1147  Weightless Market Comparison and Decision Guide

1147.1 Introduction

⏱️ ~12 min | ⭐⭐ Intermediate | 📋 P09.C17C.U01

This chapter analyzes Weightless’s position in the LPWAN market, explores why it has seen limited commercial adoption despite technical soundness, and provides comprehensive decision frameworks for selecting between Weightless and competing technologies.

NoteLearning Objectives

By the end of this chapter, you will be able to:

  • Compare Weightless with LoRaWAN and NB-IoT across technical and business dimensions
  • Understand why ecosystem effects matter more than technical superiority
  • Evaluate Weightless suitability for specific deployment scenarios
  • Apply decision frameworks for LPWAN technology selection

1147.2 Prerequisites

Before diving into this chapter, you should be familiar with:

1147.3 Weightless-P Key Features Summary

Before comparing with competitors, let’s summarize Weightless-P’s characteristics:

  • ISM bands (868/915 MHz)
  • 200 bps to 100 kbps adaptive data rate
  • Bidirectional communication
  • 2-5 km range (urban)
  • 3-8 year battery life
  • 40-byte payload
  • Open standard (no vendor lock-in)

Strengths: - Open standard (multiple vendors possible) - Deploy private or public networks - No recurring operator fees (private deployment) - Good balance of power, range, and data rate - Bidirectional communication

Weaknesses: - Limited adoption compared to LoRaWAN and NB-IoT - Smaller ecosystem (fewer devices and vendors) - Less community support and documentation - No first-mover advantage

1147.4 Market Reality: Why Technical Excellence Doesn’t Guarantee Success

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graph TB
    A[LoRaWAN Ecosystem<br/>Success Cycle] --> B[Semtech Chipsets<br/>Mass Production]
    B --> C[100+ Module Vendors<br/>Low Device Cost]
    C --> D[1000+ Network Deployments<br/>Global Coverage]
    D --> E[The Things Network<br/>Community Support]
    E --> F[Extensive Documentation<br/>Developer Tools]
    F --> G[More Developers Join<br/>More Applications]
    G --> A

    H[Weightless Ecosystem<br/>Failure Cycle] --> I[No Chipset Vendors<br/>Discrete Components]
    I --> J[2-3 Device Vendors<br/>High Cost]
    J --> K[10 Network Deployments<br/>Limited Coverage]
    K --> L[Small Community<br/>Minimal Support]
    L --> M[Poor Documentation<br/>Few Tools]
    M --> N[Developers Choose LoRa<br/>Market Shrinks]
    N --> H

    style A fill:#27ae60,stroke:#2C3E50,color:#fff
    style H fill:#c0392b,stroke:#2C3E50,color:#fff

Figure 1147.1: LoRaWAN Ecosystem Success vs Weightless Ecosystem Failure Cycles

{fig-alt=“Comparison of LoRaWAN success cycle (Semtech chips enabling mass production, 100+ vendors, 1000+ deployments, strong community, extensive tools creating positive feedback) versus Weightless failure cycle (no chipsets, few vendors, limited deployments, small community, poor tools creating negative feedback)”}

1147.4.1 The Vicious Cycle

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graph TB
    A[No Silicon Vendors] --> B[No Mass-Produced Chips]
    B --> C[High Device Cost<br/>$30-50 per device]
    C --> D[Few Device Manufacturers]
    D --> E[Limited Device Selection]
    E --> F[No Network Deployments]
    F --> G[No Market Demand]
    G --> A

    H[Ecosystem Failure<br/>2012-2020] --> A

    style H fill:#E67E22,stroke:#2C3E50,color:#fff
    style A fill:#c0392b,stroke:#2C3E50,color:#fff
    style B fill:#e74c3c,stroke:#2C3E50,color:#fff
    style C fill:#e67e22,stroke:#2C3E50,color:#fff
    style D fill:#e67e22,stroke:#2C3E50,color:#fff
    style E fill:#e74c3c,stroke:#2C3E50,color:#fff
    style F fill:#c0392b,stroke:#2C3E50,color:#fff
    style G fill:#c0392b,stroke:#2C3E50,color:#fff

Figure 1147.2: Weightless Vicious Cycle: No Chips to No Market Demand

{fig-alt=“Weightless vicious cycle showing how lack of silicon vendors led to no mass-produced chips, resulting in high device costs ($30-50), few manufacturers, limited selection, no network deployments, no market demand, perpetuating the cycle from 2012-2020”}

1147.5 Knowledge Check: Market Analysis

Which Weightless variant would be most appropriate for a simple uplink-only application requiring 10+ year battery life, and why might it not be available?

