Panasonic 240CSN Ceramic SMT Nozzle CM DT NPM N610119486AB

Panasonic 240CSN Ceramic SMT Nozzle CM DT NPM N610119486AB

The Panasonic 240CSN ceramic SMT nozzle, identified by part number N610119486AB, is designed for vacuum pickup, transportation, alignment, and placement of compatible surface-mount components. It is commonly used with selected CM, DT, and NPM pick-and-place machine configurations equipped with a suitable nozzle head.

The nozzle features a ceramic pickup tip with a nominal Ø2.4 mm outer diameter and Ø1.8 mm vacuum opening. This structure provides an appropriate contact area for selected medium-sized chip components, including typical 3216 and 4532 resistor or capacitor packages and compatible tantalum components.

Designed for production replacement, preventive maintenance, line refurbishment, and spare-parts inventory, the 240CSN nozzle helps manufacturers maintain stable pickup performance and reduce interruptions caused by worn, blocked, cracked, or incorrectly selected nozzles.

Final compatibility should always be confirmed according to the machine model, placement-head type, existing nozzle number, component dimensions, top-surface shape, and production parameters.

Product Identification

Key Product Benefits

Cause: Common SMT Problems Related to Nozzle Condition

A pick-and-place nozzle is a small component, but it directly affects pickup reliability, component stability, vision recognition, placement accuracy, and production continuity.

When the nozzle becomes worn, blocked, damaged, or unsuitable for the component, the machine may produce repeated errors even when other systems are functioning correctly.

1. Worn Pickup Surface

Continuous contact with components can gradually change the profile of the nozzle tip. Wear may reduce the available sealing surface and cause unstable vacuum pickup.

Typical results include:

• Increased component pickup failures.
• Components moving after pickup.
• Component rotation during head movement.
• Irregular placement positions.
• Higher retry frequency.
• Reduced production efficiency.

2. Blocked Vacuum Passage

Dust, adhesive residue, solder paste, packaging debris, and small component particles can enter the internal vacuum channel.

A partially blocked nozzle may still pick up some components, but the suction force can become inconsistent. This makes the fault difficult to identify during production.

3. Cracked Ceramic Tip

Ceramic tips provide excellent dimensional stability but can be damaged by impact, incorrect handling, machine collision, or excessive installation force.

Even a small crack can affect:

• Vacuum sealing.
• Contact balance.
• Component alignment.
• Pickup repeatability.
• Tip durability.
• Machine recognition.

4. Incorrect Nozzle Size

A nozzle that is too small may not provide sufficient contact area or vacuum holding force.

A nozzle that is too large may contact:

• Component terminals.
• Raised package structures.
• Nearby components.
• Tape pockets.
• Feeder surfaces.
• Sensitive optical areas.

Correct nozzle selection must consider more than the component length and width.

5. Incorrect Pickup Position

A suitable nozzle can still perform poorly when the programmed pickup position is not centered on a stable component surface.

Off-center pickup may cause:

• Component tilting.
• Rotation during movement.
• Vision correction errors.
• Placement offset.
• Component drops.
• Package damage.

6. Improper Vacuum Settings

Insufficient vacuum may allow components to fall during movement.

Excessive vacuum may make component release slower or increase the risk of picking multiple thin parts from unsuitable packaging.

7. Incorrect Placement Height

If the pickup height is too low, the nozzle may press excessively against the component or feeder pocket.

If the pickup height is too high, the nozzle may not create a complete seal with the component surface.

8. Poor Feeder Condition

Pickup problems are not always caused by the nozzle. A worn feeder, incorrect tape position, unstable component pocket, or cover-tape problem can create similar symptoms.

The nozzle, feeder, vacuum system, head calibration, vision settings, and program should therefore be inspected together.

Common Production Symptoms and Possible Causes

Solution: Use the Correct 240CSN Nozzle

Installing the correct 240CSN nozzle can help restore the intended pickup interface between the placement head and compatible components.

