Shipping and Packing for Street Lighting Projects: How to Reduce Missing Parts and Damage Claims

Shipping damage is not the only delivery risk in a street lighting project. A shipment may arrive with intact cartons but still delay installation because brackets are mixed, fasteners are missing, packages cannot be matched to the BOQ, or spare parts are not clearly separated from the contracted quantity.

Reliable delivery depends on traceability as much as physical protection. Every luminaire, pole, solar module, battery, bracket, fastener kit and spare part should be connected from the approved BOQ and final BOM to a Package ID, packing list, container record and destination receiving check.

For an EPC contractor, municipality or project procurement team, shipment approval should answer five questions:

Was the approved configuration packed?
Were all system components counted?
Can each package be identified at the destination?
Was the cargo loaded and secured appropriately?
Is there enough evidence to investigate a shortage or damage claim?

Strong cartons matter, but they are only one part of project delivery control.

Why Do Street Lighting Projects Fail After Products Leave the Factory?

Street lighting deliveries usually fail for one of three reasons: physical damage, missing or mixed components, or insufficient records. Packaging materials can reduce physical damage, but only a controlled packing and documentation process can address all three risks.

A street lighting system is rarely shipped as one complete assembly. Depending on the project, one installed lighting point may require:

LED luminaire;
lighting pole;
mounting arm or bracket;
solar module;
LiFePO₄ battery or battery box;
solar charge controller;
cables and connectors;
foundation bolts and positioning template;
fasteners;
remote control or commissioning accessories;
installation documents.

This creates a different risk profile from shipping a single consumer product.

A container may include the correct number of luminaires and poles while the system remains incomplete. For example, 500 luminaires and 500 poles may be present, but installation can still stop if the correct brackets, anchor bolt templates or fastener kits cannot be located.

Delivery risk	Typical project consequence
Physical damage	Broken solar-module glass, scratched galvanized surfaces, dented poles, cracked lenses or deformed brackets
Quantity shortage	Missing fasteners, connectors, foundation bolts, controllers or installation accessories
Configuration error	Wrong bracket size, mixed optical distributions, unmatched battery/controller combinations or incorrect pole arrangement
Identification failure	The site team cannot determine which package belongs to which road, zone or system type
Documentation failure	The buyer cannot establish what was packed, where it was loaded or when damage occurred

Packaging should therefore be treated as the final traceability stage of production—not as a separate warehouse activity completed after manufacturing.

What Must Be Frozen Before Packing Starts?

Packing should not begin until the approved project configuration, quantities, drawings, spare-parts scope and document revisions have been frozen. Otherwise, the warehouse may pack the correct quantity of the wrong configuration.

The packing team should work from controlled project documents rather than an informal sales summary or an outdated quotation.

At minimum, the following inputs should be confirmed:

final purchase order or contract quantity;
approved BOQ;
final product models;
approved BOM or system composition;
latest drawing revision;
luminaire power and optical distribution;
pole height, arm length and arm arrangement;
solar-module and battery configuration;
controller model and operating program;
mounting-interface dimensions;
cable and connector requirements;
foundation bolt and template requirements;
installation-zone or road-section grouping;
approved spare-parts list;
shipping method and destination;
applicable Incoterm;
customer-specific labeling requirements.

A quantity change must flow through every related document.

If an order changes from 500 to 520 systems, updating the commercial invoice is not enough. The BOQ, packing breakdown, spare-parts schedule, Package ID range, container allocation, loading plan and inspection records may also require revision.

A practical document chain is:

Approved BOQ
→ Final Product Configuration
→ Final BOM
→ Packing Breakdown
→ Package ID Schedule
→ Container Allocation
→ Loading Record
→ Destination Receiving Record

If these documents use different revisions, the total package count may appear correct while the actual shipment is incomplete.

How Should the Packing List Connect to the BOQ and BOM?

A project packing list should not show only the total number of systems. It should identify what is inside each package and connect that package to the approved BOQ, final BOM and applicable container.

A commercial invoice explains the commercial transaction. A project packing list should explain the physical shipment.

