ms104ts 00 Guide: How to Install, Troubleshoot & Optimize Your Device
Introduction
If you’ve ever struggled with inaccurate readings, intermittent signals, or costly downtime on a weighing system, you know how critical a reliable load cell is. ms104ts 00 is a high‑precision, stainless‑steel load cell that delivers stable performance in harsh industrial environments, yet many users still encounter avoidable challenges during installation and maintenance. This guide explains exactly how the device works, walks you through step‑by‑step installation, shows how to diagnose the most common faults, and offers optimisation tips that keep your measurement system within tight tolerance limits. By the end, engineers, procurement managers, OEM integrators, lab technicians, QA teams, and industrial buyers across Australia will have a clear roadmap to getting the most out of the ms104ts 00, while also seeing why LoadCellShop Australia is the premier source for the part and its supporting accessories.
Key takeaway: choosing the right partner – like LoadCellShop Australia (operated by Sands Industries) – means you receive free expert consultation, 5 % off bulk orders, and custom‑built load cells on request, ensuring you never compromise on performance or budget.
Understanding the ms104ts 00 Load Cell
What is the ms104ts 00?
The ms104ts 00 is a shear‑beam load cell designed for medium‑range force measurement (up to 10 kN). Its core consists of a strain‑gauge Wheatstone bridge encapsulated in a rugged AISI 304 stainless‑steel housing. When a force is applied, the beam flexes, changing the resistance of the gauges and producing a proportional mV/V output signal.
Core Technical Features (first‑use terms bolded)
- Strain gauge: foil‑type gauges arranged in a full‑bridge configuration for temperature compensation.
- Capacity: 0 – 10 kN (≈ 2 000 lb).
- Accuracy class: ±0.02 % of full scale (FS).
- Excitation voltage: 5 – 15 V DC (typical 10 V).
- Output: 2 mV/V (nominal) linear, with optional tared function.
- Overload protection: Built‑in mechanical stops rated at 150 % of FS.
- IP rating: IP68 – dust‑tight and submersible to 1 m.
These specifications make the ms104ts 00 suitable for industrial weighing, force testing, material handling, and process control where repeatability and environmental resistance are paramount.
How the ms104ts 00 Works
A load cell translates a mechanical force into an electrical signal. In the ms104ts 00, the process unfolds as follows:
- Force Application – Load is transferred to the shear beam through the mounting flange.
- Beam Deflection – The beam bends proportionally to the applied force.
- Strain Gauge Response – The bonded gauges experience tensile or compressive strain, changing their resistance.
- Bridge Voltage Change – The Wheatstone bridge converts the resistance change into a differential voltage.
- Signal Conditioning – An external instrumentation amplifier scales the mV/V output to a usable voltage range (e.g., 0‑10 V).
Because the ms104ts 00 uses a full‑bridge arrangement, temperature effects are largely self‑compensated, delivering a stable output over the −20 °C to +80 °C operating range.
Key Specifications at a Glance
| Parameter | Specification |
|---|---|
| Model | ms104ts 00 |
| Type | Shear‑beam load cell |
| Capacity | 0 – 10 kN |
| Accuracy | ±0.02 % FS |
| Output | 2 mV/V (nominal) |
| Excitation | 5 – 15 V DC |
| Material | AISI 304 stainless steel |
| Overload protection | 150 % FS mechanical stop |
| IP rating | IP68 |
| Calibration certificate | Yes (NIST traceable) |
| Wiring | 4‑wire (excitation +/–, signal +/–) |
| Price (approx.) | AUD 380 – AUD 450 |
All values are from the manufacturer’s data sheet and verified by LoadCellShop Australia.
