The Rosenberger 60K131-815N1 is specified as a 7/16 straight jack for 50 Ohm systems, rated DC to 7.5 GHz per the manufacturer datasheet. This page summarizes the core specs, explains RF and mechanical performance implications, gives mounting and procurement guidance, and lists quick install and troubleshooting actions for engineers working with this 50 Ohm 7/16 jack. 1 — Product overview and key specifications (background) What the part is (one-sentence definition + key identifiers) Point: The 60K131-815N1 is a Rosenberger 7/16 straight jack designed for 50 Ω RF systems. Evidence: Datasheet identifies the part number, connector type and frequency rating (DC–7.5 GHz). Explanation: Use it where robust, low-intermod, higher-power coax connections are required—common in base stations, broadcast and antenna feedlines. At-a-glance spec table (what to show and why) Impedance: 50 Ω — fundamental for system matching and link-budget calculations. Frequency range: DC – 7.5 GHz — datasheet-stated usable band. VSWR / Return loss: see datasheet plots — include typical and maximum curves for design checks. Insertion loss: datasheet/test points — list if provided for your assembly frequencies. Contact finish: specified on datasheet (e.g., silver or alternative) — affects conductivity and corrosion resistance. Mounting style: panel-mount straight jack with specified thread and cutout drawing. RoHS / lead-free: stated compliance on the datasheet. Materials & operating temp: body and contact materials plus operating range (consult datasheet drawing). 2 — Electrical and RF performance (data analysis) Measured / datasheet RF parameters to explain Point: RF plots in the datasheet show return loss and VSWR behavior across DC–7.5 GHz. Evidence: Typical return-loss curves and VSWR traces appear in the official specification; the datasheet distinguishes typical vs. maximum values and test conditions. Explanation: For accurate link-budget or insertion-loss budgeting, extract S-parameter points at your operating frequencies and use the datasheet’s specified maxima for worst-case calculations. How performance affects system design (practical implications) Point: VSWR and insertion loss drive delivered power and reflected energy. Evidence: Higher VSWR increases mismatch loss and potential heating; insertion loss reduces available transmit power. Explanation: Choose this 7/16 jack when low intermodulation and power handling are priorities; verify S11/S21 on the assembled cable using network-analyzer sweeps and verify torque/mating to reproduce datasheet performance. 3 — Mechanical, materials & environmental data (method/guideline) Mechanical dimensions & mounting instructions Point: Mechanical drawings define panel cutout, thread, mating depth and tolerances. Evidence: The datasheet includes a dimensional drawing and recommended panel cutout. Explanation: Use the drawing to machine panel openings, follow the datasheet-specified tolerances, and apply a calibrated torque tool to the panel nut; avoid over-torquing and verify mating depth to prevent contact damage. Materials, finishes, compliance and reliability notes Point: Contact plating and body materials determine conductivity and corrosion resistance. Evidence: Datasheet lists contact finish and material treatments plus RoHS status and operating temperature. Explanation: For outdoor use, confirm plating and sealing level, prefer corrosion-resistant finishes, and plan for periodic inspection in corrosive environments to maintain low-loss performance and lifespan. 4 — Applications and compatibility (case study / examples) Typical use cases with configuration examples Point: 7/16 jacks are used where high power and low intermod are needed. Evidence: Common examples include base-station combiners, tower feedlines and broadcast transmitter panels. Explanation: In a combiner rack, a 7/16 jack reduces intermod and manages higher RF currents versus smaller connectors; specify complementary flanges and adapters to match your feedline geometry. Comparison vs. alternative connectors Point: 7/16 vs N-type vs 4.3-10 tradeoffs center on power, size and cost. Evidence: 7/16 form-factor typically offers higher power handling and lower intermod than N-type, while 4.3-10 provides a compact, modern low-PIM alternative. Explanation: Select the 60K131-815N1 when power handling and legacy rack compatibility outweigh savings in size or cost from smaller connectors. 