Pocket Scale for Electronics Components: What Capacity and Resolution Do You Need?

Posted by AWS Team on Sep 16th 2026

A pocket scale for electronics components should be selected by balancing two specifications:

capacity and resolution.

Capacity tells you:

the maximum total physical load the scale is designed to support.

Resolution—also commonly called readability—tells you:

the smallest increment displayed by the scale.

For example:

500g × 0.01g

means the scale has:

500g maximum nominal capacity
0.01g displayed increments

Meanwhile:

50g × 0.001g

means:

50g maximum nominal capacity
0.001g displayed increments

The second scale displays measurements in finer increments.

But it has only:

one-tenth the capacity.

That tradeoff matters enormously when weighing electronics.

Electronic components can range from extremely lightweight:

SMD resistors
Capacitors
Diodes
LEDs
Transistors
ICs
Tiny screws

to substantially heavier:

Connectors
Relays
Motors
Heat sinks
Development boards
PCB assemblies
Component batches

For many general electronics applications:

500g × 0.01g

is an especially versatile pocket-scale configuration.

For extremely lightweight individual components:

20–100g × 0.001g

may provide more useful displayed detail.

The right choice depends on:

what you actually weigh.

Quick Answer: What Capacity and Resolution Do You Need?

Electronics Application	Capacity to Consider	Resolution/Readability to Consider
Tiny SMD components	20–100g	0.001g
Individual resistors	20–100g	0.001g
Small capacitors	20–100g	0.001g
Diodes	20–100g	0.001g
LEDs	20–100g	0.001–0.01g
Transistors	20–100g	0.001–0.01g
Small ICs	20–100g	0.001g
Larger ICs	100–500g	0.01g
Sensors	100–500g	0.01g
Connectors	100–500g	0.01g
Relays	100–500g	0.01g
Small heat sinks	500g	0.01g
Small PCB assemblies	500g	0.01g
Component batches	500g+	0.01–0.1g
Large PCB assemblies	500g+	0.01–0.1g

These are practical starting points rather than universal requirements.

Your actual application should determine the final specification.

What Does Capacity Mean on a Pocket Scale?

Capacity is:

the maximum physical load the weighing system is designed to support.

Common pocket-scale capacities include:

20g
30g
50g
100g
200g
500g

Higher-capacity scales are also available, but as capacity increases, the scale may become:

larger

and may no longer fit the traditional:

pocket-scale format.

What Does Resolution Mean on a Pocket Scale?

Resolution or readability describes:

the smallest increment shown on the display.

Examples:

0.1g

The display changes in:

one-tenth-of-a-gram increments.

0.01g

The display changes in:

one-hundredth-of-a-gram increments.

0.001g

The display changes in:

one-thousandth-of-a-gram increments.

Because:

0.001g = 1 milligram,

scales with 0.001g readability are commonly called:

milligram scales.

For a deeper explanation of capacity and readability, see AWS's guide to what 500g × 0.01g means on a digital scale.

Capacity vs. Resolution: The Core Tradeoff

Suppose you are comparing:

Scale A: 50g × 0.001g

and:

Scale B: 500g × 0.01g.

Scale A provides:

10× finer displayed increments.

Scale B provides:

10× greater maximum capacity.

Which is better?

Neither universally.

The answer depends on:

the electronics components you need to weigh.

Example: Tiny SMD Component

Suppose a component weighs approximately:

0.026g.

0.001g scale

may display:

0.026g.

0.01g scale

cannot provide the same displayed detail.

For this application:

fine readability may matter more than high capacity.

Example: PCB Assembly

Suppose a completed board weighs:

286.34g.

50g × 0.001g

scale cannot support it.

500g × 0.01g

scale can.

For this application:

capacity matters more than the additional decimal place.

20g × 0.001g Pocket Scales

20g × 0.001g

scale provides:

very fine readability

with:

very limited capacity.

This configuration can be appropriate for:

Tiny SMD components
Small resistors
Lightweight capacitors
Tiny diodes
Small screws
Lightweight ICs

The main limitation is:

capacity.

The Problem With 20g Capacity

Suppose:

Component = 8g

Tray = 13g

Total physical load:

21g

20g scale

cannot support the complete load.

Even though:

the component itself weighs only 8g.

50g × 0.001g Pocket Scales

50g × 0.001g

configuration offers:

milligram readability

with:

more practical capacity.

