Text extracted from the exhibit documents filed with the FCC. Open a document above to read the original.
To whom it may concern, We, IoT Consulting Partners Co., Ltd., act as an agent for testing and certification approval for our customers’ projects. For efficiency purposes, we are often authorized by our customers to sign relevant documents on their behalf. Therefore, we hereby authorize our employee, Mr. Alan Lane, Chief Operation Officer, to sign all necessary documents related to the projects handled by our company. This authorization is valid only when Mr. Alan Lane is working for us. Should you have any questions, please feel free to contact us. Sincerely, IoT Consulting Partners Co., Ltd. Wouters Van Den O Michael General Manager [email protected] Date: 10 Jan 2026
Model: CONNECT Module manufactured by:perma-tec GmbH & Co. KGHammelburger Str. 21 | 97717 Euerdorfwww.perma-tec.com | Made in GermanyM1-2518-123456-001Art. No. XXXXXX CONNECT Module ZULASSUNGEN Device EUI: 70:74:4C:6G:00:00:00:D3 FCC ID: 2AXWN-CMBLELORAIC: 26624-CMBLELORA HVIN: CONNECT Module
Page 1 of 2 Report No.: psi2603099-C01-R01 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Appendix IV MPE FCC ID: 2AXWN-CMBLELORA Prediction of MPE at a given distance 1. Limits The criteria listed in the following table shall be used to evaluate the environment impact of human exposure to radio frequency (RF) radiation as specified in 1.1307(b) KDB Test Methodology: KDB 447498 D01 v06. 2. Test Procedure Equation from page 18 of OET Bulletin 65, Edition 97-01 Where: S = power density P = power input to the antenna G = numeric gain of the antenna in the direction of interest relative to an isotropic radiator R = distance to the centre of radiation of the antenna Page 2 of 2 Report No.: psi2603099-C01-R01 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China 3. Result Mode Frequency (MHz) Prediction distance (cm) RF output power(Max) (dBm) Tune-up power (Max) MPE (mW/cm 2 ) Limit (mW/cm 2 ) SAR Test Exclusion dBm mW BT LE 2402-2480 20 8.16 9 7.9433 0.0016 1.0000 Yes Lora 903-927.5 20 10.68 11 12.5893 0.0036 0.6020 Yes BT: Internal antenna, Maximum Gain is 0dBi. Lora: Internal antenna, Maximum Gain is 1.6dBi Maximum Simultaneous transmission MPE Ratios for BT+Lora Max MPE Ratio BT /Limit Max MPE ratio Lora /Limit ∑MPE ratios Limit Result 0.0016/1 0.0036/0.6020 BT+Lora 1 PASS 0.0016 0.0060 0.0076 1 PASS Therefore this device complies with FCC's RF radiation exposure limits for general population without SAR evaluation.
Page 79 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF7_927 Peak_Output_Power_NVNT_ANT1_SF8_903 Page 80 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF8_914 Peak_Output_Power_NVNT_ANT1_SF8_927 Page 81 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF9_903 Peak_Output_Power_NVNT_ANT1_SF9_914 Page 82 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF9_927 Peak_Output_Power_NVNT_ANT1_SF10_903 Page 83 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF10_914 Peak_Output_Power_NVNT_ANT1_SF10_927 Page 84 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF11_903 Peak_Output_Power_NVNT_ANT1_SF11_914 Page 85 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF11_927 Peak_Output_Power_NVNT_ANT1_SF12_903 Page 86 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Peak_Output_Power_NVNT_ANT1_SF12_914 Peak_Output_Power_NVNT_ANT1_SF12_927 Page 87 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China 7. Peak Power Spectral Density 7.1. Test limits For digitally modulated systems, the power spectral density conducted from the intentional radiator to the antenna shall not be greater than 8 dBm in any 3 kHz band during any time interval of continuous transmission. This power spectral density shall be determined in accordance with the provisions of paragraph (b) of this section. The same method of determining the conducted output power shall be used to determine the power spectral density. 7.2. Test Procedure Details see the KDB558074 D01 Meas Guidance v05r02 1. Place the EUT on the table and set it in transmitting mode. 2. Remove the antenna from the EUT and then connect a low loss RF cable from the antenna port to the spectrum analyzer. 3. Set the spectrum analyzer as RBW = 3kHz(Set the RBW to: 3 kHz≤RBW≤100 kHz.), VBW = 10kHz(Set the VBW≥3×RBW), span≥1.5×DTS bandwidth., detail see the test plot. 4. Record the max reading. 