5 — Procurement, installation checklist & troubleshooting (action) Where to buy, part variants and lifecycle info Point: Verify sourcing and version suffixes before purchase. Evidence: Datasheet and authorized distribution metadata identify active/obsolete status and variant suffix meanings. Explanation: Buy from authorized suppliers, confirm the exact part number and datasheet revision, and request traceability documentation to ensure authenticity and correct finish/variant. Quick install checklist and common failure modes Point: A short checklist prevents common installation issues. Evidence: Failures like poor VSWR usually stem from bad mating, damaged contacts or incorrect torque. Explanation: Checklist — verify PN, inspect finish, use correct panel cutout, apply calibrated torque, retest S-parameters post-install; troubleshoot by cleaning contacts, remating with proper torque, and re-measuring S11/S21. Summary The Rosenberger 60K131-815N1 is a 50 Ohm 7/16 jack rated DC–7.5 GHz; it suits high-power, low-intermod RF links in telecom and broadcast. Key reasons to choose it include robust power handling and stable RF performance—always download and verify the official datasheet and confirm specifications with your supplier before acceptance. Key summary The 60K131-815N1 is a 50 Ohm 7/16 straight jack rated DC–7.5 GHz; use for high-power, low-intermod feedlines and combiners (check datasheet for S-parameter plots). Extract return-loss/VSWR and insertion-loss points from the datasheet for your operating frequencies and use the maximum values for worst-case budgeting. Follow dimensional drawings and manufacturer torque guidance when panel-mounting; verify RoHS, contact finish and sealing level for outdoor reliability. FAQ What is the 60K131-815N1 frequency range and impedance? Answer: The 60K131-815N1 is specified for 50 Ω systems and a frequency range from DC up to 7.5 GHz in the official datasheet. Engineers should extract specific S-parameter points from the datasheet plots at their operational frequencies to confirm insertion loss and return loss for the application. How should I verify RF performance after installation of this 50 Ohm 7/16 jack? Answer: Verify by measuring S11 and S21 with a calibrated network analyzer across the intended band, confirm VSWR and return loss meet system margins, and retest after final torque and environmental sealing. Compare measured curves to the datasheet’s typical and maximum traces for acceptance. What are common causes of poor VSWR with this connector and how do I troubleshoot? Answer: Common causes include improper mating, damaged contacts, incorrect panel cutout or wrong torque. Troubleshoot by inspecting contacts, remating with the correct mating connector, using a calibrated torque wrench, cleaning corrosion or debris, and re-measuring S-parameters to isolate the fault.

Hook: Manufacturer specs and distributor listings rate the 60S23B-317N1 7/16 DIN right-angle RF connector to 7.5 GHz, 500 V, and an operating range from -55°C to 155°C — figures that determine suitability for demanding RF installations. Purpose & scope: This article compiles a complete, authoritative datasheet-style breakdown of electrical, mechanical and environmental specs, test limits, installation guidance and ordering notes for the 60S23B-317N1, serving engineers who need a concise, testable reference. Background: What the 60S23B-317N1 7/16 DIN Is and Where It’s Used Design summary & intended applications Point: The 60S23B-317N1 is a right-angle 7/16 DIN plug intended for telecom base stations, broadcast links and RF test equipment. Evidence: Right-angle form and bulkhead/male/female compatibility enable compact feedline routing and common mating with 7/16 DIN jacks and cables. Explanation: As an RF connector, its mechanical robustness and low intermodulation make it well suited for high-power feedlines, antenna combiners and