It can be useful for:

SMD components
Resistors
Capacitors
Diodes
LEDs
Transistors
ICs
Small connectors
Screws
Washers
Small component groups

For many fine electronics applications:

50g provides substantially more flexibility than:

20g.

50g Capacity Example

Suppose:

IC = 12g

Tray = 8g

Total:

20g

50g scale

provides:

30g of nominal remaining capacity.

That is far more comfortable than:

a 20g scale operating at its limit.

100g × 0.001g Pocket Scales

100g × 0.001g

configuration can provide an attractive middle ground.

You retain:

milligram readability

while gaining:

more capacity for containers, larger components and small batches.

This can be particularly useful for:

Larger IC packages
Connectors
Component groups
Small hardware batches
Heavier trays
Small modules

AWS includes 20g, 30g, 50g and 100g options among the 0.001g models compared in its Best Milligram Scales guide.

500g × 0.01g Pocket Scales

For general electronics work:

500g × 0.01g

is one of the most versatile pocket-scale specifications.

It provides enough capacity for many:

Connectors
Sensors
Relays
Switches
Small motors
Heat sinks
PCB assemblies
Hardware batches

while retaining:

hundredth-of-a-gram readability.

Why 500g Capacity Is Useful

Consider a mixed electronics workflow:

Resistor = 0.48g

IC = 4.25g

Connector = 16.38g

Sensor module = 24.72g

Relay = 38.46g

Heat sink = 92.35g

PCB assembly = 284.62g

500g scale

can support all of these examples.

50g scale

cannot.

Why 0.01g Is Often Enough

For an object weighing:

284.62g,

an additional decimal place usually provides much less practical value than:

sufficient capacity.

Likewise, a connector weighing:

18.47g

can already be documented with:

hundredth-of-a-gram displayed increments.

Do not automatically assume:

0.001g is better.

Resolution Is Not the Same as Accuracy

This is critical.

A scale displaying:

0.001g

does not automatically guarantee:

±0.001g accuracy.

Resolution/readability tells you:

the smallest displayed increment.

Measurement performance can also depend on:

Repeatability
Calibration
Linearity
Minimum usable load
Temperature
Airflow
Vibration
Load position
Electrical conditions

Do Not Choose by Decimal Places Alone

Compare:

50g × 0.001g

with:

500g × 0.01g.

The first scale has:

more displayed digits.

But if your object weighs:

175g,

those digits are irrelevant because:

the scale cannot support the object.

Always determine:

capacity first enough to support the load, then sufficient readability for the measurement.

Calculate Your Maximum Complete Load

Before buying a pocket scale, calculate:

component + tray + container + holder = total physical load.

Example:

PCB = 375g

Tray = 48g

Total:

423g

500g scale

can nominally support the load.

100g scale

cannot.

Tare Does Not Restore Capacity

Suppose:

Scale capacity = 50g

Tray = 15g.

Place the tray on the scale.

Display:

15.000g.

Press:

TARE.

Display:

0.000g.

You have not created:

another 50g of capacity.

The tray is still applying:

15g

of physical load.

Approximate remaining physical capacity:

35g.

Why Tare Matters for Electronics

Tare is still extremely useful.

Tiny electronic components can:

Roll
Slide
Fall
Become difficult to retrieve

A tray helps contain:

small parts.

Use tare to remove:

the tray's displayed mass.

Leave Capacity Headroom

Do not choose a pocket scale where your normal load constantly sits:

near maximum capacity.

Suppose:

Board = 440g

Tray = 42g

Total =

482g.

500g scale

technically provides enough nominal capacity.

But there is:

very little headroom.

If this represents your normal workload:

consider a higher-capacity scale.

Best Pocket Scale Capacity for SMD Components

For extremely lightweight SMD components:

20–100g

may be sufficient.

The more important specification may be:

0.001g readability.

However, consider:

tray weight

before choosing:

20g or 30g capacity.

Best Pocket Scale for Resistors

For individual lightweight resistors:

0.001g readability

may be useful.

Possible capacity:

20–100g.

For resistor batches:

higher capacity becomes more important.

Best Pocket Scale for Capacitors

Capacitors vary enormously.

For tiny individual capacitors:

20–100g × 0.001g

may be appropriate.

For larger capacitors or batches:

500g × 0.01g

may provide more useful flexibility.

Best Pocket Scale for Diodes

Tiny individual diodes can be:

well suited to milligram scales.