For a street lighting project, useful packing-list fields include:

Field	Why it matters
Project or PO reference	Connects the shipment to the contract
Packing-list revision	Prevents the use of an obsolete version
Package ID	Uniquely identifies each carton, crate, pallet or bundle
BOQ/BOM reference	Links the package to the approved system configuration
Product model	Distinguishes similar-looking products
Component description	Explains exactly what the package contains
Quantity per package	Supports opening and receiving checks
Total package count	Allows reconciliation at dispatch and destination
Package type	Identifies carton, crate, pallet or pole bundle
Net and gross weight	Supports transport and receiving control
Dimensions and volume	Supports container and warehouse planning
Container number	Shows where the package was loaded
Installation zone or lot	Supports phased site distribution
Spare-parts status	Separates spares from contracted installation quantities
Handling instructions	Communicates lifting, stacking and moisture restrictions

For multi-container shipments, the supplier should also prepare a Container Allocation List.

This record should answer questions such as:

Which container contains the luminaires for Zone A?
Where are the foundation bolts?
Which container contains the spare controllers?
Are all components required for the first installation phase in the same shipment?
Can installation begin if one container is delayed?

A single total packing list may be insufficient when products are divided across several containers or shipping lots.

What Should Every Package Label Show?

Every transport package should have a unique, readable identity that matches the packing list. A label that shows only a product name or customer name is not enough for a multi-component street lighting project.

A practical Package ID should remain unique throughout packing, loading, receiving and claim handling.

An example label structure is:

Project: ABC Municipal Road Lighting
Package ID: SL-A-CT02-018
Container: TCLU1234567
Installation Group: Zone A
Contents: 10 × 80 W LED Luminaires
Model: EPLUS-SA-80W
BOQ Reference: Item 3.2
Gross Weight: 186 kg
Dimensions: 1120 × 680 × 740 mm
Handling: Keep Dry / Do Not Stack

The exact format can be adapted to the customer’s procurement or warehouse system. The important point is that each package can be uniquely identified.

For larger projects, labels may also include:

barcode or QR code;
serial or batch range;
road section;
pole number range;
warehouse destination;
installation phase;
inspection status;
packing date.

The GS1 Serial Shipping Container Code, or SSCC, is one possible method for uniquely identifying logistics units. However, not every project needs a formal GS1 implementation. A controlled internal Package ID can be sufficient if it is unique, readable and consistently connected to the packing documents.

Avoid these common label problems:

using the same package number on multiple cartons;
giving different products nearly identical labels;
printing labels too small for warehouse handling;
placing labels where straps or wrapping cover them;
using internal model codes that the buyer cannot understand;
changing the label format without updating the packing list;
failing to identify approved spare parts separately.

How Should Different Street Lighting Components Be Protected?

Street lighting components have different damage modes. Luminaires, poles, solar modules, batteries and small accessories should not be treated as if one generic “export carton” can protect every part.

LED luminaires

Typical risks include:

lens or glass breakage;
housing scratches;
bent mounting interfaces;
damage caused by movement inside the carton;
wrong power or optical model being mixed with another batch.

The packing method should provide:

suitable internal positioning;
edge and surface protection;
protection around the mounting opening;
separation between fixtures;
readable model and quantity labels;
distinction between different wattages or optical distributions.

A carton can remain externally intact while the luminaire moves inside it. Internal restraint therefore matters as much as outer-carton strength.

Lighting poles

Light poles are long, heavy and difficult to handle. Their main risks include:

scratches to galvanized or coated surfaces;
impact damage around the flange;
damaged anchor-bolt openings;
thread damage;
deformation caused by poor lifting;
uncontrolled rolling during transport or unloading.

The packing and loading plan should consider:

separation between pole surfaces;
protection of flanges and exposed threads;
suitable lifting points;
protection from chains, forklift tines and sharp metal edges;
blocking or restraint against rolling;
safe bundle size and weight;
unloading equipment available at the destination.

Wrapping a pole does not automatically make it safe. The bundle must also remain stable during lifting, inland transport and container movement.

Solar modules

Solar modules are vulnerable to:

glass impact;
edge loading;
frame deformation;
connector and cable damage;
excessive pressure from other cargo.

