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Wireless Engineering Proposal · Infrastructure Deployment Package

Outdoor Camera Connectivity Infrastructure

A dedicated outdoor wireless network, engineered specifically to support the existing 2.4 GHz exterior security cameras across the Sammamish River community.

Objective Deliver reliable outdoor camera connectivity across common areas, while minimizing unnecessary infrastructure investment.

Prepared for Sammamish River Community  ·  by B11 Tech Solutions

View coverage How it works
Project information
Project name
Outdoor Camera Connectivity Infrastructure
Location
Sammamish River Community
Prepared by
B11 Tech Solutions
Document type
Wireless Engineering Proposal
Revision
Rev A
Proposal validity
30 days
Estimated deployment window
4 business days
Scope
Exterior outdoor areas
Indoor coverage
Not included
Executive summary

From limited reliability to engineered, scalable coverage

This proposal delivers a purpose-built outdoor wireless system for the community's exterior security cameras, designed in stages so the investment is matched to measured, real-world performance.

Current state

Limited reliability

Inconsistent outdoor wireless for the exterior cameras.

★ Start here Phase 1

Operational coverage

High-power outdoor signal across most of the property.

Expansion

Expanded reliability

Local reinforcement where the data shows it is needed.

Complete deployment

Maximum consistency

Both phases together for the strongest result.

Current challenge Outdoor camera connectivity across large exterior areas.
Primary objective Deliver reliable outdoor wireless coverage for the cameras.
Recommended deployment Start with Phase 1, the engineered foundation.
Expansion path Phase 2 if validation determines additional infrastructure is beneficial.
Expected deployment Approximately 4 business days.
Operational disruption Minimal for residents.
Expected result Outdoor camera connectivity across the majority of target areas.

Project at a glance

Coverage goal
Target areas
Majority of exterior camera zones
Installation days
4 days
Staged, low-disruption deployment
Equipment count
Up to 13
Across the complete deployment
Lift required
Yes
Towable lift, included in the project
Outdoor devices
Enterprise
Outdoor-rated, weatherproof hardware
Expected validation
On-site
Spectrum analysis & signal verification
Scope:   exterior outdoor areas for the community's security cameras. Coverage inside apartment units is outside the scope of this engagement.
Project objectives

What this infrastructure is built to achieve

This project is not delivering apartment Wi-Fi. It delivers reliable outdoor connectivity, engineered specifically for the community's exterior security cameras. Every objective below is a design driver, not an afterthought.

Carports Exterior walkways Building fronts Common areas Waterfront camera area
Access points are mounted high on the existing buildings, because elevation is what gives a wireless signal its reach.
Sammamish River community site study
Sammamish River · Site study North boundary 199.4 ft · Waterfront 335.7 ft
Engineering design criteria

The parameters this design is built to

Every wireless design starts from a clear set of criteria. These define what the system is engineered to achieve.

Coverage target
Outdoor 2.4 GHz camera connectivity
Coverage priority
Exterior common areas
Indoor coverage
Not included
Wireless objective
Reliable two-way communication
Design goal
Reduce return-path failures
Client density
Low
Expected concurrent devices
Estimated, low concurrency

Predictive RF modeling assumptions

The coverage model is built on the following engineering assumptions:

Estimated antenna height
Outdoor mounting
Normal weather
Typical RF conditions
Expected foliage
Estimated camera radio behavior
Standard outdoor attenuation
These are modeling assumptions. Actual validation occurs post-installation through on-site spectrum analysis and signal verification.
Current challenges

Why outdoor wireless is harder than it looks

A camera showing a Wi-Fi signal is not the same as a camera that reliably delivers video. These are the real-world conditions this design is built to overcome.

Long wireless distances

Open outdoor spans stretch links far past indoor norms.

Outdoor attenuation

Open air, distance, and obstacles steadily weaken signal.

Vehicle reflections

Parked vehicles bounce and scatter the signal.

Carport interference

Metal carports reflect signal and create dead spots.

Tree absorption

Foliage shifts with the seasons and absorbs 2.4 GHz.

Return-path limitations

Small cameras struggle to send video back the full distance.

Environmental variability

Weather and neighboring networks add unpredictable noise.

Client radio limitations

Each camera radio performs differently in the field.