5. Repeat the above procedure until the measurements for all frequencies are completed. 7.3. Test Setup Page 88 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China 7.4. Test Results Condition Antenna Test Mode Frequency (MHz) Power Spectral Density(dBm/3kHz) Limit(dBm/3kHz) Result NVNT ANT1 Lora_SF5 903.00 -2.19 8 Pass NVNT ANT1 Lora_SF5 914.20 -2.53 8 Pass NVNT ANT1 Lora_SF5 927.50 -2.93 8 Pass NVNT ANT1 Lora_SF6 903.00 -5.31 8 Pass NVNT ANT1 Lora_SF6 914.20 -5.71 8 Pass NVNT ANT1 Lora_SF6 927.50 -6.23 8 Pass NVNT ANT1 Lora_SF7 903.00 -7.12 8 Pass NVNT ANT1 Lora_SF7 914.20 -7.53 8 Pass NVNT ANT1 Lora_SF7 927.50 -7.91 8 Pass NVNT ANT1 Lora_SF8 903.00 -4.26 8 Pass NVNT ANT1 Lora_SF8 914.20 -4.71 8 Pass NVNT ANT1 Lora_SF8 927.50 -5.13 8 Pass NVNT ANT1 Lora_SF9 903.00 -1.33 8 Pass NVNT ANT1 Lora_SF9 914.20 -1.97 8 Pass NVNT ANT1 Lora_SF9 927.50 -2.32 8 Pass NVNT ANT1 Lora_SF10 903.00 1.48 8 Pass NVNT ANT1 Lora_SF10 914.20 0.89 8 Pass NVNT ANT1 Lora_SF10 927.50 0.62 8 Pass NVNT ANT1 Lora_SF11 903.00 1.46 8 Pass NVNT ANT1 Lora_SF11 914.20 0.68 8 Pass NVNT ANT1 Lora_SF11 927.50 0.36 8 Pass NVNT ANT1 Lora_SF12 903.00 1.47 8 Pass NVNT ANT1 Lora_SF12 914.20 0.85 8 Pass NVNT ANT1 Lora_SF12 927.50 0.50 8 Pass Page 89 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Power_Spectral_Density_NVNT_ANT1_Lora_SF5_903 Power_Spectral_Density_NVNT_ANT1_Lora_SF5_914 Page 90 of 128 Report No.: psi260309…
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SILICNLABS AN1088:DesigningwithanInverted-F 2.4GHzPCBAntenna ThisdocumentdescribesanInverted-F2.4GHzPCBantenna designedbySiliconLabsforusewith2.4GHzwirelesschipset designs.TheInverted-Fantennaisoneofthemorecommonly usedantennasat2.4GHz.SiliconLabsprovidesantennadimen- sionsintwodifferentsubstratethicknesses.PCBantennasare boardspecific,soyoumayneedtomodifytheantennadimen- sionsforyourboardimplementation. silabs.com|Buildingamoreconnectedworld.Rev.0.1 KEYPOINTS •Referencedesignlayout •Antennaplacementandtuning •Factorsaffectingantennaperformance AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna Overview silabs.com|Buildingamoreconnectedworld.Rev.0.1|2 1.Overview OneofthemainreasonstouseaPCBantennaistoreducecost.Sincetheantennasareprinteddirectlyontheboard,theyaregener- allyconsideredtobefree.Onboardswithroomtospare,thiswillbetrue.Onboardsthatneedtogrowtoaccountfortheincreasedsize oftheprintedantenna,youmustincludetheaddedcostofthelargerPCBwhencalculatingcostsavings. Well-implementedPCBantennaswillhavesimilarperformancetothatofaceramicantenna. SiliconLabshasreleasedthefollowingInverted-FbasedReferenceDesigns: •EM358xUSBCeramicBalunwithInverted-FPCBAntennaReference •EM35xx2-layerReferenceDesignwithCeramicBalunandSpiralInverted-FPCBAntenna •EFR32MG,EFR32BG,andEFR32FG2.4GHzradioboarddesigns Note:Thedetailsincludedinthisapplicationnotearebasedonfourlegacy2.4GHzdesigns.Allofthedetailscontainedwithinthis documentareapplicabletoEM3xandEFR322.4GHzdesigns.Thefourlegacy2.4GHzdesignsusedtocollectthedatacontained inthisdocumentwere: •EM2504-LayerDesign,Inverted-FAntenna,0.062′′thick(EM250_REF_DES_LC_LAT_INV-F_62mil.zip) •EM2504-LayerDesign,Inverted-FAntenna,0.8mmthick(EM250_REF_DES_LC_LAT_INV-F_0.8mm.zip) •EM2604-LayerDesign,Inverted-FAntenna,0.062′′thick(EM260_REF_DES_LC_LAT_INV-F_62mil.zip) •EM2604-LayerDesign,Inverted-FAntenna,0.8mmthick(EM260_REF_DES_LC_LAT_INV-F_0.8mm.zip) AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna Layout silabs.com|Buildingamoreconnectedworld.Rev.0.1|3 2.Layout PCBantennasareverylayoutsensitive.Forbestperformance,SiliconLabsrecommendsfollowingthereferencedesignlayoutsas closelyaspossible. 