  1. Weightless-W because it uses TV White Space
  2. Weightless-N because it’s ultra-low power uplink-only, but it’s been discontinued
  3. Weightless-P because it’s the most modern
  4. All variants are equally suitable for uplink-only
Click to reveal answer

Answer: B) Weightless-N because it’s ultra-low power uplink-only, but it’s been discontinued

Explanation:

Weightless-N was specifically designed for ultra-simple, uplink-only applications:

Design characteristics: - 200 Hz ultra-narrowband channels - 100 bps data rate - DBPSK modulation - Transmit-only (no receiver) - Simplest possible device design - 10+ year battery life

Why it was ideal: - No receiver hardware → lower cost, lower power - Ultra-narrow bandwidth → minimal interference - Simple protocol → low processing requirements - Perfect for basic sensor reporting

Why it’s discontinued: 1. Limited market demand: Most applications benefit from occasional downlink (configuration, firmware updates) 2. Sigfox competition: Sigfox offered similar uplink-focused service with actual deployments 3. Weightless-P success: Weightless-P offers bidirectional with similar power consumption 4. Ecosystem effects: No vendors built Weightless-N hardware commercially

Modern recommendation: Since Weightless-N is discontinued, choose: - Sigfox: If uplink-only with message limitations acceptable - Weightless-P: If want open standard with bidirectional capability - LoRaWAN Class A: Good balance with large ecosystem

The discontinuation of Weightless-N reflects market preference for bidirectional communication even in sensor networks, as it enables remote configuration, firmware updates, and confirmed delivery.

A deployment in a rural area has excellent TV White Space availability. What are the key advantages and challenges of using Weightless-W compared to Weightless-P?

  1. Weightless-W offers higher data rates but requires complex geolocation database integration
  2. Weightless-W has longer range but requires TV broadcast licensing
  3. Weightless-W is simpler to deploy than Weightless-P
  4. Weightless-W and Weightless-P are technically identical
Click to reveal answer

Answer: A) Weightless-W offers higher data rates but requires complex geolocation database integration

Explanation:

Weightless-W (TV White Space) Advantages:

  1. Higher Data Rates:
    • Up to 10 Mbps (vs 100 kbps for Weightless-P)
    • Wide 8 MHz channels (vs 12.5 kHz for P)
    • Adaptive modulation (DBPSK to D16QAM)
  2. Better Propagation:
    • Lower frequency (470-790 MHz vs 868/915 MHz)
    • Better building penetration
    • Longer range potential
  3. Large Spectrum Availability:
    • Multiple 8 MHz channels often available
    • Less congestion than ISM bands

Weightless-W Challenges:

  1. Regulatory Complexity:
    • Must query geolocation database before transmission
    • Database lists protected TV channels by location
    • Must immediately vacate if broadcaster starts using channel
    • Different regulations per country
  2. Cognitive Radio Requirements:
    • More complex device hardware
    • Higher processing requirements
    • Geolocation capability needed
    • Database connectivity required
  3. Deployment Complexity:
    • Setup geolocation database access
    • Handle dynamic channel changes
    • More complex network management
    • Higher device cost

Comparison:

Aspect Weightless-W (TVWS) Weightless-P (ISM)
Data Rate 1 kbps - 10 Mbps 200 bps - 100 kbps
Frequency 470-790 MHz 868/915 MHz
Regulation Geolocation database Simple ISM rules
Deployment Complex Simple
Device Cost Higher Lower
Range Better (lower freq) Good
Availability Varies by location Global ISM bands

Practical recommendation:

Use Weightless-W when: - Need high data rate (occasional video, audio, bulk data) - TVWS availability is good in deployment area - Have technical expertise for complex deployment - Can handle geolocation database integration

Use Weightless-P when: - Standard LPWAN data rates sufficient (< 100 kbps) - Want simple deployment (ISM bands) - Global deployment (not tied to local TVWS) - Lower cost and complexity preferred

For most IoT applications, Weightless-P’s simplicity outweighs Weightless-W’s higher data rates, explaining why W has seen limited adoption.

Why has Weightless seen limited commercial adoption despite being technically sound? Select the most comprehensive answer.