Consider:

50–100g × 0.001g

when you also need:

room for a tray.

Best Pocket Scale for LEDs

For tiny LEDs:

0.001g may be useful.

For:

larger LED modules,

0.01g may provide sufficient resolution with:

greater capacity.

Best Pocket Scale for Transistors

Small individual transistors may fit comfortably within:

50–100g capacity.

Choose:

0.001g

only when the additional displayed detail is:

actually useful.

Best Pocket Scale for ICs

Integrated circuits range from:

tiny surface-mount packages

to much larger devices.

For tiny ICs:

50–100g × 0.001g

may be useful.

For larger ICs and groups:

500g × 0.01g

provides more flexibility.

Best Pocket Scale for Sensors

Many complete sensor modules do not require:

milligram readability.

500g × 0.01g

scale provides substantial capacity while retaining:

fine displayed increments.

Best Pocket Scale for Connectors

Connectors can be:

significantly heavier than passive components.

For individual connectors and connector batches:

500g × 0.01g

is often more practical than:

a low-capacity milligram scale.

Best Pocket Scale for Relays

Relays generally do not require:

0.001g resolution.

Prioritize:

capacity, platform size and repeatability.

Best Pocket Scale for Small Heat Sinks

Heat sinks can quickly consume:

pocket-scale capacity.

500g × 0.01g

scale may work well for:

small heat sinks.

For larger cooling hardware:

use a higher-capacity scale.

Best Pocket Scale for Circuit Boards

For small PCB assemblies:

500g × 0.01g

is a practical starting point.

But check:

both weight and dimensions.

A board can be:

under 500g

while still being:

too large for the platform.

Platform Size Matters

Capacity answers:

Can the scale support the weight?

Platform size answers:

Can the object physically sit on the scale correctly?

Both matter.

Do Not Let the PCB Rest on the Workbench

Suppose:

half the PCB rests on the scale

and another section touches:

the table.

The scale is not supporting:

the complete physical load.

That can compromise:

the measurement.

Use an appropriate weighing arrangement where:

the entire load is supported.

A Practical AWS Pocket Scale for Electronics Components

For general electronics applications, the AWS SC501g Precision Digital Pocket Scale provides:

500g capacity × 0.01g readability.

Useful features include:

3.9 × 3.7-inch stainless-steel platform
Backlit LCD
Tare
Two expansion trays
Multiple weighing units
Compact design
Battery operation

This combination is particularly useful for:

Sensors
Connectors
Relays
Switches
ICs
Small heat sinks
Small PCB assemblies
Component batches
Electronics hardware

Why the SC501g Works as a General-Purpose Electronics Scale

Its biggest advantage is:

working range.

A 50g milligram scale may provide:

finer displayed increments.

But a 500g pocket scale can accommodate:

far more types of electronics components.

For a technician or hobbyist who wants:

one versatile compact scale,

500g × 0.01g is often a more practical specification.

When a Milligram Scale Is Better

Choose:

0.001g readability

when your actual work requires:

fine comparison of extremely lightweight components.

Examples:

SMD parts
Tiny resistors
Small capacitors
Tiny diodes
Small ICs
Miniature screws

For these applications:

20–100g capacity

may be sufficient.

When a Pocket Scale Is the Wrong Tool

Do not force a pocket scale into an application it was not designed to handle.

Choose a larger scale when:

Your PCB exceeds capacity.
Your board is too large for the platform.
Your electronics assembly exceeds 500g.
You weigh large battery packs.
You weigh large motors.
You weigh heavy heat sinks.
Your component batches exceed capacity.
Your normal load sits close to maximum capacity.

Pocket Scale vs. Bench Scale for Electronics

A pocket scale prioritizes:

Portability
Compact dimensions
Fine readability
Convenient storage

A larger bench scale generally provides:

Greater capacity
Larger platform
Better support for larger PCB assemblies
Better support for bulk inventory

Neither format is automatically:

better.

Choose according to:

the physical objects being weighed.

Should You Choose 0.001g or 0.01g?

Ask:

What is the smallest weight difference that matters to my application?

If you need to compare:

very lightweight individual components,

0.001g may be appropriate.

If you primarily weigh:

connectors, modules, PCBs and batches,

0.01g is often more practical.

