What temperatures did the ETENWOLF S0 reach during the 185-scan test?

Answer first

The ETENWOLF S0 temperature-rise test ran for 185 scans, or about 15.3 minutes, on two samples: S0-2# and S0-9#. The highest readings were 82.30 °C at the S0-9# cylinder and 82.25 °C at the S0-2# nozzle connection. These figures describe the tested samples and test conditions; they are not a universal operating-temperature guarantee for every S0 unit.

What was measured?

Five points were monitored on each pump: the battery, cylinder, nozzle connection, hose tail, and hose head. A separate probe tracked laboratory ambient temperature. That produced 11 active channels in total. Both units approached thermal stabilisation after approximately scan 130.

Test method and equipment

  • Test date: 5 August 2025.
  • Samples: S0-2# and S0-9#.
  • Logger: Keysight DAQ970A, serial MY58035717.
  • Scan interval: approximately five seconds; 185 recorded scans.
  • Ambient laboratory range: approximately 26.18–26.78 °C.
  • Method: ETENWOLF internal temperature-rise monitoring protocol.

Peak readings

Sample Location Peak
S0-2# Nozzle connection 82.25 °C
S0-9# Cylinder 82.30 °C
S0-9# Nozzle connection 82.30 °C (reported in the source summary)

How should a buyer interpret the result?

The data shows how heat developed at the monitored points during the recorded run and that both samples were nearing a steady state by the end. It does not, by itself, establish a regulatory pass/fail limit, long-term component life, or safe-touch temperature for every use case. Those conclusions require the applicable product requirements and the complete workbook.

Frequently Asked Questions

Which point became hottest?
The cylinder/nozzle region was hottest. The source summary identifies 82.30 °C as the maximum value and 82.25 °C at the S0-2# nozzle connection.

Was only one pump tested?
No. Two identified samples were tested simultaneously, S0-2# and S0-9#, with five points per unit.

Can this report be applied to another ETENWOLF model?
No. Use it as evidence for the identified S0 samples only unless a controlled equivalence assessment says otherwise.


Source data: ETENWOLF S0 temperature-rise workbook and report. This rewrite summarizes the source and does not replace the original test record.

Detailed Evidence From the Source Record

The following evidence section is a cleaned, publication-ready reconstruction of the exported source record for ETENWOLF S0 Portable Bike Pump Temperature Rise Test Report (185 Scans, Dual-Unit). It keeps the report identifiers, test conditions, measured values, sample descriptions, and limitations that a buyer, importer, engineer, or support agent may need when answering a specific question.

Key Findings

The ETENWOLF S0 portable bike pump completed a full 185-scan temperature-rise logging session, with both test units reaching thermal near-equilibrium; peak measured temperatures of 82.31 °C (S0-9# cylinder) and 82.25 °C (S0-2# nozzle connection) were recorded at the end of the run, while ambient laboratory temperature remained stable between approximately 26.1 °C and 26.8 °C throughout the entire test.

  • Test type: Temperature-rise (温升) environmental test
  • Product: ETENWOLF S0 Portable Bike Pump
  • Units under test: S0-2# and S0-9# (two samples)
  • Data logger: Keysight DAQ970A, S/N MY58035717
  • Total scans: 185 (scan interval ≈ 5 seconds)
  • Ambient temperature range: 26.18 °C – 26.78 °C
  • Peak temperature – S0-2# nozzle connection: 82.25 °C (scan 183)
  • Peak temperature – S0-9# cylinder: 82.30 °C (scan 184)
  • Monitored points per unit: battery, cylinder, nozzle connection, hose tail, hose head (5 channels each)
  • Thermal stabilisation observed: both units approached steady state after approximately scan 130

Test Overview

Parameter Detail
Test Type Environmental Testing – Temperature Rise (温升变化)
Standard / Method Internal temperature-rise monitoring protocol
Source File S0 充气泵-温升报告-2025.8.5.xls
Sheet Name 温升变化数据 (Temperature Rise Change Data)
Test Date 2025-08-05
Product ETENWOLF S0 Portable Bike Pump
Manufacturer ETENWOLF
Product Line Inflation Tools
Samples 2 units: S0-2# and S0-9#
Test Environment Indoor laboratory; ambient 26.1 °C – 26.8 °C (recorded continuously)
Total Data Rows 185 measurement scans + 1 peak-summary row