  1. Weightless is technically inferior to LoRaWAN and NB-IoT
  2. Weightless entered the market late, faces strong competition from established ecosystems, and lacks the network effects of larger platforms
  3. Weightless is too expensive for commercial use
  4. Weightless only works in TV White Space which is not widely available
Click to reveal answer

Answer: B) Weightless entered the market late, faces strong competition from established ecosystems, and lacks the network effects of larger platforms

Explanation:

Weightless’s limited adoption is a market dynamics problem, not a technical problem. Let’s analyze each factor:

1. Late Market Entry:

Timeline: - 2012: Weightless SIG founded - 2013: LoRa Alliance founded, Sigfox commercial deployments - 2015: LoRaWAN specification released, gaining traction - 2016: NB-IoT standardized (3GPP Release 13) - 2017: Weightless-P finalized

By the time Weightless-P was ready, LoRaWAN and Sigfox had first-mover advantage with commercial deployments and growing ecosystems.

2. Network Effects:

Network effect cycle: - Few devices → Few users → Small community → Less documentation → Harder to use → Fewer new users

Contrast with LoRaWAN: - 100+ device vendors - 1000+ gateway models - 170+ countries with deployments - The Things Network (community) - Extensive documentation and tutorials

3. Competition Strengths:

LoRaWAN advantages: - Earlier market entry (2015 specification) - Strong marketing and evangelism - Community-driven (The Things Network) - Many device options - Public and private network flexibility

NB-IoT advantages: - Cellular industry backing (massive marketing budgets) - Existing infrastructure (no deployment needed) - Enterprise comfort with carrier relationships - Guaranteed QoS and SLA - Global roaming

Sigfox advantages: - First commercial LPWAN (2013) - Simplicity resonates - Strong operator partnerships - Marketing as “simplest IoT”

The Real Lesson:

Technical excellence ≠ Market success

Factors for IoT platform success: 1. Timing: Early market entry matters 2. Ecosystem: Device vendors, gateways, users 3. Community: Documentation, forums, tutorials 4. Marketing: Mindshare and awareness 5. Network effects: More users → more value 6. Standards momentum: Once established, hard to displace

Weightless’s situation mirrors many “better technology loses to established ecosystem” stories: - Betamax vs VHS (Betamax technically superior, lost) - HD DVD vs Blu-ray (close race, HD DVD lost) - Many others where network effects dominated

1147.6 Comprehensive Quiz

Question 1: A Weightless-P network uses Adaptive Data Rate (ADR). A sensor initially at 100m from base station (using GMSK 100 kbps) is relocated to 3 km away. What happens, and why?

💡 Explanation: Adaptive Data Rate (ADR) operation: (1) Link quality monitoring: Sensor transmits packet using GMSK 100 kbps (current mode). At 3 km, signal is too weak (-130 dBm received vs -110 dBm sensitivity for GMSK) - base station doesn’t decode packet. (2) Retry with notification: Sensor doesn’t receive ACK within timeout (e.g., 500 ms), increments retry counter. After 3-5 failed retries, sensor includes “ADR request” flag in next transmission (tries GMSK one more time with higher power or alternate channel). (3) Base station decision: Base station receives weak GMSK packet (RSSI = -128 dBm, PER = 50%) or extracts ADR request. Network server analyzes: RSSI too low for GMSK (needs >-110 dBm), but sufficient for DBPSK (sensitivity -130 dBm). Issues “switch to DBPSK 12.5 kbps” MAC command. (4) Sensor adaptation: Sensor receives MAC command in ACK payload (or dedicated downlink), reconfigures PHY to DBPSK 12.5 kbps, retransmits packet successfully (achieves -130 dBm link budget, sufficient for 3 km). Key insight: ADR is network-assisted adaptation (base station measures link quality and decides modulation), not device-autonomous (sensor doesn’t measure distance or GPS). This centralized approach optimizes across all devices (prevents interference, balances network capacity). LoRaWAN ADR works identically (base station adjusts Spreading Factor SF7-12 per device).

Question 2: Why did Weightless (all variants N/P/W) ultimately fail in the market despite technical innovation, while LoRaWAN succeeded?