2.1KeyFeatures Somekeyfeaturesofthedesignincludethefollowing: •Therearetwoversionsofthelayout:forthe62miland0.8mmboardthicknesses •Feedarmshouldbefedwitha50ohmmicrostriptransmissionline(14milsforan0.008′′toplayer) •Shortingarmmustbeshortedtothegroundplane,preferablywithgroundvias •Thereshouldbenogroundplaneundertheantenna •Groundplaneonlayers2and4,withstitchingviasalongthegroundedge(however,EFR32radioboardsusegroundplaneson eachlayers,wherepossible) •Theantennawasdesignedtohavea40milclearancebetweentheshortingarmandtheboardedge,anda20milclearancebe- tweentheboardedgeandtheantennatrace •Theantennashouldbecoveredwithsoldermask •Simulationshaveshownnobenefittoincreasingthewidthoftheshortingarmormiteringthebendintheshortingarm Thefollowingfigureillustratesthedimensionsoftheantenna. Figure2.1.AntennaDimensions Note:Youmayneedtomodifydimensionsforyourboard’simplementation. AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna Layout silabs.com|Buildingamoreconnectedworld.Rev.0.1|4 2.1.1BoardStackup Thefollowingfigureshowstheboardstackupsusedinthedesigns. Figure2.2.BoardStackup AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna TuningandAntenna silabs.com|Buildingamoreconnectedworld.Rev.0.1|5 3.TuningandAntenna 3.1AntennaPlacement SiliconLabsdesignedandoptimizedtheInverted-Freferencedesignsfora1′′-widePCBboard.Thegroundplaneformsanimportant partoftheantenna.Thefollowingfigureshowsthesurfacecurrentsaroundtheantenna.Asyoucansee,thereissignificantcurrent runningalongthegroundplaneedge.Changingthesizeofthegroundplanewillaffectperformance;mostnotably,theantennamatch willbedetuned.Forboardsthatvaryinsizefromthereferencedesign,SiliconLabsrecommendstheplacementshowninthefollowing figure. Figure3.1.SurfaceCurrent Figure3.2.RecommendedAntennaPlacement AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna TuningandAntenna silabs.com|Buildingamoreconnectedworld.Rev.0.1|6 3.2Tuning SiliconLabsdesignedtheprintedantennatoprovidea50-Ohmoutput.Aninverted-Fantennacaninherentlybematchedto50ohms withoutusinganyexternaltuningcomponent.However,boardsize,plasticenclosures,metalshielding,andcomponentsincloseprox- imitytotheantennacanaffectantennaperformance.Forbestperformance,theantennamightrequiretuningthatcanberealizedby twoways: •Dimensionchangesintheantennalayoutstructure,or •Applyingexternaltuningcomponents. Thelatteristypicallythepreferredsolutionwhenlayoutmodificationisnotrequiredonacustomdesign.Toaccomplishthis,Silicon LabsgenerallyrecommendsreservingSMDplaceholdersforexternalantennatuningcomponents,wherethesuggestedexternalan- tennamatchingstructureisa3-elementPInetwork.Youcanachieveagoodmatchusingamaximumoftwoelements(withoneseries andoneshuntcomponent)ofthePInetwork.Anyunknownpassiveimpedancecangetmatchedto50ohmsonthisPInetwork,since allL,C,L-C,C-Lcombinationscanberealizedonitandthereforeanyde-tuningeffectcanbecompensatedout. ThefollowingfigureshowsthevaluesofLrequiredforthereferencedesignprototypes.AllfourdesignsrequiredC1/C2tobeunpopula- ted.Notethateveryimplementationoftheantennadesignwillrequiredifferentcombinationsofinductorsandcapacitors.TheEM260 0.8mmreferencedesignhastheprintedinverted-Fantennainherentlymatchedto50ohms. Figure3.3.AntennaMatchingComponents •EM25062mil:L=2.0nH •EM26062mil:L=1.8nH •EM2500.8mm:L=1.8nH •EM2600.8mm:L=0ohm •C1,C2arenotpopulated AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna AntennaPerformance silabs.com|Buildingamoreconnectedworld.Rev.0.1|7 4.AntennaPerformance SiliconLabsdesignedtheantennasusingCSTMicrowaveStudio.Antennagainpatternsfortwoboardthicknessesweresimulated;the followingtwofiguresshowthisforthe62milthickboardandforthe0.8mmboard,respectively.Thegainshownistheabsolutesumof bothpolarizations.Thesefiguresalsoshowtheboardorientation. Figure4.1.SimulationofGainPatternforthe62milAntenna AN1088:DesigningwithanInverted-F2.4GHzPCBAntenna AntennaPerformance silabs.com|Buildingamorecon…
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Antennas for Wireless M2M Applications Product Specification SR4I052-PS-1.2 Page 1 Antennas for Wireless Applications 1.Features Antenna for ISM 868 and 915 MHz applications. Frequency bands from 863- 928MHz Maintains high performance on device: DFI (Designed for Integration) Low profile innovative design. SMD mounting Supplied in Tape and Reel Automotive temperature rating 2.Description Velox uses a ground plane on the host PCB to radiate effectively. The antenna itself requires a clearance underneath. An external matching circuit is used to optimise the antenna within a device to the required bands. Designed specifically for 868/915 ISM applications that require a small robust solution. 