Signal ≠ Reliability

A visible signal is not the same as a working two-way connection. This proposal is engineered around the difference.

How Wi-Fi really works

Wi-Fi is a two-way conversation

Every camera has to do two things at once: hear the access point, and be heard by it. Both directions have to succeed for video to flow. This single principle shapes the entire design.

The phone-call analogy

You might clearly hear someone calling across a parking lot, yet your own voice may not be strong enough to reach them back. A small camera faces the same problem: it can receive a strong signal and still struggle to send its video back to the access point.

Access Point 2.4 GHz Camera Access point reaches the camera, strong Camera must answer back, often weaker

When the return path is weak, a camera can look connected yet drop frames, lose clips, or fall offline. This affects 2.4 GHz cameras, low-power radios, outdoor IoT devices, and battery devices most of all.

Access points

  • High transmit power
  • Large, tuned antennas
  • Mounted high for reach
  • Built to push signal far
vs

Outdoor cameras

  • Small built-in antennas
  • Lower transmit power
  • Fixed, often low positions
  • Struggle to answer back

A signal can look strong on a map and still fail in real communication. These are the real-world factors that affect outdoor performance:

Trees Cars Rain Glass Concrete Metal Humidity Reflections Multipath Interference Human bodies Seasonal foliage Vehicle movement RF noise
Predictive modeling shows where coverage should land. Final validation always requires spectrum analysis, field measurements, and real-world testing on site, which is built into every option in this proposal.
Wireless engineering process

A disciplined, measurable methodology

This is our engineering methodology. As a technology and network engineering company, we treat outdoor wireless as a measured discipline rather than a guess. Each step below produces a concrete, verifiable result that the next step depends on, so the final system is built on real data instead of assumptions.

1

Property analysis

Survey the site, structures, and outdoor conditions.

2

Predictive RF modeling

Model signal behavior with simulation software.

3

Coverage simulation

Map projected 2.4 and 5 GHz coverage across the property.

4

Deployment

Elevated, weather-sealed installation of the hardware.

5

Optimization

Tune channels, power, and placement in the field.

6

Validation

Spectrum analysis and per-camera signal verification.

7

Documentation

As-built records, topology, and a testing report.

Coverage maps are predictive. Actual performance depends on the real environment, which is exactly why measurement and validation are part of the process rather than an assumption.
Predictive coverage

The engineered coverage model for this property

These are the actual simulation outputs for Sammamish River. Color shows projected signal strength. Stronger reach is why 2.4 GHz carries the outdoor camera network.

Estimated 2.4 GHz coverage

The primary band your cameras use.

Estimated 2.4 GHz coverage map
2.4 GHz predictive coverage Simulation output · Sammamish River

Estimated 5 GHz coverage

The higher-speed band, shorter reach by nature.

Estimated 5 GHz coverage map
5 GHz predictive coverage Simulation output · Sammamish River
Dark green Excellent Light green Good Yellow Operational Orange Marginal Red Weak

Coverage confidence

Phase 1
High · 85 %
Phase 2 added
Very high · 92 %
Complete
Maximum · 97 %

Confidence reflects predictive engineering and validation methodology.

Coverage maps shown are predictive RF simulations intended to estimate performance. Coverage represents signal propagation, not throughput, and does not by itself ensure camera performance. Final validation occurs after physical installation and on-site spectrum analysis. Actual performance may vary with environmental conditions, client device capability, interference, foliage, building materials, and spectrum usage.
Predictive vs real-world

Why real Wi-Fi differs from simulation

A simulation is a model of expected behavior. The real environment introduces variables a model cannot fully predict, which is exactly why on-site validation is part of every option.

Signal reflection

Seasonal trees

Cars

Metal structures

Humidity

Client antenna quality

Interference

Crowded spectrum

Network architecture

How the network is structured

The data path is engineered end to end, from the internet connection to each camera. Phase 2 simply shortens the distance the cameras have to communicate across.