💡 Explanation: Ecosystem effects determined LPWAN market winners: (C) CORRECT: LoRa Alliance (formed 2015, now 500+ members) included chipset vendors (Semtech = LoRa inventor), module makers (Murata, STMicro), network operators (Orange, Comcast), cloud providers (AWS, Azure), and device OEMs (Bosch, Siemens). Result: silicon availability (SX1276/SX1262 chips in volume), reference designs (accelerating device development), global network deployments (The Things Network, Helium, operator networks), developer tools (libraries, documentation, community support). Weightless SIG (formed 2012, <50 members) had standards but no chipset vendors - required discrete RF components or FPGA prototypes, adding cost and development time. Result: few devices (2-3 vendors), few base stations (no turnkey solutions), no network deployments (chicken-egg: no devices → no networks → no demand → no devices). By 2017, Weightless-W abandoned, Weightless-P had <10 commercial deployments. Timing: LoRa launched 2013 (Semtech acquisition of Cycleo), LoRaWAN spec 2015 - captured early LPWAN wave (2015-2018 IoT hype). Weightless launched 2012 but silicon unavailable until 2016-2017 (missed market window). Lesson: In standards wars, ecosystem >> technology - VHS beat Betamax, Bluetooth beat HomeRF, LoRaWAN beat Weightless despite technical trade-offs.

Question 3: You’re deploying a smart agriculture system across a 50 km² farm with 200 soil moisture sensors that report every 4 hours. Sensors need bidirectional communication for configuration updates, no recurring fees, and 5-year battery life. Which Weightless variant is most suitable?

💡 Explanation: Weightless-P is optimal because: (1) it supports full bidirectional communication (Weightless-N is uplink-only, failing the configuration requirement), (2) achieves 5-6 year battery life at 6 messages/day, meeting the 5-year goal, (3) operates in ISM bands (868/915 MHz) without requiring TV White Space database access (Weightless-W needs geolocation database and regulatory complexity), and (4) costs €16,100 total for 5 base stations + 200 devices vs €50,000+ for multi-technology redundancy. Weightless-P’s balanced approach (range, power, complexity) makes it ideal for private IoT networks.

Question 4: What is the primary reason Weightless-W (TV White Space variant) failed to achieve market adoption despite technical advantages (interference-free spectrum, good propagation)?

💡 Explanation: Weightless-W failed due to COMPLEXITY vs benefit trade-off: (1) Hardware cost: GPS module ($5-10) mandatory for geolocation database queries, spectrum sensing frontend ($10-15) for cognitive radio, higher RF complexity ($5-10) for TVWS frequencies → total $30-50 per device vs $5-10 for LoRa/Sigfox ISM modules. (2) Regulatory complexity: Must implement FCC/Ofcom TVWS database protocol (REST API, TLS, authentication), maintain geolocation (re-query on movement >100m), spectrum sensing (detect primary user transmissions in <2 seconds), power control (adjust TX power per channel). Requires significant firmware development. (3) Developer friction: TVWS testing requires FCC Equipment Authorization (longer certification than ISM “self-certification”), database vendor agreements (Google, Microsoft TVWS databases), operational complexity (what if database offline? GPS fails?). Result: IoT vendors chose simpler ISM-band protocols (LoRaWAN, Sigfox) despite TVWS technical advantages (cleaner spectrum, wide channels). Ecosystem effects: No chipset vendors invested in TVWS IoT (chicken-egg: no demand → no chips → high cost → no demand). Weightless SIG pivoted to Weightless-P (ISM), effectively abandoning Weightless-W post-2017.

1147.7 Decision Frameworks

1147.7.1 Weightless Variant Selection Guide

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flowchart TD
    START(["Weightless<br/>Variant Selection"])
    Q1{"TV White Space<br/>available in region?"}
    Q2{"Bidirectional<br/>communication<br/>needed?"}
    Q3{"Open standard<br/>important?"}
    Q4{"Existing LPWAN<br/>ecosystem?"}
    Q5{"Private network<br/>preferred?"}

    WW["Weightless-W<br/>TV White Space"]
    WP["Weightless-P<br/>ISM Band Bidirectional"]
    WN["Weightless-N<br/>(Discontinued)"]
    LORAWAN["LoRaWAN<br/>Better ecosystem"]
    SIGFOX["Sigfox<br/>Operator network"]

    WW_DETAILS["Weightless-W:<br/>• 470-790 MHz TV bands<br/>• Up to 10 Mbps<br/>• 5+ km range<br/>• Requires geolocation DB<br/>• Limited adoption"]

    WP_DETAILS["Weightless-P:<br/>• 868/915 MHz ISM<br/>• 200 bps - 100 kbps<br/>• Bidirectional<br/>• No subscription fees<br/>• Open standard"]

    ALT_DETAILS["Consider Alternatives:<br/>• LoRaWAN: Larger ecosystem<br/>• Sigfox: No infrastructure needed<br/>• NB-IoT: Cellular coverage"]