They should not be placed where pole bundles, battery packages or other heavy components can transfer concentrated loads onto the module packaging.

Protection should address:

panel-face and edge protection;
rigid package support;
prevention of package collapse;
separation from heavy cargo;
orientation and stacking limits;
connector and cable protection.

LiFePO₄ batteries

Battery packaging must control both physical damage and transport-safety risks.

Depending on the battery configuration and transport mode, the review may include:

terminal insulation;
protection against short circuits;
prevention of movement inside the package;
protection against crushing and puncture;
correct battery model identification;
applicable marks and labels;
consistency between the battery and transport documents.

LiFePO₄ chemistry does not remove lithium-battery transport obligations.

Brackets and mounting arms

Brackets can be physically strong but still create project delays when:

different diameters are mixed;
single-arm and double-arm configurations are not separated;
hole patterns are not identified;
the bracket does not match the approved pole or luminaire interface.

They should be grouped by confirmed configuration rather than packed as undifferentiated metal accessories.

Foundation bolts and templates

Foundation hardware should be treated as an installation system, not loose steel.

A foundation kit may include:

anchor bolts;
nuts;
washers;
positioning template;
reinforcement or connecting pieces where applicable;
installation drawing.

Each kit should match the approved base-plate geometry and foundation drawing.

Threads should be protected from impact and contamination. Templates for different pole types must not be mixed.

Why Should Small Parts Be Kit-Packed?

Small parts should be packed as counted installation kits whenever practical. This allows the receiving and installation teams to verify complete lighting points instead of counting thousands of loose bolts, washers and connectors.

Small accessories are inexpensive compared with luminaires and poles, but they are among the most common causes of site delays.

Examples include:

bolts, nuts and washers;
cable connectors;
terminals;
fuses;
cable glands;
wiring assemblies;
remote controls;
mounting fasteners;
installation-specific tools or accessories.

Avoid packing these as one unidentified bulk bag.

A better structure is:

Installation Kit A
Applicable system: 80 W split solar street light
Quantity covered: 1 lighting point

Contents:
4 × mounting bolts
4 × nuts
8 × washers
2 × cable connectors
1 × cable gland
1 × wiring identification label

For large projects, several individual installation kits may be placed inside a master carton. The master carton should state:

number of kits;
system type;
installation group;
total contents;
Package ID;
applicable BOQ or BOM reference.

Kit-packing does not eliminate inspection. The warehouse should still verify sample kits or apply the agreed inspection plan before shipment.

How Should a Multi-Container Loading Plan Be Controlled?

A multi-container shipment should be planned by installation sequence, cargo characteristics and recovery risk—not only by maximizing container utilization. The objective is to avoid damage and prevent one delayed container from stopping the entire installation program.

Before loading, the project team should decide:

which products will be loaded in each container;
whether all parts for one road section should travel together;
whether high-value or critical components should be distributed across containers;
how heavy and fragile packages will be separated;
how cargo movement will be controlled;
what unloading equipment is required;
which packages must be accessible first.

Installation sequence

If the project will be installed in phases, package and container allocation should support those phases.

For example:

Container 1: Zone A poles and anchor-bolt kits
Container 2: Zone A luminaires, solar modules and batteries
Container 3: Zone B poles and installation hardware
Container 4: Zone B electrical components and approved spares

However, this arrangement also creates a dependency: if Container 2 is delayed, Zone A cannot be completed.

An alternative may be to load complete zone-based systems in each container. The correct approach depends on:

package dimensions;
weight distribution;
customs arrangement;
installation schedule;
risk of shipping delays;
available site storage;
unloading equipment.

Weight distribution

Container loading must consider weight as well as volume.

Heavy items such as pole bundles and battery packages should be positioned so that:

container floor limits are respected;
weight is not excessively concentrated;
axle and transport constraints are considered;
fragile cargo is not exposed to heavy loads;
cargo does not become unstable during handling.

The IMO/ILO/UNECE CTU Code provides guidance on packing and securing cargo transport units throughout the intermodal transport chain.

Verified gross mass

The container’s verified gross mass, or VGM, is a separate control from the project packing list.