Phase 1 data path
ISP
Gateway
Outdoor AP
Camera
Phase 2 data path
ISP
Gateway
Bridge
Outdoor switch
Local AP
Camera
In Phase 2, the bridge acts like an invisible Ethernet cable across open space. It carries a wired-quality link to a local access point near the cameras, so they no longer have to communicate across long distances.
Option 1 · Phase 1 Recommended starting point

High-power outdoor coverage

Phase 1 is the recommended foundation. It is expected to provide outdoor coverage across most exterior areas of the property from a small number of elevated, high-power access points. Broad coverage is the goal here, though coverage alone does not automatically mean reliable communication, which is what Phase 2 addresses.

$ 8,995 before tax · all labor, lift and materials included
Phase 1 architecture Internet / WAN Gateway / Firewall 1 Gateway / Firewall 2 Outdoor AP 1 Outdoor AP 2 Outdoor AP 3
Phase 1 device placement
Phase 1 placement 3 access points · 2 gateways

Hardware & scope

3 High-Power Outdoor Access Points Elevated for maximum reach
2 Gateway / Firewalls Secure, managed network core
Outdoor cabling Ethernet surge protection Elevated mounting Lift deployment Configuration Optimization Testing Protection materials Documentation
Phase 1 is expected to provide broad outdoor coverage. Coverage does not by itself mean reliable communication, which is measured on site and reinforced by Phase 2 where needed.
Investment breakdown

Far more than equipment

A wireless deployment like this is mostly skilled engineering and field work. Here is how the investment is allocated across the engagement, by category.

≈ 45 %

Hardware infrastructure

  • Access points
  • Gateways
  • Protection & materials
  • Cabling
  • Mounting
≈ 35 %

Professional installation

  • Lift deployment
  • Outdoor routing
  • Elevated mounting
  • Weatherproof installation
  • Testing
≈ 20 %

Engineering & validation

  • Planning
  • RF analysis
  • Configuration
  • Optimization & validation
  • Documentation

What the investment covers

Wireless infrastructure Outdoor installation Elevated access equipment Cabling & protection Engineering & configuration Validation & testing Project management
This proposal includes much more than equipment. A large portion of the investment covers engineering, deployment, validation, and long-term reliability, the work that turns hardware into a system you can depend on. Equipment represents only one portion of the overall project value.
Enterprise-grade hardware The same class of equipment trusted in commercial and campus deployments, not consumer gear.
2-year hardware protection Manufacturer warranty plus hardware support administration by B11 Tech Solutions, for two years.
No monthly license fees No recurring software or subscription costs to keep the system running.

Included deliverables

Coverage maps
Final network topology
Device inventory
Configuration
On-site validation
As-built documentation
Warranty information
Testing report
Final walkthrough
Recommended deployment strategy

Why we propose Phase 1 first

Starting with Phase 1 is a deliberate engineering decision. It gives the community the strongest result for the lowest risk, and keeps every future option open.

1

Phase 1

Deploy the high-power outdoor foundation.

2

Validation

Measure real RF performance on site.

3

Optimization

Tune the network to the measured results.

4

Expand only if necessary

Add Phase 2 where the data proves it helps.

Lower upfront investment

Begin with what the property needs first.

Reduce unnecessary infrastructure

No over-building before the data calls for it.

Validate real RF behavior

Decisions based on measurement, not guesswork.

Preserve future flexibility

Every expansion path stays open.

Recommended by B11 Tech Solutions  ·  Phase 1 → Validate → Expand if needed
Financial logic

Why this approach reduces total cost

Starting with Phase 1 is not only lower risk, it is lower total cost over the life of the system.

Lower unnecessary infrastructure

Build only what the property needs first.

Fewer future lift deployments

Elevated work is consolidated, not repeated.

Lower troubleshooting costs

A validated network means fewer callouts.

Expand only if justified

Additional spend happens only when data supports it.

Lower maintenance

Engineered once, with less ongoing upkeep.

Reduce future labor

Less rework and fewer return mobilizations.

1

Phase 1

Deploy the foundation.

2

Validation

Measure real performance.

3

Expand if needed

Only where it is justified.

Why Phase 2 exists

Coverage versus reliability

Coverage means the signal arrives. Reliability means the communication actually succeeds. They are not the same thing, and the gap between them is exactly what Phase 2 closes, where the measurements show it is needed.

The distance problem, visualized

A signal leaves the access point strong and reaches a far camera. The camera's much weaker reply then has to make the entire trip back. A long return path leads to weak device transmission, retransmissions, and packet loss, even when the coverage map looks healthy.