The ceramic tip provides a controlled contact surface, while the Ø1.8 mm vacuum opening allows negative pressure to hold the component during transfer.

When correctly selected and installed, the nozzle can help improve:

Pickup Stability

A suitable pickup surface creates more consistent contact between the nozzle and component.

Component Holding

Stable vacuum flow helps keep the component securely attached during acceleration, rotation, vision inspection, and movement toward the PCB.

Placement Repeatability

Consistent pickup position and component orientation help the machine apply accurate placement corrections.

Production Continuity

Replacing a worn or cracked nozzle can reduce recurring pickup alarms, manual intervention, and production stops.

Maintenance Efficiency

The clearly identified 240CSN model and N610119486AB part number simplify purchasing and spare-parts management.

Component Protection

The correct nozzle size can reduce unnecessary contact with component terminals or sensitive package structures.

Expected Operational Improvements

The final result depends on the complete production process. A new nozzle cannot independently correct feeder damage, head calibration errors, vacuum-system faults, incorrect programming, or unsuitable component packaging.

Specifications

Nozzle Code Explanation

The model designation helps buyers understand the basic nozzle configuration.

The nozzle code should not be used as the only compatibility standard. Customers should also check the existing nozzle, machine model, head type, component package, and physical dimensions.

Same-Series Nozzle Comparison

This comparison is intended for preliminary reference. The correct model depends on the component top surface, weight, height, package geometry, pickup center, machine program, and head configuration.

240CSN and Similar 240-Series Models

These models may look similar but should not be assumed to be interchangeable.

Always verify:

• Complete nozzle marking.
• Original part number.
• Overall nozzle length.
• Mounting structure.
• Flange design.
• Recognition mark.
• Tip geometry.
• Machine-head specification.

Application

The Panasonic 240CSN nozzle is used in automatic SMT assembly processes requiring stable vacuum pickup and accurate placement of compatible electronic components.

Consumer Electronics

Suitable production environments may include:

• Smart-home control boards.
• Audio and video products.
• Household appliance controllers.
• Display modules.
• Portable electronic devices.
• Power adapters and chargers.

Automotive Electronics

Potential applications include:

• Vehicle control modules.
• Lighting control boards.
• Sensor assemblies.
• Power-management modules.
• Communication units.
• Dashboard electronics.

Industrial Electronics

The nozzle may be applied in production involving:

• Programmable controllers.
• Industrial power supplies.
• Motor-control boards.
• Automation equipment.
• Monitoring systems.
• Communication interfaces.

Communication Products

Compatible component placement may be required for:

• Network equipment.
• Wireless modules.
• Signal-processing boards.
• Communication terminals.
• Data-transmission equipment.
• Antenna-control systems.

Lighting Electronics

The nozzle can support compatible component placement for:

• LED driver boards.
• Lighting controllers.
• Power-conversion circuits.
• Smart-lighting modules.
• Industrial lighting assemblies.

Medical and Laboratory Electronics

Where component and process requirements are suitable, applications may include:

• Monitoring equipment.
• Laboratory instruments.
• Diagnostic electronics.
• Control modules.
• Portable electronic devices.

Typical Usage Scenarios

How It Works

Step 1: Nozzle Installation

The 240CSN nozzle is installed into a compatible nozzle station or placement-head interface.

The mounting area must be clean, undamaged, and free from loose particles.

Step 2: Machine Recognition

The machine confirms the nozzle type through the applicable recognition method and production program.

Incorrect nozzle identification may result in an alarm or inappropriate component handling.

Step 3: Pickup Positioning

The placement head moves above the feeder pocket containing the programmed component.

The machine aligns the nozzle with the defined pickup coordinates.

Step 4: Nozzle Contact

The ceramic tip approaches the component surface.

Correct pickup height allows the nozzle to create suitable contact without applying excessive pressure.

Step 5: Vacuum Activation

Negative pressure is applied through the Ø1.8 mm vacuum opening.

The component is held against the nozzle tip.

