisement of the tested material, product or service must first be approved in writing by Intertek. 2(2) Limits Per 47 CFR §1.1310 MPE limit for 13.56 MHz transmitter is 0,98 mW / cm 2 RSS 102 clause 2.5.2 Routine rf exposure evaluation exemption limit for transmitters operating at 20 MHz or lower frequencies is 1W eirp. Transmitter complies with these limits without testing Intertek Deutschland GmbH Date of issue: 2020-03-19 Issued by: R. Dressler

Trumpf Laser GmbH TEST REPORT SCOPE OF WORK RADIO TESTING - Protective glass monitoring module – PGM001A REPORT NUMBER 2235011KAU-006b ISSUE DATE 03-August-2020 PAGES 35 DOCUMENT CONTROL NUMBER R_FCC 15-225_18-01 (25-January-2018) © 2017 INTERTEK Intertek Report No: 2235011KAU-006b 03-August-2020 Version: 25-January-2018 Page 2 of 35 EMC_FCCpart15_ICES003 TYPE: PGM001A DESCRIPTION: Protective Glass Monitoring for a Laser Processing Optics with RFID-Reader SERIAL NO: 000006 All measurement results refer to the equipment which was tested MANUFACTURER: Trumpf Laser GmbH CUSTOMER NAME: Trumpf Laser GmbH ADDRESS (CUSTOMER): Aichhalder Str. 39 78713 Schramberg Germany REPORT NO: 2235011KAU-006b TEST RESULT: The equipment complies to 47 CFR Part 15, Subpart C, Intentional radiators, section 15.225 / RSS-210, Issue 10 and RSS-GEN, Issue 5 (Referring to the operating modes specified in this report). TEST LABORATORY: Intertek Deutschland GmbH Innovapark 20, 87600 Kaufbeuren Germany FCC DESIGNATION NUMBER: DE0014 FCC TEST FIRM REGISTRATION NUMBER: 359260 ISED CAB IDENTIFIER: DE0014 ISED #: 24854 TEST ENGINEER: R. Dressler Technical Manager EMC/ Radio REVIEWER: U. Gronert Senior Project Engineer Intertek Report No: 2235011KAU-006b 03-August-2020 Version: 25-January-2018 Page 3 of 35 EMC_FCCpart15_ICES003 Details about Accreditations/Acceptances EMC / Radio National The Intertek Deutschland EMC-Lab is accredited by the Deutsche Akkreditierungsstelle GmbH (DAkkS) Registration Number (EMC general): D-PL-12085-01-01 Registration Number (EMC Med): D-PL-12085-01-03 International The Intertek Deutschland EMC-Lab is accepted to participate in the IECEE (IEC Conformity assessment for Electrotechnical Equipment and Components) CB-Scheme CB Test Laboratory: TL118 The Intertek Deutschland EMC-Lab is listed at the Federal Communications Commission (FCC) Designation Number: DE0014 Test Firm Registration Number: 359260 The Bundesnetzagentur recognizes Intertek Deutschland GmbH as Conformity Assessment Body in the sector electromagnetic compatibility (EMC). The Intertek Deutschland EMC-Lab is accredited for Innovation, Science and Economic Development Canada (ISED) ISED CAB IDENTIFIER: DE0014 ISED #: 24854 Automotive The Intertek Deutschland EMC-Lab is recognized as technical service of the Kraftfahrt-Bundesamt (KBA) Registration Number: KBA-P 00046-03 Intertek Report No: 2235011KAU-006b 03-August-2020 Version: 25-January-2018 Page 4 of 35 EMC_FCCpart15_ICES003 SECTION 1 CONTENTS SECTION 2 MEASUREMENT AND TEST SPECIFICATION .................................................. 5 SECTION 3 GENERAL INFORMATION ............................................................................. 6 SECTION 4 SUMMARY OF TESTING ............................................................................... 7 4.1 General annotation ...................................................................................................................................... 7 4.2 Measurement uncertainty ........................................................................................................................... 7 4.3 Document History ........................................................................................................................................ 7 SECTION 5 TEST RESULTS – OVERVIEW ......................................................................... 8 SECTION 6 INFORMATION ABOUT THE EUT .................................................................. 9 6.1 Description of the EUT ................................................................................................................................. 9 6.2 Power interface ......................................................................................................................................... 11 6.3 Configuration mode ................................................................................................................................... 11 6.4 Operation mode......................................................................................................................................... 11 6.5 Major subassemblies or internal peripherals ............................................................................................ 11 6.6 Peripheral devices used for testing ........................................................................................................... 12 6.7 Supply and interconnecting cables used for testing .................................................................................. 12 6.8 Clock frequencies of the EUT ..................................................................................................................... 12 6.9 Block diagram of the test setup ................................................................................................................. 13 SECTION 7 ....................................................................................................................... 14 7.1 Conducted emissions ................................................................................................................................. 14 7.2 Field strength 13.110 MHz – 14.010 MHz (Emission Mask) ...................................................................... 17 7.3 Radiated emissions < 30 MHz .................................................................................................................... 22 7.4 Radiated emissions 30 MHz to 1 GHz ........................................................................................................ 27 7.5 Frequency stability measurement ............................................................................................................. 31 7.6 Occupied bandwidth .................................................................................................................................. 33 Intertek Report No: 2235011KAU-006b 03-August-2020 Version: 25-January-2018 Page 5 of 3…

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Report No: 2235011KAU-006_Test Setup Photos_b 03-August-2020 Page 1 of 3 Test Setup Photo – Conducted Emissions Test Setup Photo – Occupied Bandwidth Report No: 2235011KAU-006_Test Setup Photos_b 03-August-2020 Page 2 of 3 Test Setup Photos – Radiated Emissions Report No: 2235011KAU-006_Test Setup Photos_b 03-August-2020 Page 3 of 3