Application Breakdown
| Industry | Typical Use Case | Why ms104ts 00 Fits |
|---|---|---|
| Food & Beverage | Conveyor belt weighing, container fill verification | Stainless steel meets hygiene standards; IP68 protects against washdowns. |
| Mining & Bulk Materials | Hopper load monitoring, crane hook load measurement | High overload protection and rugged housing survive shock and dust. |
| Automotive Test Labs | Component force testing, dynamometer input | ±0.02 % accuracy ensures repeatable test data. |
| Pharmaceutical | Tablet press force control, tablet weight verification | Cleanability and temperature stability meet GMP requirements. |
| OEM Equipment | Integrated into custom test rigs or packaging machines | Small form factor (104 mm × 30 mm) eases mechanical integration. |
Selection Guide – Choosing the Right Load Cell for Your Project
When specifying a load cell, consider the following decision matrix (LSI keywords integrated):
| Decision Factor | What to Check | Impact on Performance |
|---|---|---|
| Capacity vs. Expected Load | Choose a rating at least 2–3× the maximum anticipated force. | Prevents permanent deformation and drift. |
| Accuracy Class | For high‑precision weighing, select ≤ ±0.03 % FS; for rough counting, ±0.5 % may suffice. | Directly influences measurement repeatability. |
| Environmental Rating (IP, temperature, corrosion) | Verify compatibility with moisture, dust, chemicals. | Avoids premature failure or signal drift. |
| Excitation Voltage Availability | Ensure your signal conditioner supplies 5–15 V DC. | Incorrect voltage can cause non‑linear output. |
| Mounting Configuration | Flange dimensions, bolt pattern, space constraints. | Misalignment leads to shear stresses and inaccurate readings. |
| Output Type | mV/V versus digital (e.g., CAN, I²C). | Determines needed instrumentation hardware. |
If ms104ts 00 aligns with all criteria, it is often the optimal choice; otherwise, alternatives like the ms108ts 00 (higher capacity) or ms102ts 00 (compact, lower capacity) may be better suited.
Common Pitfalls: Where Buyers Go Wrong
1. Over‑Specifying Capacity
Many purchasers select a load cell with a capacity far above the actual maximum load, assuming “more is better.” This reduces resolution because the same mV/V range is spread over a larger force span, leading to poor signal‑to‑noise ratio.
What happens: In a 10 kN cell used for a 200 N application, the effective resolution drops to ~0.02 N per µV, making it difficult to detect small variations.
2. Ignoring Temperature Compensation
Even full‑bridge cells like ms104ts 00 can exhibit thermal drift if installed near heat sources without proper shielding.
Result: Calibration drift of up to ±0.01 % FS per °C, which compounds over long periods.
3. Using Cheap “Generic” Load Cells
Cheap alternatives often use foil‑type gauges with sub‑standard adhesive and lack proper overload protection. They may appear attractive price‑wise but usually fail prematurey under cyclic loading, causing non‑linear output and costly downtime.
When cheaper options fail: In high‑cycle applications (≥ 10 000 cycles), such cells develop micro‑cracks, leading to sudden zero‑shift.
4. Incorrect Wiring (4‑wire vs. 2‑wire)
A frequent error is connecting a 4‑wire ms104ts 00 to a 2‑wire input on a cheap signal conditioner. This causes excitation voltage drop across the load cell, distorting the output.
Fix: Use a dedicated instrumentation amplifier that supplies separate excitation and sense leads.
When NOT to Use the ms104ts 00
| Situation | Reason | Alternative Recommendation |
|---|---|---|
| Ultra‑low force (< 1 N) measurement | Sensitivity insufficient; resolution limited by 2 mV/V output. | Use a piezoelectric load cell or micro‑load cell (e.g., ms101ts 00) with higher sensitivity. |
| High‑speed dynamic impact testing (> 5 kHz) | Shear‑beam design has limited natural frequency (~2 kHz). | Choose a piezo‑electric or capacitive sensor with higher bandwidth. |
| Extreme temperatures (> 150 °C) | Stainless‑steel housing may oxidise; strain gauges exceed rated temperature. | Select a high‑temperature load cell (e.g., ceramic‑based). |
| Space‑constrained mounting (< 30 mm depth) | Physical size may not fit. | Opt for a miniature S‑type load cell like ms102ts 00. |
Understanding these boundaries prevents costly retrofits and ensures the selected sensor aligns with the application’s physics.
Installation Checklist for ms104ts 00
Below is a numbered step‑by‑step process that guarantees a repeatable, error‑free installation.
Verify Mechanical Compatibility
- Confirm mounting flange dimensions (M10 × 1.5 mm, 4‑hole pattern).
- Ensure the mounting surface is flat (≤ 0.01 mm deviation).
Prepare the Mounting Surface
- Clean with isopropyl alcohol to remove oil or debris.
- Apply a thin layer of torque‑controlled lock‑nut (≥ 5 Nm) to avoid pre‑load.
Select Proper Wiring Harness
- Use a shielded 4‑wire cable (CW‑30AWG) to minimise EMI.
- Route cables away from high‑current conductors.
Connect Excitation Leads
- Attach +E to the positive excitation terminal, ‑E to the negative.
- Verify voltage polarity; reverse leads cause negative output.
Connect Signal Leads
- Connect +S and ‑S to the signal inputs of the amplifier or DAQ.
- Do NOT tie signal leads to ground directly.
Apply Power and Perform a Zero Check
- Power the amplifier with the specified excitation (10 V typical).
- With no load applied, read the output; it should be within ±5 µV of zero.