test-fixture terminations where torque retention and repeatable mating are required. Materials, finishes & standards Point: Materials and finishes drive electrical performance and longevity. Evidence: Typical construction uses a PTFE dielectric, silver- or gold-plated center contacts and a white-bronze or passivated outer body finish, with mechanical ratings aligned to DIN EN 122190 and relevant IEC methods. Explanation: PTFE dielectric yields low loss and stable impedance; corrosion-resistant plating and body finish improve mating cycles and salt-spray resistance, directly affecting VSWR stability over lifetime. Electrical Specifications (datasheet values for 60S23B-317N1) RF performance: frequency, impedance, VSWR, insertion loss Point: RF performance defines usable bandwidth and system impact. Evidence: Datasheet values specify a nominal 50 Ω impedance and a maximum frequency of 7.5 GHz; typical VSWR is specified as ≤1.3:1 up to lower GHz bands and rises toward the max frequency, while insertion loss remains minimal (millidecibel scale per connector). Explanation: VSWR and insertion loss affect link margin and reflected power; measurements should use calibrated network-analyzer sweeps with matched cable types and short test fixtures to isolate connector contribution (example: 20 cm calibrated jumper, NIST-traceable cal kit). ParameterValueTest Condition / Notes Nominal impedance50 ΩCharacteristic, factory spec Frequency range / MaxDC – 7.5 GHzRecommended limit for guaranteed spec Typical VSWR≤1.3:1 (lower GHz), ≤1.5:1 near 7.5 GHzMeasured sweep, matched fixturing Insertion lossDepends on cable and test length Voltage rating500 VDC/low-frequency rating Insulation resistance>5 GΩ100 V DC typical test Contact resistanceInitial, clean contacts Electrical limits: voltage, insulation, power, resistance Point: Electrical limits guide safe operating envelopes. Evidence: The connector's 500 V rating and dielectric withstanding values imply insulation verification at factory, while contact resistance and insulation resistance figures set DC loss and leakage expectations. Explanation: Power handling is a function of frequency, temperature and cooling — derate continuous power as frequency and ambient increase; verify contact resistance after environmental tests and re-torque to maintain low-loss paths. Mechanical & Environmental Specs for Installation and Qualification Dimensional & mechanical data Point: Correct dimensions and torque ensure reliable mating. Evidence: Key dimensions include right-angle body length, flange geometry and center-pin projection; typical weight is near 125 g per piece and recommended mating torque is set by the manufacturer. Explanation: Use a dimensioned drawing or CAD model during mechanical integration to confirm clearance and panel cutouts; follow torque specs and anti-rotation features to prevent mechanical stress and intermittent contact. Environmental ratings & limits Point: Environmental limits determine qualification scope. Evidence: Operating temperature is specified from -55°C to 155°C, with humidity, salt spray and vibration performance validated to EN/IEC test cycles; expected mating cycles are commonly ≥500. Explanation: Thermal cycling and damp-heat tests reveal screw/finish resilience and dielectric stability; qualification pass/fail criteria typically inspect continuity, VSWR change limits and absence of corrosion or plating breach. Test Methods & Quality Verification (how to validate datasheet claims) Recommended electrical tests Point: Standardized electrical tests prove RF claims. Evidence: Use network-analyzer sweeps for S11/S21 (VSWR, insertion loss), DC contact resistance, insulation resistance and dielectric withstanding voltage tests with calibrated fixtures. Explanation: Calibrate with short-open-load-thru (SOLT) or appropriate kit, minimize adapter chain length, document pre- and post-environmental measurements and accept connectors that remain within specified VSWR and resistance thresholds. Environmental & mechanical verification Point: Environmental testing validates lifetime behavior. Evidence: Run thermal cycling, damp-heat, salt-fog and vibration per EN/IEC