0.001g vs. 0.01g Comparison

Feature	0.001g Scale	0.01g Scale
Display increment	1 mg	10 mg
Typical strength	Tiny components	General electronics
Typical capacity	Lower	Higher
SMD components	Excellent use case	May lack desired detail
ICs	Excellent for small ICs	Good for larger ICs
Connectors	Limited by capacity	Strong use case
PCB assemblies	Usually impractical	Stronger option
Batches	Limited	More practical
Environmental sensitivity	Greater concern	Less demanding
Portability	Often excellent	Excellent

Why Environment Matters More at 0.001g

As displayed increments become finer:

environmental influences become increasingly important.

Potential contributors include:

Airflow
Vibration
Temperature changes
Static
Off-center loading
Electrical noise
Indicator drift

For milligram work:

your weighing environment matters almost as much as:

the scale specification.

Avoid Direct Airflow

Do not place a milligram scale directly beside:

Cooling fan
HVAC vent
Open window
Bench fan

Air movement can contribute to:

unstable measurements.

Reduce Vibration

Electronics benches can contain:

Power tools
Cooling systems
Speakers
Motors
Test equipment

Use:

a rigid, stable weighing surface.

Consider Draft Protection

For extremely lightweight components:

draft protection can help create:

a more stable weighing environment.

This is particularly useful for:

0.001g measurements.

Consider Static

Electronics components may require:

ESD precautions.

Very lightweight weighing can also be affected by:

electrostatic effects.

Follow the appropriate:

ESD handling procedures

for your components.

Do not assume a standard pocket scale is automatically:

ESD-safe.

Calibration Matters

A scale's capacity and resolution do not eliminate the need for:

proper calibration.

Follow:

the calibration procedure for the exact scale model.

Use:

the specified reference mass.

Do not improvise with:

Coins
Batteries
Resistors
Connectors
Screws
Other electronics parts

as calibration standards.

NIST's guidance on balance and scale calibration and uncertainties emphasizes proper calibration procedures, appropriate reference standards and understanding potential measurement uncertainty.

Calibration Requirements Vary by Scale

20g milligram scale

may use a different calibration mass than:

a 500g pocket scale.

For example, the SC501g specifies:

500g calibration weight, not included.

Check the model specifications before purchasing so you know:

what calibration equipment is required.

Capacity and Resolution Do Not Determine Everything

When comparing pocket scales, also consider:

Repeatability
Minimum usable load
Platform dimensions
Tare
Expansion trays
Piece counting
Display visibility
Battery operation
Protective cover
Calibration procedure
Operating environment

Repeatability Matters

A scale with:

0.001g resolution

is less useful if the same component repeatedly produces:

widely different readings.

For fine electronics work:

repeatability matters.

Simple Repeatability Test

Weigh the same component several times.

Example:

1.247g
1.247g
1.248g
1.247g
1.247g

Compare:

the results.

For demanding measurement work, use procedures appropriate to:

your actual quality requirements.

Minimum Usable Load Matters

A scale displaying:

0.001g

does not automatically mean:

0.001g is an appropriate working load.

Where available:

review manufacturer specifications for:

Minimum load
Accuracy
Repeatability

especially when weighing:

extremely lightweight components.

Piece Counting for Electronics Components

Some scales can estimate:

piece quantity

from weight.

This can be useful for:

Screws
Washers
Resistors
Connectors
Similar small components

But the pieces should have:

reasonably consistent individual weights.

Capacity Matters for Piece Counting

Suppose:

one screw = 0.35g

500 screws ≈ 175g.

50g scale

cannot handle:

the entire batch.

500g scale

can provide:

far more useful capacity.

This illustrates why inventory applications often benefit from:

higher capacity.

One Pocket Scale or Two?

For many users:

one scale is enough.

If your workflow is primarily:

connectors, modules, small PCBs and component batches,

choose:

500g × 0.01g.

If your workflow is almost entirely:

tiny individual components,

consider:

50–100g × 0.001g.

When Two Scales Make Sense

Suppose your electronics work includes:

SMD component = 0.024g

Small IC = 1.85g

Sensor = 14.60g

Connector = 28.45g

Heat sink = 96.80g

PCB assembly = 345.25g

A practical setup is:

Fine Component Scale

50–100g × 0.001g

Use for:

SMD components
Resistors
Capacitors
Diodes
Tiny ICs
Small screws

General Electronics Pocket Scale

500g × 0.01g

Use for:

Sensors
Connectors
Relays
Heat sinks
PCB assemblies
Component batches

This gives you:

fine readability where it matters

without sacrificing:

capacity for larger components.