Under SOLAS requirements, the shipper must provide a verified gross mass before a packed container is loaded onto a ship. Verification may be completed by weighing the packed container or by calculating the total from all packages, cargo, pallets, dunnage, securing materials and container tare mass through an approved method.

However:

a correct VGM does not prove that the correct models were packed;
it does not show which package contains which components;
it cannot replace the Package ID schedule;
it cannot identify a short quantity inside one carton.

VGM supports transport safety. The packing list and traceability records support project delivery accuracy. Both may be required, but they serve different purposes.

More information is available in the IMO guidance on verified gross mass.

What Should Be Recorded During Container Loading?

Loading evidence should show identifiable packages, container allocation and final securing conditions. General photographs of workers standing beside a container do not prove what was loaded.

A useful loading record may include:

empty-container condition;
container number;
internal floor, walls, roof and doors;
evidence that the container is reasonably clean and dry;
staged packages before loading;
visible Package IDs;
loading sequence;
separation of heavy and fragile cargo;
blocking, bracing or restraint;
final cargo position;
closed container doors;
seal number;
final package count by container.

The photographs should allow the buyer to answer:

Was Package LUM-A-018 loaded?
Which container contained the spare controllers?
Were the solar-module crates intact before the doors closed?
Did the final package count match the packing list?
Was movement inside the container controlled?
What was the visible securing condition at dispatch?

A loading video can supplement the record, but it should not replace identifiable still photographs and a controlled package count.

Photographs should preserve the information needed for verification without exposing confidential prices, unrelated customer information or sensitive documents.

What Changes When Lithium Batteries Are Included?

When lithium batteries are included, the shipment must be reviewed against the exact battery configuration and transport mode. UN38.3 alone does not complete the packaging, marking, labeling, documentation or carrier-acceptance requirements.

The project team should confirm:

exact cell, battery or battery-pack model;
rated capacity and energy;
whether batteries are shipped separately;
whether they are packed with equipment;
whether they are contained in equipment;
protection against short circuit;
terminal insulation;
prevention of movement inside the package;
battery condition;
applicable state-of-charge requirements;
transport marks and labels;
applicable shipping documents;
carrier and route requirements;
consistency between the shipped battery and its documents.

The IATA lithium battery guidance explains that lithium cell and battery types must pass the applicable tests in Subsection 38.3 of the UN Manual of Tests and Criteria for transport.

However, air and sea transport are governed by different operational requirements. IATA guidance should not be used as a substitute for the rules applicable to a maritime shipment.

Before dispatch, the booking party should confirm current requirements with a qualified freight forwarder, dangerous-goods specialist, carrier and other responsible parties.

A UN38.3 test summary and safety data information also serve different purposes. Neither document should be presented as a general certificate proving product performance, lifetime or project quality.

Does Wood Packaging Need ISPM 15 Treatment and Marking?

When regulated raw-wood pallets, crates or dunnage are used in international shipping, the applicable ISPM 15 treatment and marking requirements should be confirmed before dispatch. Not every processed wood product falls within the same scope.

The International Plant Protection Convention’s ISPM 15 standard covers phytosanitary measures for applicable wood packaging material made from raw wood, including dunnage. Certain processed wood materials that present a sufficiently low pest risk, such as some plywood products, may be excluded.

The shipping review should identify:

the actual wood material used;
whether it falls within the regulated scope;
destination-country requirements;
whether the required treatment was completed;
whether the applicable mark is valid and visible;
whether dunnage added during loading also requires compliance.

Two different questions must not be confused:

Has the wood packaging received the required phytosanitary treatment?
Is the crate structurally suitable for the cargo?

An ISPM 15 mark does not prove that a crate is strong enough to protect a solar module, battery assembly or other heavy component.

How Should Project Spare Parts Be Planned?

Spare parts should be selected according to installation risk, recovery needs, replacement lead time and local maintenance capability. Applying one fixed spare percentage to every component can create both shortages and unnecessary cost.

A practical spare-parts plan can be divided into three groups.

Installation consumables and easily lost items

These may include:

bolts, nuts and washers;
cable connectors;
fuses;
terminals;
cable glands;
small wiring assemblies;
installation-specific consumables.