procedures, tracking pass criteria such as no electrical breakdown, VSWR change within limits, and mechanical integrity. Explanation: Record sample test logs including before/after S-parameter plots; common failures include plating wear, corrosion at interfaces and dielectric degradation, which inform maintenance intervals and material choices. Case Studies & Comparison (real-world fit and alternatives) Typical deployment example Point: Field deployments illustrate practical trade-offs. Evidence: In a base-station feedline application, the right-angle 7/16 DIN plug is chosen for its frequency headroom, mechanical robustness and low intermodulation; installers report consistent SWR when torque specs are followed. Explanation: Field lessons emphasize correct handling, anti-rotation measures and periodic inspection to preserve VSWR and prevent mechanical loosening under vibration. Comparable parts & selection trade-offs Point: Selection depends on frequency, power and space. Evidence: Alternatives include straight 7/16 variants, higher-frequency precision connectors, or different body finishes; trade-offs cover cost, frequency limit, and required clearance. Explanation: Choose this part when 7.5 GHz bandwidth, 500 V rating and right-angle packaging align with system needs; opt for higher-frequency variants if margin beyond 7.5 GHz is required. Actionable Checklist: Ordering, Installation & Maintenance Pre-purchase checklist & ordering codes Point: Pre-purchase checks reduce integration risks. Evidence: Verify exact ordering codes, packaging options, and mating pair compatibility against assembly drawings; confirm lead time and lot traceability with suppliers. Explanation: Cross-check mechanical drawings and sample-test reports before bulk purchase; request test data and inspection certificates to match qualification needs and ensure correct part numbers for right-angle vs. straight variants. Installation & maintenance steps Point: Proper installation preserves RF performance. Evidence: Steps include contact inspection, cleaning, following torque sequence, applying anti-rotation hardware and scheduling periodic inspections. Explanation: For suspect connectors in-situ, perform an SWR scan, visual inspection and torque check; replace connectors showing corrosion, plating wear or VSWR degradation beyond acceptance limits. Key Summary The 60S23B-317N1 7/16 DIN provides DC–7.5 GHz operation, 50 Ω impedance and a 500 V rating; PTFE dielectric and corrosion-resistant finishes support low loss and durability in telecom and broadcast installations. Electrical specs: expect typical VSWR ≤1.3:1 in lower bands, rising toward 1.5:1 near 7.5 GHz; measure with calibrated network analyzer and matched fixtures to isolate connector contribution. Qualification & handling: design for -55°C to 155°C, plan environmental tests (thermal cycling, salt spray, vibration), follow torque and maintenance checklists to sustain performance and mitigate common failures. Common Questions & Answers What are the peak frequency and voltage specs for the 60S23B-317N1? The 60S23B-317N1 is rated to a maximum frequency of 7.5 GHz and a voltage rating of 500 V. These specs are nominal for guaranteed performance; always validate in-system with calibrated S-parameter measurements and consider derating for elevated temperature or continuous high-power operation. How does VSWR for the 60S23B-317N1 affect system link budget? VSWR determines reflected power and insertion loss contribution; a typical VSWR of ≤1.3:1 at low frequencies implies minimal reflected energy, but as VSWR approaches 1.5:1 near the limit, expect increased return loss and slight added insertion loss. Include these margins in link-budget calculations and verify with on-site sweeps after installation. What installation checks should I perform for a 60S23B-317N1 7/16 DIN connector? Inspect contact surfaces for cleanliness, follow the manufacturer’s torque sequence, apply anti-rotation measures, and document initial VSWR. Schedule periodic inspections (visual and SWR scans) and replace connectors showing corrosion or VSWR degradation beyond acceptance thresholds to maintain system reliability.