Step 6: Component Lifting

The placement head lifts the component from the tape pocket, tray, stick feeder, or other feeding system.

Step 7: Vision Inspection

The machine vision system checks component position, rotation, and orientation.

The placement program calculates the required correction.

Step 8: Component Transfer

The head transports the component toward the programmed PCB location.

The nozzle must maintain stable suction during movement and rotation.

Step 9: PCB Placement

The placement head lowers the component onto the solder paste or specified board position.

Controlled placement force helps prevent component or PCB damage.

Step 10: Vacuum Release

The machine stops the vacuum and releases the component.

The nozzle then returns for the next placement cycle.

Working Process Table

How to Choose the Correct Nozzle

1. Confirm the Machine Model

Provide the complete machine designation.

Examples may include:

• CM402.
• CM602.
• NPM series.
• DT series.
• Other compatible configurations.

The machine family alone may not be sufficient because different heads can be installed on the same platform.

2. Confirm the Placement-Head Type

The placement head determines:

• Nozzle mounting interface.
• Nozzle length.
• Recognition method.
• Supported component size.
• Maximum component weight.
• Vacuum capacity.
• Placement speed.

A 240CSN nozzle should only be ordered after confirming head compatibility.

3. Check the Existing Nozzle Marking

Provide clear photographs showing:

• Full nozzle body.
• Ceramic pickup tip.
• Flange.
• Recognition mark.
• Printed model.
• Part-number label.
• Installation interface.

4. Provide Component Dimensions

The following data should be included:

5. Examine the Component Surface

The nozzle tip should contact a stable area.

Avoid selecting a nozzle that touches:

• Exposed terminals.
• Raised labels.
• Optical lenses.
• Open holes.
• Fragile covers.
• Uneven molded surfaces.
• Sensitive electrical structures.

6. Confirm the Required Pickup Area

The Ø2.4 mm contact profile should fit within the stable top surface of the component.

The nozzle must not extend beyond the component body or contact adjacent packaging structures.

7. Evaluate Component Weight

Heavier components require sufficient vacuum holding force and stable contact area.

Component acceleration and machine speed should also be considered.

8. Review Production Speed

High-speed placement creates greater acceleration forces.

A nozzle that works during manual testing may still become unstable at full production speed.

9. Confirm Recognition Requirements

The “N” designation is associated with a recognition configuration used by compatible NPM systems.

Check whether the machine requires the corresponding nozzle recognition feature.

10. Conduct a Trial Test

For a new application, begin with:

• Low-speed pickup.
• Manual component check.
• Vision-recognition confirmation.
• Placement-position inspection.
• Vacuum stability monitoring.
• Gradual speed increase.

Information Required Before Quotation

Complete information allows faster compatibility review and reduces the risk of receiving an unsuitable nozzle.

Quality Control

Model Verification

The nozzle model and part number should be checked against the purchase order.

Appearance Inspection

The nozzle should be inspected for:

• Cracks.
• Deformation.
• Contamination.
• Heavy scratches.
• Impact damage.
• Missing identification.
• Abnormal wear.

Ceramic Tip Inspection

The ceramic pickup tip should have:

• A complete contact surface.
• No visible chips.
• No major edge damage.
• No adhesive contamination.
• No blocked opening.

Vacuum Passage Inspection

The internal channel should allow clean airflow.

A blocked passage can significantly reduce pickup performance.

Mounting Structure Inspection

The installation area should match the confirmed head configuration.

Quantity Inspection

The packed quantity should match the purchase order and packing list.

Packaging Inspection

Each nozzle should be protected against:

• Impact.
• Dust.
• Moisture.
• Tip-to-tip contact.
• Transportation vibration.

Pre-Shipment Inspection Table

Installation Recommendations

1. Stop the machine according to the approved maintenance procedure.
2. Move the placement head into a safe maintenance position.
3. Remove the existing nozzle using the correct handling method.
4. Inspect the nozzle station for dust or broken material.
5. Clean the mounting area with an approved maintenance tool.
6. Avoid touching the ceramic tip with bare fingers.
7. Install the 240CSN nozzle without excessive force.
8. Confirm that the nozzle is correctly seated.
9. Check machine recognition.
10. Perform a low-speed pickup test.
11. Verify vision alignment and component release.
12. Resume full-speed production only after stable testing.