    START --> Q1
    Q1 -->|"Yes"| WW
    Q1 -->|"No"| Q2
    Q2 -->|"No (uplink only)"| WN
    Q2 -->|"Yes"| Q3
    Q3 -->|"No"| Q4
    Q3 -->|"Yes"| Q5
    Q4 -->|"Yes"| LORAWAN
    Q4 -->|"No"| SIGFOX
    Q5 -->|"Yes"| WP
    Q5 -->|"No"| LORAWAN

    WW --> WW_DETAILS
    WP --> WP_DETAILS
    WN -.->|"Superseded"| WP
    LORAWAN --> ALT_DETAILS
    SIGFOX --> ALT_DETAILS

    style START fill:#7F8C8D,color:#fff
    style Q1 fill:#2C3E50,color:#fff
    style Q2 fill:#2C3E50,color:#fff
    style Q3 fill:#2C3E50,color:#fff
    style Q4 fill:#2C3E50,color:#fff
    style Q5 fill:#2C3E50,color:#fff
    style WW fill:#16A085,color:#fff
    style WP fill:#16A085,color:#fff
    style WN fill:#c0392b,color:#fff
    style LORAWAN fill:#3498db,color:#fff
    style SIGFOX fill:#E67E22,color:#fff
    style WW_DETAILS fill:#d4efdf,color:#2C3E50
    style WP_DETAILS fill:#d4efdf,color:#2C3E50
    style ALT_DETAILS fill:#d6eaf8,color:#2C3E50

Figure 1147.3: Weightless variant selection decision tree. Starts with TV White Space availability: if yes, consider Weightless-W. If no, check bidirectional needs: uplink-only leads to discontinued Weightless-N (now superseded by Weightless-P). Bidirectional requirement checks open standard preference: if not critical, evaluate existing ecosystem (yes leads to LoRaWAN, no leads to Sigfox). If open standard is important, private network preference leads to Weightless-P, otherwise LoRaWAN. {fig-alt=“Weightless selection flowchart. TV White Space available leads to Weightless-W (470-790 MHz, up to 10 Mbps). No TV White Space checks bidirectional need: uplink-only leads to discontinued Weightless-N which is superseded by Weightless-P. Bidirectional requirement with open standard preference leads to Weightless-P (868/915 MHz ISM, 200 bps-100 kbps, no subscription fees). Without open standard priority, existing ecosystem leads to LoRaWAN (larger ecosystem) or Sigfox (no infrastructure needed).”}

1147.7.2 Weightless vs LoRaWAN Feature Comparison

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graph TB
    subgraph Header["Technical Comparison: Weightless-P vs LoRaWAN"]
        direction LR
        H1["Feature"]
        H2["Weightless-P"]
        H3["LoRaWAN"]
    end

    subgraph Physical["Physical Layer"]
        P_WP["Weightless-P:<br/>• DBPSK/GMSK modulation<br/>• 12.5 kHz - 100 kHz channels<br/>• Sub-GHz ISM (868/915 MHz)<br/>• Adaptive data rate"]
        P_LW["LoRaWAN:<br/>• CSS (Chirp Spread Spectrum)<br/>• 125/250/500 kHz channels<br/>• Sub-GHz ISM (868/915/433 MHz)<br/>• Spreading Factor SF7-SF12"]
    end

    subgraph Performance["Performance Metrics"]
        PERF_WP["Weightless-P:<br/>• Range: 2-5 km (urban)<br/>• Data rate: 200 bps - 100 kbps<br/>• Payload: 40 bytes<br/>• Battery: 3-8 years"]
        PERF_LW["LoRaWAN:<br/>• Range: 2-15 km (rural)<br/>• Data rate: 0.3-50 kbps<br/>• Payload: 51-243 bytes<br/>• Battery: 10+ years"]
    end

    subgraph Ecosystem["Ecosystem & Market"]
        ECO_WP["Weightless-P:<br/>• Small ecosystem<br/>• Few chipset vendors<br/>• Limited deployments<br/>• Niche applications"]
        ECO_LW["LoRaWAN:<br/>• 500+ LoRa Alliance members<br/>• Semtech + multiple chip vendors<br/>• Millions of devices deployed<br/>• Global network coverage"]
    end

    subgraph Verdict["Selection Recommendation"]
        V1["Choose Weightless-P if:<br/>• Open standard paramount<br/>• Private network control<br/>• No vendor lock-in critical<br/>• Niche industrial deployment"]
        V2["Choose LoRaWAN if:<br/>• Ecosystem support needed<br/>• Global deployments<br/>• Public network available<br/>• Long-range rural coverage"]
    end