As of the latest distributor listings in Dec 2025, one live listing shows 4,557 units of the Rosenberger panel jack in stock and public price snippets cite roughly $26.69–$29.26 per unit. This data-driven snapshot explains what the part is, where stock currently sits, how price varies between sellers, and the exact steps a US buyer should follow to verify availability and secure parts. The figures reported here reflect a moment-in-time assembly of distributor inventories and reseller quotes; readers must re-check live distributor pages and quotes before issuing purchase orders. The methodology below outlines how to compile and verify counts, plus a verification workflow and procurement checklist tuned for US buyers seeking minimal lead time and traceability. 1 — Product & market background Product overview (what to include) PointThe item is a Rosenberger NEX10-style panel jack designed for RF/coaxial interconnects in test equipment, racks, and compact RF modules. EvidenceTypical specifications include a panel-mount bulkhead form factor, NEX10 mating interface, and solder or crimp rear termination options. ExplanationEngineers select this family for dense RF layouts where low profile and consistent impedance are required; include synonyms such as NEX10 PANEL JACK and Rosenberger panel jack when searching inventories or datasheets. Why availability matters for buyers PointAvailability materially affects production continuity and aftermarket support. EvidenceLong lead times, lifecycle transitions, or limited production runs raise risk; distributor inventory pages and manufacturer bulletins are primary signals. ExplanationFor production runs and repairs, on-hand stock reduces schedule risk; for prototypes, short-term procurement from authorized stocks or trustworthy brokers speeds validation while minimizing counterfeit or obsolete risks. 2 — Live stock data overview Consolidated stock snapshot (how to compile) PointAggregate live counts from authorized distributors, tiered resellers, and marketplace listings to form a consolidated snapshot. EvidenceCompile seller, SKU, quantity on hand, last-updated timestamp and location; note that one listing currently reports 4,557 pcs in stock. ExplanationUse a rolling spreadsheet that captures timestamped screenshots or emailed quotes to preserve proof of availability; replace placeholder numbers with fresh checks before a PO. Regional distribution & lead-time signals PointUS buyers should prioritize domestic stock to cut transit time and customs friction. EvidenceListings marked “in stock” from US warehouses typically ship in days, while offshore stock often shows “available in X weeks.” ExplanationEvaluate seller location, shipping origin, and stated earliest ship date; prefer sellers showing US-based fulfillment or reliable expedited freight quotations for urgent orders. 3 — Price analysis & trend drivers Current price range & quoted examples PointObserved public unit prices fall in a roughly $26.69–$29.26 band, with variance by seller and quantity. EvidenceSnippets and quick quotes show mid-to-high twenties per unit; bulk tiers and MOQs can materially lower unit cost. ExplanationReport unit price alongside MOQ, bulk tiers, and estimated landed cost (shipping, duties, brokerage). Always request a written quote with expiry to lock tiered pricing for the PO window. What moves the price (supply drivers) PointMultiple factors drive price differences between sellers. EvidencePrimary drivers include order quantity, currency/exchange fluctuations, lead-time premiums, broker margins, and scarcity due to lifecycle status. ExplanationProcurement should request landed cost for comparison, ask for price breaks at common MOQs, and factor in expedited shipping or inspection fees when comparing apparent unit prices. 4 — Where to buy & verification checklist Authorized distributors vs brokerspros and cons PointAuthorized distributors offer traceability while brokers can fill short-term gaps at variable risk. EvidenceTrust signals for authorized sellers include manufacturer authorization statements, consistent datasheet delivery, and visible lot/date-code policies; broker risk markers include vague datasheets, evasive traceability answers, and mismatched photos. ExplanationFavor authorized distributors for production and high-value builds; use vetted brokers only with dated photos and COA/traceability requirements documented in the PO. Step-by-step stock & price verification workflow Search manufacturer’s authorized distributor list and two tier-1 resellers for live inventory snapshots. Request dated, packaged photos showing part, quantity, and date code; capture seller page screenshots with timestamps. Ask for COA or traceability when required and confirm packaging and warranty conditions. Obtain a written quote with explicit expiry, MOQ, unit price, and shipping terms; request landed cost. Confirm payment terms and acceptable inspection/returns language before issuing PO. Stagger orders if supply is limitedplace a reserve PO and follow with replenishment releases. 