Increasing distance from the access point Access Point Far camera Signal out: strong near the AP, fading with distance Return trip: arrives faint and unreliable
Option 2 · Phase 2

Expanded coverage architecture

Phase 2 introduces dedicated wireless bridges that carry the network physically closer to the cameras. Instead of asking distant devices to transmit across the whole property, we bring reliable, local coverage to where the cameras live, and we add it where the Phase 1 measurements prove it is worthwhile.

+$ 9,495 additional investment · before tax · added to Phase 1

A wireless bridge, in plain terms

A bridge acts as an invisible Ethernet cable. It moves the network across an open distance with no trenching. Once it arrives near the center of the property, a local access point provides reliable, nearby coverage. The result is shorter distances, lower latency, and a much improved return path.

Gateway Wireless bridge invisible Ethernet cable Outdoor Switch Local AP Nearby cameras
Bridge → Outdoor Switch → Local Access Point → Cameras

Estimated 2.4 GHz coverage with Phase 2

The same property, reinforced by bridges and local access points.

Phase 2 estimated 2.4 GHz coverage
Phase 2 · 2.4 GHz predictive coverage Simulation output · Sammamish River

Estimated 5 GHz coverage with Phase 2

Stronger local presence across the central buildings.

Phase 2 estimated 5 GHz coverage
Phase 2 · 5 GHz predictive coverage Simulation output · Sammamish River
Phase 2 device placement
Phase 2 placement 4 bridges · 2 switches · 2 added APs

What is added

4 Wireless Bridges The invisible Ethernet cables
2 Outdoor Switches Local switching near the buildings
2 Additional Outdoor APs Reliable coverage near the cameras
+ Surge, cabling & materials Lower latency, improved return path
One client requirement: provide an available electrical outlet at the middle building locations, to energize the outdoor switch, bridge, and access point. Everything else is included.
Option 3 · Complete deployment

The best option: both phases at once

If the community wants the strongest, most reliable result from day one, this deploys Phase 1 and Phase 2 together. Because everything happens in one visit, it costs less than phasing separately.

Save nearly $500
Complete deployment · Phase 1 + Phase 2 combined

Maximum reliability, in a single mobilization

One lift rental, one mobilization, and one commissioning instead of two. Removing that duplicate setup is exactly where the saving comes from, and it lowers future labor as well.

$ 17,999 before tax · vs. $18,490 if phased separately
Single mobilization One coordinated visit.
Single lift deployment One elevated setup.
Lower future labor No second mobilization later.
Maximum reliability Full reach plus local strength.
Best long-term value Lowest overall cost.
Client decision dashboard

Compare the options at a glance

A side-by-side view to support the decision, across the factors that matter most.

Option 1

Phase 1

Best initial investment
Deployment complexity Moderate
Confidence High
Investment efficiency Highest
Future readiness Open
Option 2

Phase 2 expansion

Expanded reliability
Deployment complexity Higher
Confidence Very high
Investment efficiency High
Future readiness Reinforced
Best long-term value
Option 3

Complete deployment

Phase 1 + Phase 2 combined
Deployment complexity Single mobilization
Confidence Maximum
Investment efficiency Best long-term
Future readiness Fully ready
Choose your path

Three ways forward

Select an option to see the total update below. Nothing is charged or sent automatically. When you are ready, the button opens a pre-filled email to our team.

Phase 1

The foundation

Start here. High-power outdoor coverage across the property.

$ 8,995 before tax
  • 3 high-power outdoor access points
  • 2 gateway / firewalls
  • Lift, surge protection, full install
  • On-site validation included
Phase 2

Expansion, if needed

Added to Phase 1 where the measurements prove it is worthwhile.

+$ 9,495 additional · added to Phase 1
  • 4 wireless bridges + 2 outdoor switches
  • 2 additional outdoor access points
  • Improved return path & lower latency
  • Deployed only where data proves the need
Best option Option 3 · Complete

Both phases at once

Maximum reliability from day one, in a single mobilization.