3.Applications Industrial/Scientific/Medical (ISM) Remote monitoring/ Smart meters Network Devices Manufacturing automation Agriculture/Environment Consumer tracking Velox Antenna for ISM applications Part No. SR4I052 lamiiANT ® Product Specification Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 2 4.Part Number Velox: SR4I052 5.General Data 6.RF Characteristics Product name Velox Part Number SR4I052 Frequency 863 – 928MHz Polarization Linear Environmental Condition Test ISO16750-4 5.1.1.1/5.1.2.1/5.3.2 Operating temperature -40°C to140°C Impedance with matching 50 Ω Weight < 2g Antenna type SMD Dimensions 35.0 x 8.0 x 0.9 (mm) 863 – 928 MHz Peak gain 1.60dBi Average gain (Linear) -1.60dBi Average efficiency >70% Maximum return loss <-7.5dB Maximum VSWR 2.4:1 All data measured on Antenova’s evaluation PCB Part No. SR4I052-EVB-1 Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 3 7.RF Performance The performance is shown for the frequency range 863-928MHz. 7.1 Return Loss 7.2 VSWR Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 4 7.3 Antenna pattern 7.3.1 863 – 928 MHz 3D pattern at 902 MHz Drag to rotate pattern and PCB by using Adobe Reader (Click to Activate) Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 5 8.Antenna Dimensions Velox: SR4I052 SMD pads 1-10 = 2.0 x 1.0 (mm) L W H Length Width Height 35.0 ±0.58.0 ±0.1 0.9 +0.1 -0.0 All Dimensions in (mm) Top side Bottom Side All Dimensions in (mm) Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 6 9.0 Schematic symbol and Pin definition The circuit symbol for the antenna is shown below. The antenna has 10 pins with only Pin 3 as functional. All other pins are for mechanical strength only. 10.0 Antenna footprint The recommended host PCB footprint is below. Velox: SR4I052 Pin Description 3 Feed 1,2,4,5,6,7,8,9,10 Not connected Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 7 11.Electrical Interface 11.1 Transmission Line All transmission lines should be designed to have a characteristic impedance of 50Ω. • 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 co-planar transmission is 50 Ω. 11.2 Matching Circuit The antenna requires a matching circuit that must be optimized for each product. The matching circuit will require up to five components and the following circuit should be designed into the host PCB. Not all components may be required but should be included as a precaution. The matching network must be placed close to the antenna feed to ensure it is more effective in tuning the antenna. Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 8 12.0 Antenna Integration Guide 12.1 Antenna Placement Whatever the size of the host PCB, the antenna should ideally be placed on the shortest side of the host PCB. 12.2 Host PCB Layout On the host PCB, the footprint and clearance must meet the antenna specification. An example of the PCB layout shows the antenna footprint with clearance. The feed (Pin 3) connects to the matching circuit close to the antenna. Example host layout 1 Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 9 12.3 Host PCB Clearance The diagram below shows the antenna footprint and clearance through all layers on the PCB. Only the antenna pads and connections to feed are present within this clearance area. The clearance area required is 35.0 x 9.0 (mm). The solder mask is removed to show this more clearly. The clear-out area is simply defined as the same size as the antenna, with a 1mm additional clearance below the antenna to the GND. Clearance area Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 10 13.0 Reference Board The reference board has been designed for the purpose of evaluating the SR42I052 antenna and includes a SMA female connector. To order a reference board please see www.antenova.com SR4I052-EVB-1 Evalu ation Board Velox Part No. SR4I052 Antennas for Wireless Applications Product Specification SR4I052-PS-1.2 Page 11 13.1 Reference Board Matching Circuit The reference board has been designed for the purpose of evaluating the SR4I052 antenna and includes a SMA female connector. EVB-1 Matching SR4I052-EVB-1 Designator Type Value Description C1 Capacitor 3.9pF Murata GJM15HN series C2 Capacitor DNP Not Fitted L1 Inductor 4.3nH Murata LQG15 series Velox Part No. SR4I052 Antennas for Wireless A…