5 — Distributor snapshots & procurement action plan Quick distributor cards (example fields) Seller SKU Qty on hand Unit price MOQ Lead time Location Trust signals micro‑semiconductor (placeholder) 89K401-272N1 4,557 ~$26.69 1 Immediate (US warehouse) US Manufacturer listing, dated inventory safe‑ic (placeholder) 89K401-272N1 varies ~$29.26 10 2–3 weeks Offshore Broker; request COA 5-step buyer checklist to secure parts Verify seller authenticity and manufacturer authorization before engaging. Confirm live stock with dated evidence (photo, screenshot, or emailed stock confirmation). Lock price and quantity with a PO or short-term contract and require an expiry date on quotes. Request inspection, date-code traceability, and COA for critical or high-volume orders. Plan logisticssplit shipments, insure high-value freight, and include clear cancellation/return clauses. Summary Actionable takeawaybefore issuing a PO for this Rosenberger panel jack, verify live stock counts with dated evidence (one listing shows 4,557 pcs), confirm landed price and written quote terms (public quotes ~ $26.69–$29.26), and follow the verification workflow plus the procurement checklists above to minimize risk and reduce lead time for US deliveries. Key Summary Verify timestamped inventory and packaging photos—match seller SKU, quantity, and date-code to RFQs to avoid mismatch and counterfeit risk. Collect written quotes showing unit price, MOQ and landed cost; compare domestic vs offshore fulfillment for lead-time impact. Prioritize authorized sellers with traceability; for brokers require COA, dated photos, and explicit return/inspection terms before payment. FAQ How can a US buyer verify stock for this part quickly? Request a dated screenshot or emailed inventory confirmation from the seller, plus photos showing part quantity and packaging with a visible date code. Favor sellers who provide COA or traceability and who will commit to a short quote expiry; document all communications to support the PO. What should I ask sellers about price and shipping for the part? Request the unit price, MOQ, bulk pricing tiers, and a landed-cost breakdown (shipping, duties, insurance). Ask for lead times from the stated warehouse and expedited shipping options; insist the quote include expiry date and payment/return terms to avoid post-PO price changes. When is it acceptable to buy from a broker rather than an authorized distributor? Use a broker only for short-term needs when authorized stock is unavailable and the broker provides dated photos, COA/serial traceability, and a clear returns policy. For production-critical buys, prefer authorized distributors to ensure warranty, traceability, and lower counterfeit risk.

Many RF engineers and PCB designers waste hours deciphering connector datasheets and miss critical specs that break prototypes. This practical guide gives a step‑by‑step method to parse the 89S201-272N1 datasheet, extract the RF specs you must verify, and convert them into concrete test and procurement decisions that save debugging time and cost. 1 — BackgroundWhat the 89S201-272N1 Is and How Its Datasheet Is Organized 1.1 Connector overview & intended uses PointThe part is a NEX10 right‑angle plug family member intended for high‑frequency test and transceiver modules. EvidenceTypical family notes list series, gender and mounting style near the title block. ExplanationConfirm the part number string and series on the datasheet header, then note intended use (test jigs, board‑level RF feed) so you only apply relevant RF limits during design and procurement. 1.2 Datasheet sections & typical layout PointA connector datasheet follows a repeatable layoutelectrical/RF specs, mechanical drawings, materials/finish, environmental parameters and assembly notes. EvidenceMeasurement condition lines (e.g., “measured with 50 Ω system”, reference plane) appear above RF tables or graph captions. ExplanationScan for RF graphs, table footnotes, and ECAD/STEP availability early—these items determine whether the datasheet contains usable RF test points and footprint files for layout import. 2 — Key RF Specs Explained (What to read, why it matters) 2.1 Frequency range, VSWR/Return Loss, & insertion loss PointFrequency range, VSWR (or S11/return loss) and insertion loss (S21) dictate link budget and matching. EvidenceDatasheets show either tabular passbands or swept plots with baseline conditions. ExplanationTranslate VSWR to return loss for clarity (e.g., VSWR 1.5 ≈ 14 dB return loss) and flag insertion loss that erodes margin; use the plotted worst‑case at the highest frequency for acceptance criteria. 