$ 17,999 before tax · save nearly $500
  • Both phases in one visit
  • Single lift and commissioning
  • Save nearly $500 vs. phasing separately
  • Highest coverage consistency
Selected
Complete deployment
Both phases together, in a single mobilization
$ 17,999 before tax
What happens after approval

From decision to a working network

Once an option is selected, the project follows a clear, managed path. Each stage shows what you see, what we perform, and what you receive.

1

Kickoff

You see
A confirmation of scope and next steps.
We perform
Project setup and scheduling alignment.
Output
Confirmed scope and point of contact.
2

Procurement

You see
Confirmation that equipment is secured.
We perform
Sourcing and staging of all hardware.
Output
Equipment ready for deployment.
3

Scheduling

You see
A proposed deployment window.
We perform
Lift coordination and site access planning.
Output
Confirmed deployment dates.
4

Deployment

You see
On-site installation, with minimal disruption.
We perform
Mounting, cabling, and weatherproof installation.
Output
Installed outdoor infrastructure.
5

Optimization

You see
A network tuned to the real environment.
We perform
Spectrum analysis and configuration tuning.
Output
Optimized coverage.
6

Validation

You see
Verified, measured performance.
We perform
Signal verification and camera validation.
Output
Validation results.
7

Final documentation

You see
A complete record and walkthrough.
We perform
As-built documentation and final sign-off.
Output
Deployment package delivered.
Deployment dates depend on weather, permitting, hardware availability, and lift scheduling. We confirm each milestone with you in advance.
Estimated project experience

A typical timeline, week by week

An estimated view of how the project unfolds. Actual timing depends on scheduling and site conditions.

Week 1
Approval & procurement
Week 2
Scheduling
Week 3
Deployment
Week 4
Optimization & validation
Week 5
Documentation delivery
Infrastructure protection

Engineered for outdoor operation

Outdoor equipment lives in a harsher world than indoor gear. Every install is built to survive it.

Outdoor surge protection

Guards equipment against outdoor electrical events.

Weather resistance

Sealed, weatherproof mounting and enclosures.

UV-rated cable

Outdoor cabling built to resist sun and aging.

Grounding

Proper grounding for elevated outdoor hardware.

Professional cable management

Clean, secured cable runs for reliability and serviceability.

Outdoor sealing

Sealed penetrations and connections against moisture intrusion.

Future serviceability

Installed so the system stays easy to maintain and expand.

Included hardware protection

Weatherproof hardware

Outdoor-rated devices, surge protection, and weatherproof installation as standard.

2-year hardware coverage

Hardware included in this proposal is protected through manufacturer coverage with hardware support administration by B11 Tech Solutions for a total of two years.

Optional managed monitoring

Ongoing network monitoring is available if the community wants proactive oversight.

Optional extended support

Extended support coverage is available beyond the included period.

Installation experience

A planned, four-day deployment

Clear stages, minimal disruption to residents, and full validation before we call it done.

Day 1

Preparation

Staging, configuration, and on-site mobilization.

Day 2

Lift installation

Elevated mounting of access points, bridges, and cabling.

Day 3

Testing

Signal verification across the outdoor coverage areas.

Day 4

Optimization & commissioning

Tuning, documentation, and final sign-off.

Spectrum analysis Signal verification Camera validation

Installation engineering

Every deployment day is made up of disciplined, documented engineering work:

Lift mobilization
Roof safety
Elevated mounting
Weatherproof mounting
Cable routing
Cable protection
Penetration sealing
Surge protection
Network validation
Testing
Documentation
Final commissioning
Included at no additional cost

No hidden add-ons

Everything required to deliver a complete, working outdoor network is part of the price. There are no surprise line items.

Lift access
Mounting hardware
Outdoor-rated hardware
Weatherproof installation
Cable organization
Surge protection
Configuration
Testing
Signal validation
Final documentation
Cleanup
Final walkthrough
Project assumptions

What this proposal assumes

Clear assumptions keep a project predictable. This proposal is prepared on the basis of the following site conditions.

Existing internet service available
Existing electrical service available
Standard mounting conditions
No concealed infrastructure
No hazardous materials
Lift access available on site
Any unforeseen conditions requiring additional work will be communicated and approved with you before execution. There are no surprise charges.

What you provide

Access to buildings
Electrical outlet (Phase 2 only)
Scheduling access
Approval for mounting locations

Everything else is included.