    Header --> Physical --> Performance --> Ecosystem --> Verdict

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    style Physical fill:#16A085,color:#fff
    style Performance fill:#E67E22,color:#fff
    style Ecosystem fill:#2C3E50,color:#fff
    style Verdict fill:#7F8C8D,color:#fff
    style P_WP fill:#d4efdf,color:#2C3E50
    style P_LW fill:#d4efdf,color:#2C3E50
    style PERF_WP fill:#fdebd0,color:#2C3E50
    style PERF_LW fill:#fdebd0,color:#2C3E50
    style ECO_WP fill:#e8e8e8,color:#2C3E50
    style ECO_LW fill:#e8e8e8,color:#2C3E50
    style V1 fill:#fadbd8,color:#2C3E50
    style V2 fill:#d4efdf,color:#2C3E50

Figure 1147.4: Weightless-P vs LoRaWAN comparison across physical layer, performance, and ecosystem dimensions. Physical: Weightless uses DBPSK/GMSK while LoRaWAN uses CSS modulation. Performance: LoRaWAN offers longer range (2-15 km vs 2-5 km) and larger payloads (243 vs 40 bytes). Ecosystem: LoRaWAN has 500+ members and global deployments while Weightless-P has limited market presence. Choose Weightless-P for open standard priority and private networks; choose LoRaWAN for ecosystem support and global coverage. {fig-alt=“Detailed comparison table. Physical Layer: Weightless-P uses DBPSK/GMSK modulation with 12.5-100 kHz channels; LoRaWAN uses CSS with 125-500 kHz channels, both in sub-GHz ISM bands. Performance: Weightless-P achieves 2-5 km urban range, 200 bps-100 kbps, 40-byte payload, 3-8 year battery; LoRaWAN achieves 2-15 km range, 0.3-50 kbps, 51-243 byte payload, 10+ year battery. Ecosystem: Weightless-P has small ecosystem with few vendors and limited deployments; LoRaWAN has 500+ Alliance members, multiple chip vendors, millions deployed globally. Recommendation: Weightless-P for open standard and private control, LoRaWAN for ecosystem and global coverage.”}

1147.8 Best Applications for Weightless

Best Applications: - Smart agriculture (private networks) - Industrial IoT (controlled environments) - Smart cities (municipal deployments) - Applications valuing open standards

Market Reality: - Technically sound but limited commercial success - Faces strong competition from LoRaWAN (larger ecosystem) and NB-IoT (existing infrastructure) - May appeal to specific use cases prioritizing open standards and ownership

For most new IoT deployments, LoRaWAN or NB-IoT are more practical choices due to larger ecosystems and proven deployments. Consider Weightless-P for niche applications where open standards and avoiding vendor lock-in are paramount.

1147.9 Further Reading

Official Resources: - Weightless SIG: www.weightless.org - Weightless-P Specification (downloadable from Weightless SIG)

TV White Space: - FCC TV White Space Database information - Ofcom (UK) TV White Space guidance - “TV White Space: The First Step Towards Better Utilization of Frequency Spectrum”

Open Standards: - “Open vs Proprietary Standards in IoT” - Comparison of LPWAN standards and ecosystems

1147.11 Summary

This chapter analyzed Weightless’s market position and provided decision frameworks:

  • Ecosystem effects matter more than technical superiority - LoRaWAN’s large ecosystem (500+ members, millions of devices) created a virtuous cycle while Weightless faced a vicious cycle of limited adoption
  • Timing was critical: LoRaWAN captured the 2015-2018 LPWAN wave while Weightless-P arrived late (2017)
  • Weightless-W failed due to complexity (GPS, database access, regulatory compliance) adding $30-50 per device vs $5-10 for ISM-band alternatives
  • Decision framework: Choose Weightless-P only when open standards and private network control are paramount; otherwise, LoRaWAN or NB-IoT offer larger ecosystems and proven deployments
  • Future prospects: Niche success possible in organizations valuing open standards, private deployments, and academic/research environments

1147.12 What’s Next

Now that you understand Weightless and LPWAN technologies, explore the application-layer protocols:

  • Next Chapter: Cellular IoT - Understand traditional 2G/3G/4G networks
  • Application Protocols: Continue to MQTT - The most popular IoT messaging protocol
  • Then: CoAP - Lightweight request-response protocol for constrained devices
  • Then: AMQP - Advanced Message Queuing Protocol for enterprise IoT
  • Then: XMPP - Extensible Messaging and Presence Protocol for human interaction