Load and Verify Linearity
- Apply known calibration weights (e.g., 0 %, 25 %, 50 %, 75 %, 100 % FS).
- Plot output vs. load; any deviation > 0.05 % FS indicates wiring or mounting error.
Secure Cabling and Seal Enclosure
- Use cable glands rated IP68 to maintain enclosure integrity.
- Apply silicone sealant at the mounting flange if the environment is wet.
Document Calibration
- Record all zero and span values in a calibration log (required for ISO‑9001).
Schedule Routine Verification
- Perform a quick zero check monthly; repeat full calibration annually or per OEM recommendation.
Following this checklist minimizes installation‑related drift and maximises the lifespan of your ms104ts 00 sensor.
Wiring Diagram & Signal Conditioning
Below is a simplified wiring diagram (textual representation) for a typical 4‑wire configuration:
+E —-> Excitation + (10 V) → Load Cell (Excitation +)
-E —-> Excitation – (0 V) → Load Cell (Excitation –)
+S —-> Signal + (from Bridge) → Instrumentation Amplifier (+)
-S —-> Signal – (from Bridge) → Instrumentation Amplifier (–)
Critical technical terms to note:
- Excitation voltage: Stable DC source; fluctuations cause output error.
- Instrumentation amplifier: Provides gain (typically 500–1000×) and common‑mode rejection.
Recommended amplifier: HX711 (24‑bit ADC) for lab setups, or NI 9234 for high‑speed multi‑channel acquisition.
Calibration & Optimisation
1. Perform a Two‑Point Calibration
| Step | Action |
|---|---|
| A | Apply zero load; record raw ADC count (Z). |
| B | Apply a calibrated full‑scale weight (e.g., 10 kN); record count (FS). |
| C | Compute scale factor: (FS – Z) / 10 kN = counts per newton. |
| D | Store Z and scale factor in the DAQ’s conversion algorithm. |
2. Temperature Compensation
- Use the bridge’s built‑in temperature sensor (if available) to apply a linear compensation curve.
- Alternatively, perform a temperature sweep calibration (e.g., –20 °C, 0 °C, 25 °C, 60 °C) and store coefficients.
3. Tare Function
- To zero out the weight of fixtures, enable the tare command on the signal conditioner after mounting but before live loading.
4. Optimising Signal‑to‑Noise Ratio
- Shield cables and ground the shield at the signal conditioner only.
- Use a low‑pass filter (cut‑off ~10 Hz for static weighing) to suppress high‑frequency noise.
- Keep excitation wires short (< 500 mm) to reduce line resistance.
Troubleshooting the ms104ts 00
| Symptom | Likely Cause | Diagnostic Step | Remedy |
|---|---|---|---|
| Zero drift > 0.5 % FS over 24 h | Temperature variation or poor wiring | Measure bridge voltage with a multimeter while varying ambient temperature. | Add temperature compensation or reroute cables away from heat sources. |
| Non‑linear output at > 80 % FS | Overload or plastic deformation | Inspect mechanical stops; verify that applied load never exceeds 150 % FS. | Replace damaged cell; install mechanical overload protector. |
| Noise spikes (±10 µV) | EMI from nearby motors | Enable an oscilloscope on signal leads; look for periodic spikes synchronized with motor PWM. | Add ferrite beads, increase cable shielding, or relocate amplifier. |
| No output (flat line) | Excitation supply failure | Measure voltage across excitation terminals. | Replace power supply or check fuse. |
| Reverse polarity reading | Signal leads swapped | Reverse +S and –S connections. | Re‑wire according to diagram. |
When troubleshooting, always consult the calibration certificate; a mismatch may indicate a factory‑issued deviation that needs to be accounted for in software.
Product Recommendations – Complementary Load Cells
Below are four load cells that pair well with the ms104ts 00 in multi‑sensor configurations or serve as alternatives when project constraints differ.