Not included

Clear scope, no surprises

To keep the scope unambiguous, the following are explicitly outside this engagement.

× Interior apartment Wi-Fi
× ISP / internet services
× Electrical work beyond the specified scope
× Drywall repair
× Painting
× Interior low-voltage retrofit
× Additional concealed infrastructure
× Future expansion beyond this proposal
Project adjustments

If conditions change, you stay in control

If unexpected site conditions require additional work, nothing happens without your sign-off.

1

Recommendation provided

We document what we found and what it needs.

2

Scope reviewed

We review the change with you in plain terms.

3

Approval obtained

Work proceeds only once you approve.

4

No surprise charges

Nothing is billed without prior agreement.

Expected outcomes

What this delivers for the community

The design is built to produce measurable, day-to-day results.

Reduce camera outages

Steadier connections mean fewer dropped cameras.

Improve consistency

Reliable coverage across the exterior areas.

Reduce service visits

Fewer recurring callouts to chase connectivity issues.

Improve visibility

Dependable footage from the cameras that protect the community.

Enable future expansion

A backbone ready for more cameras and devices.

Lower long-term cost

Engineered once, with less ongoing maintenance.

Success metrics

How we measure success

Success is not a signal bar on a map. It is real, measurable performance for the cameras.

Coverage objective
85-95%
Target outdoor connectivity
Camera connectivity
2.4 GHz
Priority optimized for camera devices
Infrastructure availability
Continuous
Designed for continuous operation
Future expansion
Ready
Ready for additional phases
Documentation
Included
As-built records delivered
Validation
Included
On-site verification after deployment

Success is measured by

Device association Signal quality Stability Usable throughput Real device communication
Not by signal visibility alone. A visible network is not the same as a working two-way connection.
Phase comparison

How each option performs

A side-by-side view across the dimensions that matter most for a camera network.

Dimension Phase 1 Phase 2 added Complete
Coverage Broad Broad + local Maximum
Return path Baseline Reinforced Reinforced
Reliability Good High Highest
Expansion headroom Ready Expanded Expanded
Future growth Supported Strong Strongest
Risk management

Anticipated, and already mitigated

A deployment of this scale carries known variables. Each is assessed and actively managed.

Risk Probability Impact Mitigation
Weather delay Medium Low Staged scheduling and weather windows built into the plan.
Interference Medium Medium Channel planning and optimization during commissioning.
Power limitations Low Low Power needs identified up front and confirmed before work.
Material delays Low Medium Equipment sourced and staged before mobilization.
Unexpected conditions Low Medium Reviewed and approved with you before any additional work.
No unexpected work proceeds without your approval.
After deployment

What happens once it is live

The project does not end at installation. It ends when the network is proven and signed off.

1

Installation

Hardware mounted and connected.

2

Validation

Spectrum analysis and signal checks.

3

Optimization

Tuned to the measured results.

4

Client approval

Walkthrough and sign-off with you.

5

Optional monitoring

Ongoing support, if you want it.

Project success criteria

How we define done

The project is considered complete only when every one of these is met.

Hardware installed
Coverage validated
Devices connected
Testing completed
Documentation delivered
Client walkthrough completed
What you receive

Your deployment package

This is not just an installation. You receive a complete, documented record of the engineered system.

Coverage documentation

Predictive and validated coverage records.

Final topology

The as-built network layout.

Deployment photos

Documented installation of each device.

Validation report

On-site spectrum and signal results.

Hardware inventory

A record of installed equipment.

Configuration records

Network configuration documentation.

Final walkthrough

A guided review with your team.

Deployment summary

A concise summary of the completed project.

Common questions

Questions clients ask

Straight answers to the questions that come up most.