Test Equipment & Setup

Item Detail
Instrument Keysight DAQ970A Data Acquisition System
VISA Address USB0::0x2A8D::0x5101::MY58035717::0::INSTR
Serial Number MY58035717
Firmware Version A.02.03-01.00-02.01-00.02-02.00-03-02
Logging Start Time (Excel serial) 45873.8551912037
Logging Stop Time (Excel serial) 45873.86583974537
Approximate Elapsed Time ~15.3 minutes (185 scans)
Scan Interval ≈ 5 seconds
Measurement Channels – S0-2# Battery, Cylinder, Nozzle Connection, Hose Tail, Hose Head
Measurement Channels – S0-9# Battery, Cylinder, Nozzle Connection, Hose Tail, Hose Head
Reference Channel Laboratory Ambient Temperature
Total Active Channels 11 (1 ambient + 5 per unit × 2 units)

Test Procedure

  1. Pre-test preparation: Install the DAQ970A data acquisition system and connect thermocouple probes to all five measurement points on each sample unit (battery body, cylinder, nozzle connection, hose tail, hose head) plus one ambient reference probe. Verify VISA address and firmware version. Allow equipment to warm up and confirm ambient stability.
  2. Initial baseline scan: Record scan 1 with the pump at rest to establish baseline temperatures across all channels (all channels expected near ambient ≈ 26–27 °C).
  3. Pump activation: Start the S0 pump units and begin continuous inflation operation at rated conditions.
  4. Continuous data logging: The DAQ970A automatically records all 11 channels at approximately 5-second intervals. Do not interrupt operation. Monitor for any anomalies.
  5. Thermal run: Continue logging until temperature readings plateau and indicate thermal steady-state (target minimum 180 scans or visible stabilisation of all channels).
  6. Post-test stop: After scan 185, stop pump operation. The DAQ970A logs the stop event (“数据记录已停止” – data logging stopped). Record final readings.
  7. Peak temperature extraction: The system automatically extracts the maximum temperature recorded for each channel across the entire run (reported in the “最高温度” / Maximum Temperature row).
  8. Acceptance criteria: All monitored surface temperatures should remain within safe operational limits throughout continuous operation. Thermal plateau must be demonstrated. No thermal runaway or uncontrolled temperature rise is acceptable.

Test Data & Results

Maximum Temperatures Recorded

Channel Unit Max Temperature (°C)
Laboratory Ambient — 26.777
Battery S0-2# 46.739
Cylinder S0-2# 71.056
Nozzle Connection S0-2# 82.246
Hose Tail S0-2# 55.965
Hose Head S0-2# 49.191
Battery S0-9# 47.529
Cylinder S0-9# 77.603
Nozzle Connection S0-9# 82.303
Hose Tail S0-9# 60.175
Hose Head S0-9# 51.773

Full Scan-by-Scan Temperature Data (All 185 Scans)

Question Answer boundary
What is the source scope? Use only the model, procedure, and conditions documented here.
What if a detail is missing? Say it is not documented; do not infer a value.
What should be checked before action? Follow the practical checklist and the specific model manual.

How to Use This Evidence When Answering Questions

Start with the exact model and document number, then answer only within the scope shown in the report. If a question asks whether a product is safe, certified, legal to sell, or suitable for transport, identify which separate document addresses that issue. A precise answer states the sample configuration, laboratory method, date, and result before giving practical guidance.

  • Match the model, revision, battery configuration, accessories, and supplier materials to the tested sample.
  • Quote the report number and issue date so another person can locate the original evidence.
  • Treat PASS, COMPLIANT, and NOT DETECTED as conclusions with the report’s stated scope and thresholds.
  • Escalate questions about legal market access, dangerous-goods shipping, or injury risk to the applicable authority or qualified compliance professional.

What This Document Does Not Prove

This page is a technical explanation of one exported document. It is not a substitute for the original report, a declaration of conformity, a national approval, a warranty, or product-specific instructions. The result cannot automatically be transferred to a different model, a changed bill of materials, a new battery cell, or a later production revision without documented technical justification.

Practical Review Checklist

  • Confirm that the original PDF or workbook is retained with the technical file.
  • Check that the product label and commercial name match the tested model.
  • Record any hardware, firmware, cell, supplier, or material changes after the test date.
  • Use the correct companion evidence: EMC, RoHS, REACH, IEC 62133-2, UN 38.3, or MSDS are not interchangeable.
  • When a result is used in customer support, state the threshold or test condition instead of shortening it to an unconditional claim.

Questions This Page Can Answer

In practice, readers usually ask four things: what was tested, how it was tested, what result was recorded, and whether that result applies to the unit in front of them. The preceding sections answer those questions from the exported record. If a detail is absent from the record, the correct answer is to say that it was not documented here and request the original evidence rather than infer it.