2.2 Impedance, isolation, and PIM / intermodulation PointNominal impedance (usually 50 Ω), isolation between ports, and any PIM rating are critical for multi‑carrier systems. EvidenceThe datasheet will state nominal Z and list isolation in dB or PIM in dBc with test tone levels. ExplanationTreat mismatch as a source of reflection; require ≤1.5 VSWR or equivalent return‑loss thresholds and set PIM thresholds (e.g., ≤‑150 dBc) per system spec to avoid degrading RX performance under high TX power. 3 — Mechanical & Environmental Specs That Affect RF Performance 3.1 Mechanical drawings, PCB footprint & mounting constraints PointMechanical tolerances and the PCB land pattern affect impedance continuity and solder reliability. EvidenceDatasheet mechanical pages show recommended land patterns and clearances with mm or mil dimensions. ExplanationImport the STEP/ECAD model into your CAD, check right‑angle protrusion and keepout areas, and verify the footprint against your board stack and routing to prevent stray capacitance that shifts RF behavior. 3.2 Materials, plating, temperature range, and durability PointConductor materials, insulator dielectric and plating change contact resistance, loss and PIM over life. EvidenceMaterial tables list contacts, dielectric type, plating (e.g., gold over nickel) and mating cycles. ExplanationRecord finish and mating cycles for procurement and include contact plating and operating temperature limits in environmental tests to catch derating or PIM increases after thermal stress. 4 — How to Verify Compatibility & Validate Specs in the Lab 4.1 Cross-checking mating parts & system compatibility PointConfirm complementary part numbers, gender and the “measured mated” condition before trusting RF numbers. EvidenceNotes often specify whether performance was measured mated to a reference adapter or as a standalone. ExplanationBuild a compatibility matrix (connector ↔ mating part ↔ cable ↔ system impedance) and reject combinations where the datasheet states measurements used adapters that differ from your target mating geometry. 4.2 Practical RF test checklist (what to measure and how) PointKey lab checks are S11 and S21 sweeps with VNA, plus PIM and thermal cycling as required. EvidenceCalibration and reference plane location are critical—datasheets note where measurements terminate. ExplanationCalibrate to the mating plane, capture S11 sweep across the full band, record insertion loss and run PIM tests under expected TX power; preserve margins by specifying acceptance criteria 1.5–2× stricter than datasheet minima. 5 — Quick Reference Checklist & Common Pitfalls 5.1 One-page procurement & design checklist PointA concise checklist ensures no spec is missed during review. EvidenceStandard items include part number, impedance, frequency, VSWR, insertion loss, PIM/power handling, footprint, ECAD files and RoHS notes. ExplanationCopy this checklist into your BOM and design review items so buyers and engineers verify electrical and mechanical compatibility before ordering prototypes. 5.2 Common misreads and how to avoid them PointCommon errors include misreading measurement conditions, confusing dB and dBm, and assuming cable data applies to the connector. EvidenceFootnotes or “measured with adapter” notes are easy to overlook. ExplanationAnnotate datasheet rows as “use for design”, “use for test” or “ignore for this project” and flag adaptor conditions so teams use consistent test baselines and avoid rework. Summary Verify nominal impedance and frequency coverage first to ensure the connector fits your RF chain; include VSWR and insertion‑loss targets in layout rules and procurement notes for consistent performance. Check mechanical drawings and import STEP/ECAD files to validate footprint, right‑angle clearance, and solder land patterns before layout to avoid mechanical rework. Plan lab validationVNA S11/S21 sweeps, PIM under realistic power, and thermal cycling; derive acceptance thresholds with margin beyond datasheet minima to cover assembly variability. FAQ How do I confirm 89S201-272N1 pin‑out and mating compatibility? Check the datasheet header for the full part string and any listed complementary part numbers; cross‑reference the mechanical drawings and the “mating” note that indicates whether specs were measured mated. Build a small compatibility table mapping connector, mating part, and cable to system impedance. What are the essential RF specs to extract from the 89S201-272N1 Datasheet before layout? Extract nominal impedance, usable frequency band, VSWR/return loss curves, insertion loss at band edges, isolation, and any PIM or power‑handling notes. Use the worst‑case plotted values for acceptance criteria and ensure the VNA calibration plane matches the datasheet reference plane. How should I set pass/fail criteria for connector tests referenced to the 89S201-272N1? Derive acceptance limits by taking datasheet minimums and adding margin for assembly and measurement variability—typically require better VSWR and lower insertion loss than listed. Include PIM thresholds if the datasheet lists them, and validate after thermal cycling to capture derating effects.