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Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Page 1 of 46 Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China FCC TEST REPORT FCC ID: 2AXWN-CMBLELORA On Behalf of perma-tec GmbH & Co. KG CONNECT Module Model No.: CONNECT Module Prepared for : perma-tec GmbH & Co. KG Address : Hammelburger Str. 21, 97717 Euerdorf Prepared By : Shenzhen PSI Testing Co., Ltd. Address : 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Report Number : psi2603099-C01-R01 Date of Receipt : March 13, 2026 Date of Test : March 13, 2026–March 25, 2026 Date of Report : March 25, 2026 Version Number : V0 Page 2 of 46 Report No.: psi2603099-C01-R01 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China TABLE OF CONTENTS Description Pag e 1. Summary Of Standards And Results----------------------------------------------------------------------- 6 1.1. Description of Standards and Results ---------------------------------------------------------------- 6 2. General Information --------------------------------------------------------------------------------------------- 7 2.1. Description of Device (EUT) ---------------------------------------------------------------------------- 7 2.2. Accessories of Device (EUT) -------------------------------------------------------------------------- 8 2.3. Tested Supporting System Details -------------------------------------------------------------------- 8 2.4. Block Diagram of Connection Between EUT and Simulators ----------------------------------- 8 2.5. Test Mode Description ----------------------------------------------------------------------------------- 9 2.6. Software test version and power setting information --------------------------------------------- 9 2.7. Test Conditions ------------------------------------------------------------------------------------------ 10 2.8. Test Facility----------------------------------------------------------------------------------------------- 10 2.9. Measurement Uncertainty ---------------------------------------------------------------------------- 10 2.10. Test Equipment List ------------------------------------------------------------------------------------- 11 3. Spurious Emission -------------------------------------------------------------------------------------------- 12 3.1. Test Limits ------------------------------------------------------------------------------------------------ 12 3.2. Block Diagram of Test setup ------------------------------------------------------------------------- 13 3.3. Test Procedure ------------------------------------------------------------------------------------------ 14 3.4. Test Results ---------------------------------------------------------------------------------------------- 15 4. Power Line Conducted Emission ------------------------------------------------------------------------- 20 4.1. Test Limits ------------------------------------------------------------------------------------------------ 20 4.2. Test Procedure ------------------------------------------------------------------------------------------ 20 4.3. Test Setup ------------------------------------------------------------------------------------------------ 20 4.4. Test Results ---------------------------------------------------------------------------------------------- 21 5. Out-of-band Emissions -------------------------------------------------------------------------------------- 24 5.1. Test Limits ------------------------------------------------------------------------------------------------ 24 5.2. Test Procedure ------------------------------------------------------------------------------------------ 24 5.3. Test Setup ------------------------------------------------------------------------------------------------ 24 5.4. Test Results ---------------------------------------------------------------------------------------------- 24 6. Conducted Maximum Output Power --------------------------------------------------------------------- 30 6.1. Test limits ------------------------------------------------------------------------------------------------- 30 6.2. Test Procedure ------------------------------------------------------------------------------------------ 30 6.3. Test Setup ------------------------------------------------------------------------------------------------ 30 6.4. Test Results ---------------------------------------------------------------------------------------------- 30 7. Peak Power Spectral Density ------------------------------------------------------------------------------ 35 7.1. Test limits ------------------------------------------------------------------------------------------------- 35 7.2. Test Procedure ------------------------------------------------------------------------------------------ 35 7.3. Test Setup ------------------------------------------------------------------------------------------------ 35 7.4. Test Results ---------------------------------------------------------------------------------------------- 35 8. Occupied Bandwidth------------------------------------------------------------------------------------------ 38 8.1. Test limits ------------------------------------------------------------------------------------------------- 38 8.2. Test Procedure ------------------------------------------------------------------------------------------ 38 8.3. Test Setup ------------------------------------------------------------------------------------------------ 38 8.4. Test Results ---------------------------------------------------------------------…
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Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Page 1 of 128 Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China FCC TEST REPORT FCC ID: 2AXWN-CMBLELORA On Behalf of perma-tec GmbH & Co. KG CONNECT Module Model No.: CONNECT Module Prepared for : perma-tec GmbH & Co. KG Address : Hammelburger Str. 21, 97717 Euerdorf Prepared By : Shenzhen PSI Testing Co., Ltd. Address : 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye West Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China Report Number : psi2603099-C01-R02 Date of Receipt : March 13, 2026 Date of Test : March 13, 2026–March 25, 2026 Date of Report : March 25, 2026 Version Number : V0 Page 2 of 128 Report No.: psi2603099-C01-R02 Shenzhen PSI Testing Co., Ltd. Tel: 0755-23011775 | E-mail: [email protected] | http://www.psi-lab.com Add: 1-2/F., Building 5, Yudafu Industrial Park, No.10, Xingye W est Road, Shajing Subdistrict, Bao'an District, Shenzhen, Guangdong, China TABLE OF CONTENTS Description Pag e 1. Summary Of Standards And Results--------------------------------------------------------------------------- 5 1.1. Description of Standards and Results -------------------------------------------------------------------- 5 2. General Information ------------------------------------------------------------------------------------------------- 6 2.1. Description of Device (EUT) -------------------------------------------------------------------------------- 6 2.2. Accessories of Device (EUT) ------------------------------------------------------------------------------ 7 2.3. Tested Supporting System Details ------------------------------------------------------------------------ 7 2.4. Block Diagram of Connection Between EUT and Simulators --------------------------------------- 7 2.5. Test Mode Description --------------------------------------------------------------------------------------- 8 2.6. Software test version and power setting information ------------------------------------------------- 8 2.7. Test Conditions ------------------------------------------------------------------------------------------------ 9 2.8. Test Facility----------------------------------------------------------------------------------------------------- 9 2.9. Measurement Uncertainty ---------------------------------------------------------------------------------- 9 2.10. Test Equipment List ---------------------------------------------------------------------------------------- 10 3. Spurious Emission ------------------------------------------------------------------------------------------------ 11 3.1. Test Limits ---------------------------------------------------------------------------------------------------- 11 3.2. Block Diagram of Test setup ----------------------------------------------------------------------------- 12 3.3. Test Procedure ---------------------------------------------------------------------------------------------- 13 3.4. Test Results -------------------------------------------------------------------…
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10333 Westlake Drive · Charlotte, 28273 · United States
| # | Rule Parts | Frequency Range | Power Output |
|---|---|---|---|
| 1 | 15C | 903 MHz - 927.5 MHz | 11.70 mW |
| 2 | 15C | 2.40 GHz - 2.48 GHz | 6.55 mW |