Capacity Selection Guide

Choose 20g When:

Everything you weigh is extremely lightweight.
You require 0.001g readability.
Your tray is extremely light.
You never approach 20g total load.

Choose 50g When:

You primarily weigh small components.
You require 0.001g.
You want more tray headroom than a 20g scale provides.

Choose 100g When:

You require 0.001g.
You weigh larger components or groups.
50g feels restrictive.

Choose 500g When:

You want one general-purpose electronics pocket scale.
You weigh connectors.
You weigh modules.
You weigh small heat sinks.
You weigh PCB assemblies.
You weigh component batches.
0.01g readability is sufficient.

Choose More Than 500g When:

Your boards are heavy.
You weigh battery packs.
You weigh larger motors.
You weigh large heat sinks.
You weigh bulk component inventory.
Your normal complete load exceeds 500g.

Pocket Scale Selection Examples

Example 1: SMD Repair Technician

Typical items:

0.02–5g.

Priority:

fine measurement.

Consider:

50g × 0.001g.

Example 2: General Electronics Hobbyist

Typical items:

1–350g.

Priority:

versatility.

Consider:

500g × 0.01g.

Example 3: Component Seller

Typical items:

individual parts plus batches.

Priority:

fine measurement + inventory.

Consider:

0.001g scale + higher-capacity scale.

Example 4: PCB Prototype Developer

Typical boards:

50–450g.

Priority:

prototype weight comparison.

Consider:

500g × 0.01g

provided the platform accommodates the board.

Example 5: Large Electronics Assemblies

Typical load:

500g–3kg.

Priority:

capacity.

A pocket scale is probably:

not the correct primary tool.

Use:

a higher-capacity bench scale.

Can Weight Identify an Electronics Component?

No.

Weight cannot independently determine:

Part number
Resistance
Capacitance
Voltage rating
Manufacturer
Function
Authenticity

Use:

markings, datasheets and appropriate testing.

Can Weight Determine Whether a Component Works?

No.

A component can have:

the expected mass

and still be:

electrically defective.

A scale complements:

electronics testing.

It does not replace it.

Can Weight Detect Counterfeit Electronics?

Not by itself.

Weight can provide:

one comparison characteristic.

Authentication may require:

additional inspection, documentation and specialized testing.

Commercial Weighing Considerations

If a scale is used only for:

internal electronics inventory, comparison or prototype work,

requirements differ from:

regulated commercial weighing.

NIST's 2026 Handbook 44 covers specifications, tolerances and other technical requirements used for many commercial weighing and measuring devices.

Do not assume:

a consumer pocket scale is automatically legal for trade.

Common Mistakes When Choosing an Electronics Pocket Scale

Buying the Scale With the Most Decimal Places

More decimal places do not automatically mean:

better for your application.

Ignoring Capacity

A scale that cannot support the object is:

the wrong scale.

Forgetting the Tray

Tray mass contributes to:

total physical load.

Assuming Tare Restores Capacity

It does not.

Choosing 20g When You Really Need 50g

Leave:

usable headroom.

Choosing 50g When You Weigh PCBs

Consider:

500g or more.

Buying 500g When Your Assemblies Weigh 800g

Choose:

higher capacity.

Ignoring Platform Size

Weight capacity does not guarantee:

physical fit.

Confusing Resolution With Accuracy

They are:

not interchangeable.

Ignoring Repeatability

Consistent measurements matter.

Ignoring Calibration

Follow:

the correct model procedure.

Ignoring Airflow

Milligram measurements can be affected by:

drafts.

Ignoring Vibration

Use:

a stable surface.

Assuming a Standard Scale Is ESD-Safe

Verify:

your actual ESD requirements.

Pocket Scale Buying Checklist for Electronics Components

Before buying, ask:

What components will I weigh?
What is my lightest meaningful component?
What is my heaviest individual component?
What is my heaviest PCB?
Will I weigh batches?
Do I need 0.001g resolution?
Would 0.01g be sufficient?
Do I need 20g capacity?
Would 50g provide better headroom?
Do I need 100g?
Would 500g be more versatile?
Do I need more than 500g?
What does my tray weigh?
What is my maximum complete load?
Have I left capacity headroom?
What is the platform size?
Will my PCB fit?
Does the scale have tare?
Do I understand that tare does not restore capacity?
Are trays included?
What calibration weight is required?
Is the calibration weight included?
What repeatability can I expect?
Is there a specified minimum load?
Is my workbench stable?
Is there direct airflow?
Is vibration present?
Would draft protection help?
Could static matter?
Does my workflow require ESD controls?
Do I need piece counting?
Are my components consistent enough for counting?
Do I need battery operation?
Do I need portability?
Will one scale cover my working range?
Would two scales be more practical?
Is a pocket scale actually the correct format?
Do I need a larger bench scale instead?