Maintenance Recommendations

Daily Visual Inspection

Check the nozzle tip for visible contamination, cracks, and abnormal wear.

Regular Cleaning

Use an approved SMT nozzle-cleaning method.

Do not insert hard metal objects into the ceramic opening.

Vacuum Performance Check

Monitor pickup error trends and vacuum performance.

A gradual increase in errors may indicate a partially blocked nozzle.

Collision Inspection

Remove and inspect the nozzle immediately after a head collision or abnormal machine stop.

Proper Storage

Place nozzles in individual compartments.

Avoid allowing ceramic tips to contact one another.

Maintenance Records

Record:

• Nozzle model.
• Part number.
• Installation date.
• Machine line.
• Head position.
• Cleaning date.
• Fault history.
• Replacement reason.

Recommended Maintenance Schedule

Actual maintenance intervals depend on production volume, workshop cleanliness, component material, feeder condition, and machine speed.

Packaging

Special labels, inspection records, or customized packing can be discussed before order confirmation.

Purchasing Advantages

Clear Product Data

The 240CSN model and N610119486AB part number are clearly stated for easier sourcing.

Compatibility Assistance

Machine, head, component, and existing nozzle information can be reviewed before order confirmation.

Flexible Quantity

Trial orders, maintenance quantities, and production-volume purchases can be discussed.

Protective Export Packaging

Individual protection helps reduce ceramic-tip damage during international transportation.

Pre-Shipment Checking

Product model, appearance, tip condition, vacuum passage, and quantity can be checked before dispatch.

Suitable for Multiple Buyer Types

This product is suitable for:

• SMT factories.
• Electronics manufacturers.
• EMS companies.
• Machine maintenance teams.
• Equipment refurbishers.
• Spare-parts distributors.
• Overseas trading companies.
• Technical service providers.

FAQ

Q1: What is the primary part number for the Panasonic 240CSN nozzle?

The primary part number is N610119486AB. Buyers should confirm the existing nozzle marking, machine model, head type, and physical structure before placing an order because similar 240-series nozzle models are not automatically interchangeable.

Q2: Which machines can use the 240CSN nozzle?

The nozzle is commonly associated with selected CM, DT, and NPM pick-and-place machine configurations. Compatibility depends on the installed placement head, nozzle interface, recognition system, and machine program rather than only the machine-family name.

Q3: Which components can the 240CSN nozzle pick up?

Typical application references include 3216 and 4532 resistor or capacitor packages and compatible tantalum components. Actual suitability depends on component dimensions, weight, height, top-surface shape, pickup center, vacuum settings, and production speed.

Q4: Why does a new nozzle still produce pickup errors?

The problem may be related to feeder position, component packaging, vacuum supply, head calibration, pickup height, vision settings, machine programming, or an incorrect nozzle selection. The complete pickup process should be inspected before replacing additional parts.

Q5: What information is required for an accurate quotation?

Please provide the nozzle model, part number, complete machine model, placement-head type, existing nozzle photographs, component dimensions, component package, required quantity, delivery destination, requested condition, and any special inspection or packaging requirements.

Contact Us

Contact us for product availability, quotation, lead time, compatibility review, inspection requirements, and international delivery arrangements.

To receive a faster and more accurate offer, please include:

• Product model: 240CSN.
• Part number: N610119486AB.
• Complete machine model.
• Placement-head type.
• Existing nozzle photographs.
• Component name and package.
• Component dimensions.
• Required quantity.
• Delivery country.
• Requested delivery date.
• Required product condition.
• Special packaging or inspection requirements.

We support trial orders, regular maintenance requirements, production-line spare-parts purchasing, and distributor quantity inquiries.