Why not install more access points immediately?
More hardware does not automatically mean better performance, and it can add cost and interference you may not need. Phase 1 establishes a strong foundation and lets us measure real-world results, so any expansion is based on data rather than assumptions.
Why not cover the apartments?
This project is scoped for outdoor camera connectivity in the common areas, not interior apartment Wi-Fi. Indoor coverage is a different design with different requirements, and it is outside this engagement.
Why not use mesh?
Mesh repeats signal wirelessly, which adds latency and reduces capacity with every hop, and it inherits the same weak return-path problem outdoors. For reliable camera connectivity across distance, a wired-quality backbone with bridges and access points is the stronger engineering choice.
Will weather affect Wi-Fi?
Weather can influence outdoor signal behavior, especially rain, humidity, and seasonal foliage. The design accounts for outdoor conditions, and on-site validation confirms performance in the real environment.
What if cameras still struggle after Phase 1?
That is exactly what validation is for. If measurements show certain areas need more support, Phase 2 adds bridges and local access points to shorten the distance the cameras have to communicate across.
Why use bridges?
A bridge acts like an invisible Ethernet cable across open space. It carries a wired-quality link to a local access point near the cameras, which improves the return path without trenching.
Can Phase 2 be added later?
Yes. Phase 1 is designed as the foundation, and Phase 2 can be added whenever validation shows it is beneficial. Nothing in Phase 1 is wasted, and the expansion builds directly on it.
Why can devices see Wi-Fi but not communicate?
Wi-Fi is two-way. A camera can receive a strong signal from an access point yet be too weak to transmit back reliably. Real performance depends on both directions succeeding, which is why we engineer for the return path.
Will this support future cameras?
Yes. The infrastructure is designed as a backbone, so additional cameras and devices can be added as the community grows.
What happens if coverage differs from the prediction?
Predictive maps estimate expected behavior. After installation, we perform spectrum analysis and signal verification, then optimize the network to the measured conditions.
Future ready

Infrastructure that grows with the community

This is not a one-off install. It is a managed foundation the community can build on.

Future cameras

Room to add new exterior cameras over time.

Wi-Fi expansion

A backbone ready for additional coverage zones.

Access control

A network that can carry future smart-security devices.

Community infrastructure

A platform for the property's connected systems.

Why B11 Tech Solutions

Network engineers, with the experience to back it up

We are network engineers, not box installers. We design, deploy, and validate wireless infrastructure ourselves, and we bring real field experience to getting it right the first time, backed by full documentation and local support.

15+ years
Network engineering & field experience
Engineered
Designed, deployed and validated deployments
Documented
As-built records and testing reports included
Greater Seattle
Local support, on the ground
Long-term
A partnership, not a one-off install
Commercial deployments Wireless engineering Network infrastructure Security integration Design → Install → Support
1

Design

Predictive RF engineering.

2

Deploy

Professional outdoor installation.

3

Validate

On-site spectrum and signal testing.

4

Support

Documentation and ongoing options.

Our recommendation

Where we suggest you start

★ Recommended · Option 1 · Phase 1

Begin with broad outdoor coverage

Deploy the high-power foundation, validate real RF performance on site, and expand only if additional reliability is required. It is the lowest-risk path to a reliable outdoor camera network, and it keeps every future option open.

Alternative: Option 3 · Complete Deployment. The best long-term value if the community prefers maximum reliability from day one, in a single mobilization.
Sammamish River

Ready to move forward?

Select an option or schedule a walkthrough, and we will handle the rest. Have a question first? We are glad to walk through any part of the design with you.

Schedule site walk Schedule technical review Request scope revision
Final placement and optimization occur during deployment to maximize real-world performance. Designed using predictive wireless engineering methodology and finalized through real-world deployment validation. All pricing shown before tax; coverage maps are predictive RF models and the percentages shown are an indicative allocation.
B11 Tech
B11 Tech Solutions Managed IT & Smart Security · Greater Seattle

Wireless Engineering Proposal and Infrastructure Deployment Package, prepared specifically for the Sammamish River community.

Contact
Call (425) 866-3858 Text (844) 502-5854 info@b11tech.com www.b11tech.com
Visit

22722 29th Dr SE, Suite 100
Bothell, WA 98021

Mon–Fri 9–6
Sat by appointment

Bilingual EN / ES / PT

Prepared for Sammamish River Community
Prepared by B11 Tech Solutions
Revision Rev A
Date On generation
Proposal validity 30 days
Classification Confidential

This proposal remains subject to final field validation prior to deployment.

© 2026 B11 Tech Solutions. Prepared for the Sammamish River community. Outdoor Camera Connectivity Infrastructure · Wireless Engineering & Smart Security
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