These items are relatively inexpensive, but a shortage may stop an installation team.

Rapid-recovery spares

These are components that the local maintenance team can replace to restore operation, such as:

controllers;
remote controls;
replaceable driver modules;
approved wiring assemblies;
sensors;
communication modules;
applicable protective devices.

The list must match the final product architecture. A sealed all-in-one luminaire may have different field-replacement options from a split solar street lighting system.

Long-lead strategic spares

Depending on the project, these may include:

complete luminaires;
matching solar modules;
battery assemblies;
custom brackets;
project-specific optical components;
special control components.

The appropriate quantity depends on:

project size;
site remoteness;
replacement lead time;
local maintenance capacity;
warranty procedure;
storage conditions;
component replacement method;
expected service strategy.

There is no universal “best” spare-parts percentage.

A project with 500 systems might document quantities as:

Contract quantity: 500 complete systems
Approved spare luminaires: 5 units
Approved spare controllers: 10 units
Installation fastener allowance: separately listed

Spare parts should be shown as separate commercial and physical line items. They should not be hidden inside the normal system quantity.

The spare-parts package should also have its own Package ID and contents list. After arrival, it should be transferred to controlled storage rather than distributed with ordinary installation materials.

What Should the Buyer Check When the Container Arrives?

The buyer should document the container, seal, first-door-opening condition and package count before normal unloading begins. Once cargo and packaging have been dispersed across the site, it becomes much harder to establish what happened during transport.

Before opening the container

The receiving team should:

confirm the container number;
compare the seal number with the shipping record;
photograph the closed doors and seal;
record visible container damage;
check for signs of water entry or tampering;
prepare suitable lifting and unloading equipment;
make the packing list and Package ID schedule available;
assign responsibility for recording exceptions.

When opening the doors

Cargo may have shifted and may be pressing against the doors. The container should therefore be opened cautiously.

Record:

the condition when the first door is opened;
whether packages have moved, fallen or collapsed;
visible water or condensation;
broken restraints or blocking;
damaged external packaging;
Package IDs visible near the door.

During unloading

Check each package against the packing list and classify exceptions accurately.

Do not record every problem as “missing items.” Separate findings into:

missing package;
short quantity inside a received package;
incorrect model;
mixed component;
visible transport damage;
concealed damage found after opening;
documentation mismatch;
site-handling damage;
suspected production defect.

This classification helps determine the appropriate corrective action. It also prevents manufacturing problems, transit damage and unloading damage from being combined into one unclear complaint.

If one package is damaged, inspect nearby packages that may have been exposed to the same movement, impact or pressure.

How Should Missing Parts or Damage Be Documented?

A useful claim record connects the affected product to its Package ID, internal protection, external packaging, container condition and shipping documents. A close-up photograph of the damaged product alone is usually insufficient.

For a shortage

Record:

project or PO reference;
packing-list revision and line;
Package ID;
expected quantity;
received quantity;
container number;
seal number;
unloading date;
package-opening photographs;
counting record;
description of the missing component;
names of the responsible receiving personnel.

For physical damage

Preserve and record:

full view of the affected package;
readable package label;
external packaging damage;
internal protection arrangement;
close-up of the product damage;
wider image showing the product and package together;
container-opening condition;
affected quantity;
serial or batch identity where available;
packing list and relevant commercial documents;
carrier or third-party inspection record where required.

The evidence chain should connect:

Damaged Product
↕
Internal Protection
↕
External Package
↕
Package ID
↕
Container Opening Condition
↕
Packing List and Shipping Documents

Do not immediately discard cartons, crates, foam, restraints or damaged products. The carrier, insurer, supplier or inspection company may need to examine the original condition.

The contractual notice period and claim procedure should also be checked immediately.

Does the Incoterm Automatically Decide Responsibility for Damage?

No. The Incoterm helps define delivery, cost and risk-transfer responsibilities, but it does not by itself prove why damage occurred or remove contractual packaging obligations.

For example, under FOB, risk generally transfers when the goods are loaded on board the nominated vessel at the named port of shipment. However, this does not mean that pre-shipment wrong packing, short packing or failure to follow an agreed packaging specification should be ignored.