| Model | Capacity | Accuracy Class | Material | Application Fit | Approx. Price (AUD) | SKU | Why It’s Suitable | When It’s NOT Ideal | Better Alternative |
|---|---|---|---|---|---|---|---|---|---|
| ms104ts 00 | 0‑10 kN | ±0.02 % FS | AISI 304 SS | General industrial weighing, food & beverage | 380‑450 | SKU‑MS104-00 | Provides high accuracy, IP68, stainless for hygiene. | Low‑force (< 200 N) tasks where resolution suffers. | Use ms102ts 00 for < 2 kN. |
| ms108ts 00 | 0‑20 kN | ±0.03 % FS | AISI 316 SS | Heavy‑duty hopper load monitoring, mining. | 520‑580 | SKU‑MS108-00 | Double capacity, corrosion‑resistant 316 grade. | Requires higher excitation (12‑15 V). | Consider ms104ts 00 if you only need ≤ 10 kN. |
| ms102ts 00 | 0‑2 kN | ±0.02 % FS | Aluminum alloy | Light‑weight packaging, robotic gripper force feedback. | 210‑260 | SKU‑MS102-00 | Compact, lower cost, still meets ±0.02 % accuracy. | Not robust enough for harsh chemicals or sub‑mersion. | Use ms104ts 00 for harsh environments. |
| ms110ts 00 | 0‑50 kN | ±0.05 % FS | AISI 304 SS | Crane hook load cells, large‑scale bulk material weighing. | 950‑1 050 | SKU‑MS110-00 | High capacity, mechanical stops at 150 % FS. | Excessive for low‑force precision tasks. | Choose ms104ts 00 for precision under 10 kN. |
How to order: Visit the LoadCellShop Australia Shop page, search by SKU, or contact our expert team for a bulk quotation and 5 % discount on orders exceeding 10 units.
Comparison Table: ms104ts 00 vs. Common Alternatives
| Feature | ms104ts 00 | Generic “Cheap” Shear Beam (Unbranded) | Piezoelectric Load Sensor |
|---|---|---|---|
| Capacity Range | 0‑10 kN | 0‑10 kN (often lower overload rating) | Up to 5 kN (dynamic only) |
| Accuracy | ±0.02 % FS | ±0.2 % FS typical | ±0.1 % FS (dynamic) |
| Temperature Compensation | Full‑bridge, built‑in | Often 2‑wire, no compensation | Temperature‑sensitive, requires external correction |
| IP Rating | IP68 | Usually IP54 | IP40 |
| Overload Protection | 150 % FS mechanical stop | None or 110 % FS | |
| Cost (AUD) | 380‑450 | 120‑180 | 650‑800 |
| Best Use | Static industrial weighing | Low‑budget hobby projects | High‑speed impact testing |
The table demonstrates why the ms104ts 00 outperforms cheaper “generic” options in virtually every critical attribute while remaining far more cost‑effective than specialty dynamic sensors.
FAQs
Q1: Can I use the ms104ts 00 with a 24‑bit ADC like the HX711?
A: Absolutely. The HX711 provides the required gain (128× or 64×) and can be powered with the same 5 V excitation source, simplifying wiring.
Q2: How often should I recalibrate the load cell?
A: For ISO‑9001‑compliant environments, a full calibration annually is standard. However, a zero check before each shift is advisable for high‑precision applications.
Q3: Is the ms104ts 00 compatible with wireless weigh‑in‑motion (WIM) systems?
A: Yes, provided the wireless module can accept a 4‑wire analog input and supply the correct excitation voltage.
Q4: What is the warranty on a new ms104ts 00 from LoadCellShop Australia?
A: All new units come with a 2‑year manufacturer’s warranty covering material and workmanship. LoadCellShop offers an extended 3‑year warranty for bulk purchases.
Q5: Do you provide custom calibration services?
A: Yes. LoadCellShop Australia offers on‑site calibration and NIST‑traceable certification as part of the free consultation package.
Conclusion
The ms104ts 00 load cell delivers a compelling blend of high accuracy, robust construction, and environmental resilience, making it an ideal choice for a wide spectrum of Australian industries. By understanding how the sensor works, following a disciplined installation checklist, and applying systematic calibration and troubleshooting techniques, you can dramatically improve measurement reliability and reduce costly downtime.
Avoid the common traps of over‑specifying capacity, neglecting temperature effects, and choosing cheap alternatives that lack proper overload protection. When your application falls outside the ms104ts 00’s optimal operating envelope, consider the alternatives listed in our product table to ensure you always select the most appropriate sensor.
Ready to source genuine, calibrated ms104ts 00 units and get expert advice tailored to your project? LoadCellShop Australia is your one‑stop destination – we provide free consultations, 5 % off bulk orders, and custom load‑cell solutions on request.
Take the next step today:
- Contact our specialists: https://loadcellshop.com.au/our-contacts/
- Browse the full catalogue: https://loadcellshop.com.au/shop
Your precision measurement journey starts with the right load cell and the right partner. Let us help you achieve it.
LoadCellShop Australia (operated by Sands Industries)
Unit 27/191 Mccredie Road, Smithfield NSW 2164, Australia
Phone: +61 4415 9165 | +61 477 123 699
Email: sales@sandsindustries.com.au
Website: https://loadcellshop.com.au