Frequently Asked Questions

What is the best pocket scale for electronics components?

For broad electronics use:

500g × 0.01g

is an excellent general-purpose specification.

For tiny individual components:

consider:

50–100g × 0.001g.

What capacity do I need for electronics components?

For tiny individual components:

20–100g may be sufficient.

For general electronics:

500g provides substantially greater versatility.

For heavy PCBs or assemblies:

choose more than 500g.

What resolution do I need?

For very lightweight components:

0.001g may be useful.

For general electronics:

0.01g is often sufficient.

Is 0.001g better than 0.01g?

Not automatically.

0.001g provides:

finer displayed increments.

0.01g scales often provide:

greater capacity.

What does 500g × 0.01g mean?

It means:

500g maximum nominal capacity

and:

0.01g displayed increments.

What does 50g × 0.001g mean?

It means:

50g maximum nominal capacity

and:

0.001g displayed increments.

Is 0.001g the same as accuracy?

No.

It describes:

resolution/readability.

Is 500g enough for circuit boards?

For many small PCBs:

yes.

But weigh or estimate:

your actual board.

Also check:

platform size.

What scale should I use for SMD components?

Consider:

50–100g × 0.001g

when milligram-level displayed increments are useful.

What scale should I use for resistors?

For individual lightweight resistors:

0.001g may be useful.

For batches:

higher capacity may matter more.

What scale should I use for ICs?

For tiny ICs:

0.001g may be useful.

For larger ICs and batches:

0.01g can be more practical.

What scale should I use for PCBs?

For small assembled PCBs:

500g × 0.01g

is a practical starting point.

Does a tray count toward capacity?

Yes.

The tray remains:

physical load.

Does tare give me more capacity?

No.

Tare changes:

the displayed zero.

Can I use a pocket scale for component counting?

Some scales provide:

piece-counting functionality.

The components should have:

consistent individual weights.

Why does my 0.001g scale fluctuate?

Possible contributors include:

Airflow
Vibration
Static
Temperature changes
Unstable surfaces
Off-center loading

Can a pocket scale identify components?

No.

Weight alone cannot determine:

electrical specifications or identity.

Should I buy one or two scales?

If your electronics work ranges from:

tiny SMD components

to:

300–500g PCB assemblies,

two scales can provide better coverage.

Final Verdict: What Capacity and Resolution Do You Need?

The best pocket scale for electronics components depends on two questions:

How light is the smallest component you need to measure meaningfully?

and:

How heavy is the largest complete load you need to support?

For extremely lightweight:

SMD components
Resistors
Capacitors
Diodes
Tiny ICs
Screws
Small hardware

consider:

50–100g × 0.001g

when milligram-level resolution is genuinely useful.

For broader electronics work involving:

Sensors
Connectors
Relays
Switches
Heat sinks
PCB assemblies
Component batches

consider:

500g × 0.01g.

For many users, 500g × 0.01g provides the strongest balance between:

fine readability and practical capacity.

The AWS SC501g is a strong general-purpose example, providing:

500g capacity
0.01g readability
3.9 × 3.7-inch platform
Stainless-steel weighing surface
Tare
Two expansion trays
Backlit LCD
Battery operation

For users working at both extremes, a practical two-scale setup is:

50–100g × 0.001g for tiny electronics components

plus:

500g × 0.01g for larger components and PCB assemblies.

If your normal load exceeds:

500g,

move beyond the pocket-scale format and choose:

a higher-capacity scale.

Whatever capacity you select, remember:

resolution is not automatically accuracy.

The tray counts toward:

total physical capacity.

Tare does not:

restore capacity.

Platform size matters in addition to:

weight capacity.

And at 0.001g readability, factors such as:

airflow, vibration, static, temperature and load placement

become increasingly important.

Choose the scale based on:

your real electronics workflow—not simply the highest number of decimal places.