A damage investigation may need to review:

sales contract;
named Incoterm and location;
risk-transfer point;
agreed packaging specification;
bill of lading;
carrier terms;
cargo insurance;
loading evidence;
container-opening record;
notice and claim deadlines.

The party that arranged the freight is not automatically responsible for every type of damage.

The claim should distinguish between:

manufacturing defect;
unsuitable packaging;
incorrect loading;
carrier handling;
transit event;
unloading damage;
site storage or handling damage.

Hidden Risks That Strong Cartons Cannot Solve

Strong packaging materials cannot compensate for an uncontrolled project-delivery process. Many serious installation delays begin with document, configuration or identification errors rather than crushed cartons.

Watch for these warning signs:

the packing list shows only the total number of systems;
packages do not have unique IDs;
the packing breakdown cannot be connected to the final BOM;
different product configurations use nearly identical labels;
small accessories are packed as unidentified bulk items;
spare parts are mixed with the normal order quantity;
multi-container shipments have no Container Allocation List;
loading photos do not show package labels;
container and seal numbers are missing from the record;
packing was completed from an outdated drawing revision;
solar modules are exposed to pressure from pole bundles;
container utilization is prioritized over safe weight distribution;
unloading sequence is not considered;
damaged packaging is discarded before inspection;
production defects, transport damage and unloading damage are reported as one issue;
battery documents do not match the final battery model;
ISPM 15 is claimed without identifying the actual wood packaging;
VGM is treated as proof that the packing list is correct;
Incoterms are used to assign blame before the evidence is reviewed.

These are supplier-audit and project-control issues, not cosmetic packaging details.

Street Lighting Project Shipping and Packing Checklist

Use this checklist before shipment approval.

Before packing

[ ] Final BOQ and quantities are approved.
[ ] Final BOM matches the offered and approved configuration.
[ ] Latest drawings and revisions are identified.
[ ] Luminaire power and optical configurations are frozen.
[ ] Pole, arm, bracket and foundation configurations are confirmed.
[ ] Battery and controller models are frozen.
[ ] Spare-parts scope is separately approved.
[ ] Installation-zone grouping is confirmed where required.
[ ] Packing method is reviewed for each component type.
[ ] Customer label requirements are confirmed.
[ ] Applicable battery transport requirements are confirmed.
[ ] Applicable wood-packaging requirements are confirmed.

During packing

[ ] Each package has a unique Package ID.
[ ] Package contents are connected to the BOQ or BOM.
[ ] Product model and quantity are visible.
[ ] Different configurations are clearly separated.
[ ] Small parts are counted and kit-packed.
[ ] Spare parts are separately listed and packed.
[ ] Fragile components have suitable internal protection.
[ ] Pole surfaces, flanges and threads are protected.
[ ] Package weights and dimensions are recorded.
[ ] Sample packages are opened and checked where required.
[ ] Packing photographs show identifiable packages.
[ ] The packing-list revision matches the actual shipment.

During container loading

[ ] Empty-container condition is documented.
[ ] The container is reasonably clean and dry.
[ ] Container number is recorded.
[ ] Package count is reconciled with the packing list.
[ ] Container allocation matches the approved loading plan.
[ ] Weight is appropriately distributed.
[ ] Heavy and fragile cargo are suitably separated.
[ ] Cargo movement is controlled.
[ ] Unloading sequence has been considered.
[ ] Final blocking and securing conditions are photographed.
[ ] Seal number is recorded.
[ ] The final packing list identifies the applicable container.
[ ] VGM responsibilities and submission are confirmed.

At destination

[ ] Container and seal numbers are verified.
[ ] Closed-door and first-opening photographs are taken.
[ ] Shifted cargo or damaged packaging is recorded before unloading.
[ ] Packages are checked by Package ID.
[ ] Shortage, wrong supply and damage are recorded separately.
[ ] Nearby packages are inspected when cargo movement is found.
[ ] Original packaging is retained when a claim may be required.
[ ] Spare parts are transferred to controlled storage.
[ ] Receiving records are linked to the packing list.
[ ] Notice and claim deadlines are checked immediately.

What Should Be Included in a Project Delivery Pack?

The final delivery pack should allow the buyer to verify what was approved, what was packed, where it was loaded and what arrived. It should be usable by procurement, logistics, installation and maintenance teams—not only by the freight forwarder.

Depending on the project scope, the delivery pack may include:

approved packing list;
Package ID schedule;
container allocation list;
final BOQ and relevant BOM reference;
product datasheets;
approved drawings;
packing inspection records;
package and loading photographs;
container and seal records;
verified gross mass record where applicable;
applicable battery transport documents;
spare-parts schedule;
installation manuals;
receiving checklist;
shortage and damage reporting template;
warranty contact and claim route.

The required documents should be agreed before shipment.

Waiting until the container reaches the destination to request a detailed Package ID schedule or container allocation is too late.

Sunlurio supports EPC contractors, municipalities and project procurement teams with manufacturing and quality control, engineering documentation, packing coordination and delivery verification records. Buyers can also review completed street lighting projects before evaluating a project supply plan.

Request a Project Packing and Delivery Pack

If you are preparing a street lighting tender, BOQ or bulk shipment, send us:

project country;
destination port;
required Incoterm;
product or system type;
required quantity;
pole and bracket scope;
battery configuration;
BOQ or technical specification;
installation zones or delivery phases;
target delivery date.

Our engineering and project team can review the packing-list structure, Package ID method, container allocation, battery documentation and spare-parts breakdown before shipment.

Request an Engineering Pack within 24 hours

Frequently Asked Questions

What should be included in a street lighting project packing list?

A street lighting project packing list should identify the project, packing-list revision, product model, Package ID, package type, contents, quantity, weight, dimensions, BOQ or BOM reference and applicable container number. For phased installations, it may also identify the road, zone, lot or installation group.

How can an EPC contractor verify that no installation parts are missing?

Compare the approved BOQ and final BOM with the package schedule, installation-kit list and container-loading record. Small fasteners and connectors should be packed in counted, labeled kits rather than as unidentified bulk accessories. Verification should be based on complete installed lighting points, not only the number of main products.

Should spare parts be packed separately from the ordered quantity?

Yes. Spare parts should be separately listed, identified and packed so the receiving team can distinguish them from the contracted installation quantity. Their storage, replacement purpose and warranty status should also be controlled after arrival.

What photographs should be taken during container loading?

Useful records include the empty container, container number, package labels, staged quantities, loading progress, separation of heavy and fragile cargo, final securing condition, closed container and seal number. The photographs should allow specific packages to be connected to the final packing list.

Is the verified gross mass the same as the packing-list weight?

No. VGM is the verified total mass of the packed container for transport safety and vessel stowage. A project packing list records the packages, contents, quantities, dimensions and weights within the shipment. A correct VGM does not prove that every component or product configuration is correct.

What should the buyer do before unloading a damaged shipment?

Record the container and seal, photograph the closed doors and first-opening condition, document shifted cargo or damaged packaging, and notify the relevant parties according to the contract and carrier requirements. Retain the original packaging and damaged goods when an inspection or claim may be required.

Does every wooden export crate require an ISPM 15 mark?

Not necessarily. ISPM 15 primarily applies to regulated wood packaging material made from raw wood. Certain processed wood materials may fall outside the same scope. The actual packaging material and importing-country requirements should be confirmed before shipment.

Is UN38.3 enough to ship a solar street light battery?

No. A UN38.3 test summary is one part of lithium-battery transport documentation. The shipper must also confirm the battery configuration, protection against short circuit, packaging, restraint, marks, labels, documentation, transport mode and carrier requirements.

What is the best spare-parts percentage for a street lighting project?

There is no universal percentage. Spare quantities should reflect project size, installation-loss risk, component replacement method, supplier lead time, site remoteness, local maintenance ability, storage conditions and the agreed warranty strategy.

Stephen Zhang

Street Lighting Project Support

Stephen Zhang supports street lighting projects for Sunlurio, with experience in lighting pole configuration, project requirements, tender documentation, and coordination for municipal and EPC applications.